Faculty of Engineering, Built Environment and Information Technology:/Ebit part1 engineering 2014
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This document provides information about the faculties and schools within the University of Pretoria. It focuses on the Faculty of Engineering, Built Environment and Information Technology. This faculty has three parts - Part I is the School of Engineering which includes departments like Chemical Engineering, Civil Engineering, Electrical Engineering, Industrial and Systems Engineering, Materials Science and Metallurgical Engineering, Mechanical and Aeronautical Engineering. It provides degree information, curriculum details, module information and lists the academic personnel for each engineering department.
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DEGREES CONFERRED IN THE SCHOOL OF ENGINEERING AND
GRADUATE SCHOOL OF TECHNOLOGY MANAGEMENT
The following degree is awarded in the School of Engineering (minimum duration in
brackets):
(a) Bachelor's degree:
(i) Bachelor of Engineering – [BEng] (four years)
The following degrees are awarded in the School of Engineering and the Graduate
School of Technology Management (minimum duration in brackets):
(a) Honours degrees: (one year)
(i) Bachelor of Engineering Honours – [BEngHons]
(ii) Bachelor of Science Honours – [BScHons]
(b) Master's degrees: (one year)
(i) Master of Engineering – [MEng]
(ii) Master of Science – [MSc]
(c) Doctorates: (one year)
(i) Doctor of Philosophy– [PhD]
(ii) Doctor of Philosophy in Engineering – [PhD (Engineering)]
(iii) Doctor of Engineering – [DEng]
Regulations for the degree: Bachelor of Engineering [BEng]
Eng. 1
Admission to degree study
General Regulations G.1 to G.15 are applicable to all bachelor's degrees. Where the
General Regulations have vested authority in the Faculty to determine its own provisions,
these provisions appear in this publication.
General
To register for a first bachelor's degree at the University, a candidate must, in addition to
the required National Senior Certificate with admission for degree purposes, comply with
the specific admission requirements for particular programmes and fields of study as
prescribed in the admission regulations and the regulations of the departments.
Applicants are notified in writing of provisional admission. Admission to the School of
Engineering is based on the final grade 12 examination results.
(a) The following persons may also be considered for admission:
(i) A candidate who is in possession of a certificate which is deemed by the
University to be equivalent to the required National Senior Certificate with
admission for degree purposes.
(ii) A candidate who is a graduate from another tertiary institution or has been
granted the status of a graduate of such an institution.
(iii) A candidate who passes an entrance examination, which is prescribed by the
University from time to time.
Abovementioned candidates are requested to contact the faculty for more
information regarding admission requirements.
Note: A conditional exemption certificate does not grant admission to bachelor's
study. However, in certain circumstances some of the faculties do accept a
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requirements but who is able to register for all outstanding modules in order to
complete the degree programme, may at registration be promoted to the fourth year
of study.
(b) A student must pass all the prescribed modules of the second year of study, before
he or she is admitted to any module of the fourth year of study.
(c) A student who has not passed all the prescribed modules of the third year of study,
must register for the outstanding modules. A student may be admitted by the Dean,
on the recommendation of the head of department concerned, to modules of the
fourth year of study, in addition to the outstanding third-year modules, provided that
he or she complies with the prerequisites of the fourth-year modules and no
timetable clashes occur. The total number of credits per semester for which a
student registers may not exceed the normal number of credits per semester by
more than 16 credits. In exceptional cases, the Dean may, on recommendation of
the relevant head of department, permit a student to exceed the above limit.
(d) Students in Computer, Electrical and Electronic Engineering who fail a third-year
module for the second time, forfeit the privilege of registering for any modules of the
fourth year of study.
REGULATIONS FOR POSTGRADUATE PROGRAMMES IN THE SCHOOL OF
ENGINEERING AND THE GRADUATE SCHOOL OF TECHNOLOGY MANAGEMENT
Bachelor of Engineering Honours [BEngHons]
Eng. 17
Also consult the General Regulations G.16 to G.29.
(a) Subject to the stipulations of Reg. G.1.3 and G.62, a BEng degree or equivalent
qualification is required for admission.
(b) The minimum duration of the programme is one year of full-time study.
(c) The curriculum is determined in consultation with the relevant heads of
departments. A student is required to pass modules to the value of at least 128
credits.
(d) The degree is awarded in the following fields of engineering:
(i) Bioengineering (Code 12240201)
(ii) Chemical Engineering (Code 12240021)
(iii) Computer Engineering (Code 12240211)
(iv) Control Engineering (Code 12240231)
(v) Electrical Engineering (Code 12240031)
(vi) Electronic Engineering (Code 12240091)
(vii) Environmental Engineering (Code 12240221)
(viii) Geotechnical Engineering (Code 12240212)
(ix) Industrial Engineering (Code 12240011)
(x) Mechanical Engineering (Code 12240051)
(xi) Metallurgical Engineering (Code 12240061)
(xii) Microelectronic Engineering (Code 12240191)
(xiii) Mining Engineering (Code 12240071)
(xiv) Structural Engineering (Code 12240121)
(xv) Technology Management (Code 12240251)
(xvi) Transportation Engineering (Code 12240111)
(xvii) Water Resources Engineering (Code 12240161)
(xviii) Water Utilisation Engineering (Code 12240101)
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(e) The degree is awarded on the basis of examinations only.
(f) Examinations
(i) The examination in each module for which a student is registered, takes
place during the normal examination period after the conclusion of lectures
(i.e. November/January or June/July).
(ii) A student registered for the honours degree must complete his or her studies
within two years (full-time), or within three years (part-time) after first
registration for the degree: Provided that the Dean, on recommendation of
the relevant head of department, may approve a stipulated limited extension
of this period.
(iii) A student must obtain at least 50% in an examination for each module where
no semester or year mark is required. A module may only be repeated once.
(iv) In modules where semester or year marks are awarded, a minimum
examination mark of 40% and a final mark of 50% is required.
(v) No supplementary or special examinations are granted at postgraduate level.
(g) A student passes with distinction if he or she obtains a weighted average of at least
75% in the first 128 credits for which he or she has registered (excluding modules
which were discontinued timeously). The degree is not awarded with distinction if a
student fails any one module (excluding modules which were discontinued
timeously).
(h) Credit for modules
Consult General Regulation G.23
Master of Engineering [MEng]
Master of Science (Engineering Management) [MSc (Engineering Management)]
Master of Science (Project Management) [MSc (Project Management)]
Eng. 18
Also consult the General Regulations G.30 to G.44. and G.57 to G.62
(a) Subject to the stipulations of Reg. G.1.3 and G.62, a BEngHons degree or
equivalent qualification is required for admission to the MEng programmes
[excluding the MEng (Engineering Management) and the MEng (Project Manage-
ment)]. The admission requirement for the MEng (Engineering Management) and
the MEng (Project Management) is a BEng or equivalent qualification. The
admission requirement for the MSc (Engineering Management) and the MSc
(Project Management) is a BScHons or equivalent qualification.
(b) The minimum duration of the MEng programmes [excluding the MEng (Engineering
Management) and the MEng (Project Management)] is one year of full-time study.
The programmes MEng (Engineering Management), MEng (Project Management),
MSc (Engineering Management) and the MSc (Project Management) can be
completed in a minimum period of two years.
(c) A minimum of 128 credits is required to obtain the MEng degree [excluding the
MEng (Engineering Management) and the MEng (Project Management)]. Either a
mini-dissertation (64 credits) and coursework (64 credits) or a dissertation (128
credits) is included in the programme. A minimum of 256 credits is required for the
MEng (Engineering Management), MEng (Project Management), MSc (Engineering
Management) and the MSc (Project Management), including a mini-dissertation (64
credits) and coursework(192 credits).
(d) Recognition is not granted for credits acquired during studying for the BEngHons or
the BScHons.
(e) The degree Master of Engineering is awarded in the following fields of engineering:
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Degree code Dissertation Degree
code
Mini-
dissertation
(i) Bioengineering 12250201 EIB 890
(ii) Chemical Engineering 12250021 CVD 800
(iii) Computer Engineering 12250211 ERI 890
(iv) Control Engineering 12250231 CVD 800
(v) Electrical Engineering 12250031 EIR 890
(vi) Electronic Engineering 12250091 EIN 890
(vii) Engineering Management 12250172 IGB 898
(viii) Environmental Engineering 12250221 CVD 800
(ix) Geotechnical Engineering 12250212 SGI 890
(x) Industrial Engineering 12250011 BIR 890
(xi) Mechanical Engineering 12250051 MIR 890
(xii) Metallurgical Engineering 12250061 NIN 890
(xiii) Microelectronic Engineering 12250191 EEY 890
(xiv) Mining Engineering 12250071 PYI 890
(xv) Software Engineering 12250202 EPR 890
(xvi) Project Management 12250262 IGB 898
(xvii) Structural Engineering 12250121 SIN 890
(xviii) Technology Management 12250251 ITB 890 12250252 IGB 898
(xix) Transportation Engineering 12250111 SVI 890
(xx) Water Utilisation Engineering 12250101 CVD 800
(xxi) Water Resources
Engineering
12250161 WBK 890
(f) Unless the Dean, on recommendation of the relevant head of department, decides
otherwise, the master's degree is conferred on the basis of examinations of
coursework and a mini-dissertation or a dissertation (including an examination on
the dissertation).
(g) The curriculum is determined in consultation with the relevant head of department.
(h) Examinations
(i) The stipulations of Eng. 17 (f)(i), (iii), (iv) and (v) are applicable.
(ii) An MEng student [excluding the MEng (Engineering Management) and the
MEng (Project Management)] is required to complete his or her degree
studies within three years after the first registration: Provided that the Dean,
in consultation with the relevant head of department, may, in exceptional
circumstances, approve a stipulated limited extension of this period.
(iii) A student for an MEng (Engineering Management), MEng (Project Manage-
ment), MSc (Engineering Management) or an MSc (Project Management) is
required to complete his or her degree studies within four years after the first
registration: Provided that the Dean, in consultation with the relevant head of
department, may, in exceptional circumstances, approve a stipulated limited
extension of this period.
(iv) The Dean may, on recommendation of the relevant head of department,
exempt a student from the examination on the dissertation.
(i) Guidelines for the preparation and examination of mini-dissertations are available
from all departments. The average mark awarded by all the examiners is the final
mark, with the pass mark being at least 50%.
(j) Pass with distinction
(i) A student who submits a dissertation passes with distinction if an average
mark of at least 75% is obtained for the dissertation (and the examination on
the dissertation).
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(ii) A student who completes the master's degree on grounds of coursework and
a mini-dissertation, passes with distinction if a weighted average mark of at
least 75% is obtained in the first 128 credits obtained for the degree [first 256
credits in the case of the MEng (Engineering Management), MEng (Project
Management), MSc (Engineering Management) or the MSc (Project
Management)], provided that 64 of these credits are allocated to the mini-
dissertation. However, the degree is not awarded with distinction should a
student fail any of these modules (excluding modules which have been
timeously discontinued). The degree is also not awarded with distinction if a
student obtains less than 70% for the mini-dissertation.
(k) General master's degree requirements and draft article
A student must by means of a dissertation or mini-dissertation prove that he or she
is capable of planning, instituting and executing a scientific investigation. Unless the
Senate, on the recommendation of the supervisor, decides otherwise, a student,
before or on submission of a dissertation, must submit proof issued by a recognised
academic journal that an article was submitted, to the Head: Student
Administration. The draft article should be based on the research that the student
has conducted for the dissertation and be approved by the supervisor if the
supervisor is not a co-author. The supervisor shall be responsible for ensuring that
the paper is taken through all the processes of revision and resubmission, as may
be necessary. Conferment of the degree may be made subject to compliance with
the stipulations of this regulation.
Curricula for the following programmes:
BEngHons
MEng
MSc (Engineering Management)
MSc (Project Management)
Eng. 19
Any specific module is offered on condition that a minimum number of students are
registered for the module, as determined by the head of department and the Dean.
Students must consult the relevant head of department in order to compile a meaningful
programme, as well as for information on the syllabi of the modules. The various
departmental postgraduate brochures should also be consulted.
Note: The programmes are arranged in alphabetical order according to the names of the
academic departments.
(a) CHEMICAL ENGINEERING
A limited number of appropriate modules from other departments and from other divisions
of Chemical Engineering are allowed.
Not all modules listed are presented each year. Please consult the departmental
postgraduate brochure.
BEngHons (Chemical Engineering)(12240021)
Module Code Credits
Bioprocessing 732 CBP 732 32
Fluoro-materials science and technology 732 CFT 732 32
Process integration 732 CIP 732 32
Chemical engineering 702 CIR 702 32
Carbon materials science and technology 732 CMS 732 32
Product design 732 CPO 732 32
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Open pit mining 783 POY 783 16
Advanced explosives engineering 785 PRX 785 16
Guided special studies 700 Finalists only PSS 700 32
Strata control – Hard rock mining 786 PSZ 786 16
Strata control – Collieries 788 PSZ 788 16
MEng (Mining Engineering)(12250071)
Module Code Credits
Dissertation 890 PYI 890 128
(i) MODULES FROM OTHER DEPARTMENTS
Postgraduate modules offered by the Department of Geology:
Engineering geology 703 IGL 703
Engineering geology 704 IGL 704
Postgraduate modules offered by the Department of Mathematics and Applied
Mathematics:
First semester
Mathematical models of financial engineering 732 WTW 732
Second semester
Mathematical models of financial engineering 762
(Prerequisite: WTW 732)
WTW 762
Bachelor of Science Honours in Applied Science
[BScHons (Applied Science)]
Bachelor of Science Honours in Technology Management
[BScHons (Technology Management)]
Eng. 20
Also consult the General Regulations G.16 to G.29.
(a) Admission requirements: An appropriate bachelor's degree, a BTech degree or
equivalent qualification.
(b) The minimum duration of the programme is one year of full-time study.
(c) A minimum of 128 credits is required to obtain the BScHons degree.
(d) The BScHons (Applied Science) degree is conferred by the following academic
departments:
Chemical Engineering
Civil Engineering
Industrial and Systems Engineering
Materials Science and Metallurgical Engineering
Mechanical and Aeronautical Engineering
Mining Engineering
(e) The BScHons (Technology Management) degree is conferred by the following
academic department:
Engineering and Technology Management
(f) The stipulations of Reg. Eng. 17 (e) to (g) apply mutatis mutandis.
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Master of Science in Applied Science
[MSc (Applied Science)]
Master of Science in Technology Management
[MSc (Technology Management)]
Eng. 21
Also consult the General Regulations G.30 to G.44. and G.57 to G.62
(a) Subject to the stipulations of Regulation G.62, an appropriate BScHons or
equivalent degree is required for admission.
(b) The minimum duration of the programme is one year of full-time study.
(c) The MSc (Applied Science) degree is conferred by the same departments as the
BScHons (Applied Science) degree. The MSc (Technology Management) degree is
conferred by the Department of Engineering and Technology Management.
(d) A minimum of 128 credits is required to obtain the MSc degree. Either a mini-
dissertation (64 credits) and coursework (64 credits) or a dissertation (128 credits)
is included in the programme.
(e) The stipulations of Regulation Eng. 18 (f) to (k) apply mutatis mutandis, excluding
the stipulations applicable to the MEng (Engineering Management), MEng (Project
Management), MSc (Engineering Management) and the MSc (Project Manage-
ment).
Curricula for the following programmes:
BScHons (Applied Science)
BScHons (Technology Management)
MSc (Applied Science)
MSc (Technology Management)
Eng. 22
Any specific module is offered on the condition that a minimum number of students are
registered for the module, as determined by the head of department and the Dean.
Students must consult the relevant head of department in order to compile a meaningful
programme, as well as on the syllabi of the modules. The relevant departmental
postgraduate brochures must also be consulted.
Note: The programmes are arranged in alphabetical order according to the names of the
academic departments.
(a) CHEMICAL ENGINEERING
A limited number of appropriate postgraduate modules from other departments are
allowed.
Not all modules listed are presented each year. Please consult the departmental
postgraduate brochure.
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(If a student fails the selected 32 credit option or any one of the two 16 credit modules from
the third option, this may be taken as grounds for termination of the registration of the
student, in terms of General Regulation G.4 and G.19.)
and
at least 96 credits chosen from the modules as prescribed for the BEngHons programme,
as approved by the head of department, and subject to concurrent registration prerequisite
requirements published in the departmental postgraduate brochure.
MSc (Applied Science) (Mechanics)(12253021)
Module Code Credits
Dissertation 891 MIR 891 128
(h) MINING ENGINEERING
BScHons (Applied Science) (Mining)(12243044)
Module Code Credits
Basic mine environment engineering 701 PKB 701 16
Underground mining methods 701 PMY 701 32
Surface-mining 703 PMY 703 16
Explosives engineering 701 PRX 701 16
Guided special studies 700 Finalists only PSS 700 32
Basic rock mechanics 703 PSZ 703 16
Total number of credits 128
All the modules above are compulsory for fulfilling the requirement for BScHons (Applied
Science)(Mining).
MSc (Applied Science) (Mining Environmental Control)(12253023)
or
MSc (Applied Science) (Mine Strata Control)(12253024)
Module Code Credits
Dissertation 891 PYI 891 128
DOCTORAL DEGREES
Doctor of Philosophy in Engineering [PhD (Engineering)]
Eng. 23
Also consult the General Regulations G.45 to G.55 and G.57 to G.62.
(a) Subject to the stipulations of Regulations G.45 and G.62, no candidate is admitted
to doctoral studies unless such a candidate holds a master's degree in Engineering
or an equivalent master's degree.
(b) Unless otherwise decided by the Dean, on the recommendation of the supervisor,
the PhD (Engineering) degree is awarded on the basis of a thesis and an
examination on the thesis.
(c) Unless Senate, on the recommendation of the supervisor, decides otherwise, a
student, before or on submission of a thesis, must submit proof of submission of an
article from/issued by an accredited journal, to the Head: Student Administration.
The submitted article should be based on the research that the student has
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conducted for the thesis and be approved by the supervisor if the supervisor is not
a co-author. The supervisor shall be responsible for ensuring that the paper is
taken through all the processes of revision and resubmission, as may be
necessary. Conferment of the degree may be made subject to compliance with the
stipulations of this regulation.
(d) The student must provide proof by means of his work, thesis and examination of
advanced original research and/or creative work which makes a real and
substantial contribution to the knowledge of engineering science and/or practice.
Doctor of Philosophy [PhD]
Eng. 24
Also consult the General Regulations G.45 to G.55 and G.57 to G.62.
(a) Subject to the stipulations of Regulations G.45 and G.62 a master's degree is
required for admission to studies for a PhD.
(b) Unless otherwise decided by the Dean, on the recommendation of the supervisor,
the PhD degree is awarded on the basis of a thesis and an examination on the
thesis.
(c) Unless the Senate, on the recommendation of the supervisor, decides otherwise, a
student, before or on submission of a thesis, must submit proof of submission of an
article issued by an accredited journal, to the Head: Student Administration. The
submitted article should be based on the research that the student has conducted
for the thesis and be approved by the supervisor if the supervisor is not a co-author.
The supervisor shall be responsible for ensuring that the paper is taken through all
the processes of revision and resubmission, as may be necessary. Conferment of
the degree may be made subject to compliance with the stipulations of this
regulation.
(d) The student must provide proof by means of his work, thesis and examination of
advanced original research and/or creative work which makes a real and sub-
stantial contribution to the knowledge of Engineering Science and/or Practice.
Doctor of Engineering [DEng] (Code 12260001)
Eng. 25
The degree DEng is awarded on the basis of publications. Subject to General Regulation
G.56, the following applies:
1. Admission
The degree is conferred on a candidate who can demonstrate that he/she enjoys
international recognition in her/his field of expertise by virtue of the quality and
impact of the publications that have been produced.
2. Application
(a) A candidate must apply in writing to be considered for the degree.
(b) Should a candidate wish to graduate at a particular ceremony, an application
must be submitted before the closing date of the various graduation
ceremonies, which is announced annually.
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Faculty of Engineering, Built Environment and Information Technology:/Ebit part1 engineering 2014
- 1. Engineering 2014 FACULTIES OF THE UNIVERSITY OF PRETORIA HUMANITIES NATURAL AND AGRICULTURAL SCIENCES LAW THEOLOGY ECONOMIC AND MANAGEMENT SCIENCES VETERINARY SCIENCE EDUCATION HEALTH SCIENCES ENGINEERING, BUILT ENVIRONMENT AND INFORMATION TECHNOLOGY ISBN 978-1-77592-060-1
- 3. Engineering 2014 FACULTY OF ENGINEERING, BUILT ENVIRONMENT AND INFORMATION TECHNOLOGY PART I (this publication) SCHOOL OF ENGINEERING • Industrial and Systems Engineering • Chemical Engineering • Electrical, Electronic and Computer Engineering • Mechanical and Aeronautical Engineering • Materials Science and Metallurgical Engineering • Mining Engineering • Civil Engineering GRADUATE SCHOOL OF TECHNOLOGY MANAGEMENT • Engineering and Technology Management PART II (separate publication) SCHOOL FOR THE BUILT ENVIRONMENT • Architecture and Landscape Architecture • Construction Economics • Town and Regional Planning PART III (separate publication) SCHOOL OF INFORMATION TECHNOLOGY • Informatics • Information Science • Computer Science
- 5. Engineering 2014 TABLE OF CONTENTS ACADEMIC PERSONNEL ....................................................................................... 1 GENERAL INFORMATION ...................................................................................... 7 Admission .......................................................................................................... 7 Selection ............................................................................................................ 7 Statement of symbols......................................................................................... 7 National Senior Certificate.................................................................................. 7 Language of tuition............................................................................................. 7 Bursaries and loans............................................................................................ 7 Accommodation ................................................................................................. 7 Welcoming day, registration and start of the academic year............................... 8 Prescribed books ............................................................................................... 8 Amendment of regulations and fees ................................................................... 8 Leave of absence............................................................................................... 8 SYSTEM OF TUITION.............................................................................................. 8 GLOSSARY OF TERMS .......................................................................................... 9 DEGREES CONFERRED IN ENGINEERING........................................................... 11 REGULATIONS FOR THE BEng DEGREES........................................................... 11 Admission to degree study ................................................................................. 11 Registration for a specific year ........................................................................... 14 Examinations...................................................................................................... 14 Renewal of registration....................................................................................... 17 Modules from other faculties............................................................................... 17 Change of field of study...................................................................................... 17 Minimum study period ........................................................................................ 17 Exposure to the practice of engineering.............................................................. 17 Registration of modules...................................................................................... 17 Pass with distinction........................................................................................... 18 CURRICULA FOR THE BEng PROGRAMMES....................................................... 18 Fields of study, learning outcomes and learning contents................................... 18 Module information............................................................................................. 19 Curricula: Four-year programmes....................................................................... 20 Curricula: Five-year ENGAGE programmes ....................................................... 39 REQUIREMENTS FOR PROMOTION TO THE FOLLOWING YEAR OF STUDY .... 54 POSTGRADUATE PROGRAMMES......................................................................... 56 BEngHons.......................................................................................................... 56 MEng, MSc (Engineering Management) and MSc (Project Management) .......... 57 Curricula for the BEngHons, MEng, MSc (Engineering Management) and MSc (Project Management) programmes ............................................................... 59 BScHons (Applied Science) and BScHons (Technology Management) .............. 72 MSc (Applied Science) and MSc (Technology Management) ............................. 73 Curricula for the BScHons and the MSc programmes......................................... 73
- 6. Engineering 2014 Doctor of Philosophy (Engineering) .................................................................... 79 Doctor of Philosophy .......................................................................................... 80 Doctor of Engineering......................................................................................... 80 ALPHABETICAL LIST OF MODULES..................................................................... 83
- 7. Engineering 2014 FACULTY OF ENGINEERING, BUILT ENVIRONMENT AND INFORMATION TECHNOLOGY SCHOOL OF ENGINEERING ACADEMIC PERSONNEL AS AT 30 SEPTEMBER 2013 DEAN Prof R.F. Sandenbergh, PrEng MEng DEng(Pretoria) FSAIMM MCorrlSA Department of Chemical Engineering De Vaal, P.L., PrEng BEng(Hons) MEng PhD(Pretoria) FSAIChE MSAIT MSTLE..............................................................Professor (Head) Crouse, P.L., BA(Unisa) HED(Natal-Durban) BSc(Hons) MSc(Cape Town) PhD(Pretoria) MACS........................................Professor Focke, W.W., PrEng BEng(Hons) MEng(Pretoria) Dip Data(Unisa) PhD(MIT) MSAIChE MACS MPPS MSPE.................Professor Grimsehl, U.H.J., PrEng BEng(Hons) DEng(Pretoria) FSAIChE ......................................................................................Professor Nicol, W., PrEng BEng(Pretoria) PhD(Witwatersrand) MSAIChE .....................................................................................Professor Chirwa, E.M., PrEng P.E.(MD-USA) MSc(UKY) PhD(UKY) MASCE MAWWA MWISA MMIE(MW)..........................................Associate Professor Heydenrych, M.D., PrEng C.Eng MSc(Eng)(Witwatersrand) PhD(Twente) MDP(Unisa) FSAIChE FIChemE.............................Associate Professor Du Plessis, B.J.G.W., PrEng MEng(Pretoria) MDP(Unisa) MSAIChE .....................................................................................Senior Lecturer Du Toit, E.L., PrEng BEng(Hons) MEng(Pretoria) MSAIChE.............Senior Lecturer Labuschagne, F.J.W.J., PrEng MEng PhD(Pretoria) MSAIChE .....................................................................................Senior Lecturer Rolfes, H., PrEng BEng MSc(UMIST) PhD(UMIST) MSAIChE .........Senior Lecturer Sandrock, C., PrEng MEng(Pretoria) MSAIChE................................Senior Lecturer Department of Civil Engineering Kearsley, E.P., PrEng MEng(Pretoria) PhD(Leeds) FSAICE .............Associate Professor (Head) Clayton, C.R., CEng CGeol MSc (Imperial College) PhD (Surrey) FICE FGS.......................................................................Extraordinary Professor Jordaan, G.J., PrEng MEng PhD(Pretoria) MSAICE .........................Extraordinary Professor Visser, A.T., PrEng BSc(Eng)(Cape Town) BCom(Unisa) MSc(Eng)(Wits) PhD(Texas) FSAICE MAcad...............................Emeritus Professor Burdzik, W.M.G., PrEng MEng PhD(Pretoria) MSAICE.....................Professor Dekker, N.W., PrEng MEng(Pretoria) PhD(Witwatersrand) MSAICE.Professor Heymann, G., PrEng MEng(Pretoria) PhD(Surrey) MSAICE .............Professor Maree, L., PrEng MEng PhD(Pretoria) DTE(Pretoria) MSAICE.........Professor Van Rensburg, B.W.J., PrEng MScEng(Pretoria) MSc(Struc) (Southampton) PhD(Pretoria) FSAICE .........................................Professor Van Vuuren, S.J., PrEng MEng MBA PhD(Pretoria) FSAICE MASCE .......................................................................................Professor Gräbe, P.J., PrEng MEng(Pretoria) PhD(Southampton) FSAICE.......Associate Professor Jacobsz, S.W., PrEng MEng(Pretoria) PhD(Cantab) MSAICE ..........Associate Professor Roth, C.P., PrEng BEng(Stellenbosch) MS PhD(Cornell) FSAICE ....Associate Professor 1
- 8. Engineering 2014 Rust, E., PrEng MEng(Pretoria) PhD(Surrey) FSAICE ......................Associate Professor Steyn, W.J.vdM., PrEng PhD(Pretoria)..............................................Associate Professor Venter, C.J., PrEng MEng(Stellenbosch) PhD(Berkely) MSAICE ......Associate Professor Roux, A., MSc(Potchefstroom) PhD(Pretoria) ...................................Senior Lecturer Van Graan, F.J., PrEng BEng MEng(Pretoria) .................................Senior Lecturer Jansen van Rensburg, K., BEng(Hons)(Pretoria)..............................Lecturer Kovtun, M., BEng PhD(Belgorod)......................................................Lecturer Loots, I., PrEng MEng(Pretoria) MSAICE…………… ........................Lecturer Skorpen, S.A., PrEng BEng(Pretoria) BEng(Hons)............................Lecturer Van Dijk, M., MEng(Pretoria) MSAICE ..............................................Lecturer Vorster, D.J., MEng(Pretoria)…………………………… .....................Lecturer Department of Electrical, Electronic and Computer Engineering Maharaj, B.T.J., PrEng MSc Eng(Natal) MSc(Operat. Telecomm) (Coventry) PhD(Pretoria) SMSAIEE MIEEE MIET FSAAE................................................................................Associate Professor (Head) Bansal, R.C., PhD ME MBA Grad Cert in Higher Ed FIET(UK) FIE(India) FIEAust SM IEEE(USA) CPEngg (UK).........................Professor Craig, I.K., PrEng BEng(Pretoria) SM(MIT) PhD MBA(Witwatersrand) FSAAE FSAIEE SMIEEE SMSAIMC...........Professor Du Plessis, M., PrEng MEng DEng(Pretoria) BA BCom(Hons)(Unisa) SMIEEE.......................................................Professor Hancke, G.P., PrEng MEng(Stellenbosch) DEng(Pretoria) SMIEEE........................................................................................Professor Joubert, J., PrEng MEng PhD(Pretoria) FSAAE MSAIEE SMIEEE........................................................................................Professor Leuschner, F.W., PrEng MEng DEng(Pretoria) SMIEEE FSAAE SMSAIEE MIESNA ..........................................................Professor Linde, L.P., PrEng BEng(Hons)(Stellenbosch) MEng DEng(Pretoria) SMIEEE ...............................................................Professor Malherbe, J.A.G., PrEng BSc BEng PhD(Stellenbosch) DEng(Pretoria) FEMA LFIEEE FSAIEE FSAAE MASSAf .............Professor Odendaal, J.W., PrEng MEng PhD(Pretoria) SMIEEE SMSAIEE..........................................................................................Professor Xia, X., PrEng MEng(WIHEE, China) DEng(BUAA, China) FIEEE FSAAE MASSAf ...............................................................Professor Du Plessis, W.P., PrIng MEng(Pretoria) PhD(Pretoria) SMIEEE .......Associate Professor Gitau, M.N., PrEng BSc(Hons)(Nairobi) PhD(Loughborough) MIEEE AMIEE MKSEEE MIEK.....................................................Associate Professor Hanekom, J.J., PrEng MEng PhD(Pretoria) SMIEEE SMSAIEE MSACIG ......................................................................Associate Professor Hanekom, T., PrEng MEng PhD(Pretoria) SMSAIEE MIEEE MSACIG.......................................................................................Associate Professor Ballot, M., PrEng MEng(Pretoria) MIEEE ..........................................Senior Lecturer Grobler, H., MScEng(Stellenbosch) BSc(Hons) MSc(Pretoria) MSAIEE MIEEE MACM MSIAM ...................................................Senior Lecturer Jacobs, J.P., PrEng MEng(Pretoria) BMus(Unisa) MMus(Pretoria) MM MMA DMA(Yale) PhD(Pretoria)....................Senior Lecturer Malekian, R., BEng(North Univ) MEng(IUST) PhD(UTM/UVIC-VRS) Postdoc(UTM) MIEEE MBCS ACM...........Senior Lecturer Van Wyk, J.H., PrEng MEng(Pretoria) SMIEEE MSAIEE EMCPA ........................................................................................Senior Lecturer 2
- 9. Engineering 2014 Badenhorst, W., PrEng MEng(Pretoria).............................................Lecturer Bhatt, D.V., BEng BEd MEng(Pretoria) MIEEE SMSAIEE.................Lecturer Myburgh, H.C., MEng(Pretoria) PhD(Pretoria) MIEEE ......................Lecturer Naidoo, R., PrEng B.Eng(Hons) MEng (Pretoria) BSc(Hons)(UDW) MIEEE MSAIEE...............................................Lecturer Schoeman, J., PrEng BEng(Hons) MEng(Pretoria) ..........................Lecturer Venter, P.J., BEng(Hons) MEng(Pretoria) MIEEE .............................Lecturer Le Roux, J.D., BEng(Hons) MEng(Pretoria)......................................Junior Lecturer Department of Industrial and Systems Engineering Yadavalli, V.S.S., BSc(Andhra) MSc(Osmania) PhD(IIT) ..................Professor (Head) Adendorff, K., PrEng BSc(Eng)(Witwatersrand) DBA(Pretoria) HonFSAIIE MSAIEE FakLidSAAkad .....................Extraordinary Professor Kruger, P.S., MBA MSc(Eng) DSc(Eng)(Pretoria) MSAIIE ................Emeritus Professor Joubert J.W., PrEng MEng PhD(Pretoria) MSAIIE ...........................Associate Professor De Vries, M., PrEng BEng MEng PhD(Pretoria) ...............................Senior Lecturer Jacobs, P.J., MSc(Eng) MBA DBA(Pretoria) ....................................Senior Lecturer Adetunji, O., BSc HDip(Wits) SCOR-P MSc(Ibadan) PhD(Pretoria) ...............................................................................Senior Lecturer Breytenbach, W.P., MCom(Potchefstroom) HED(Pretoria)................Senior Lecturer Bean, W.L., BEng MEng(Pretoria) ....................................................Lecturer Botha, G.J., BEng MEng(Pretoria) ...................................................Lecturer Willemse, E.J., PrEng BEng Hons(Pretoria) .....................................Lecturer Department of Materials Science and Metallurgical Engineering Stumpf, W.E., PrEng BEng(Pretoria) PhD(Sheffield) MSAIMM FSAAcadEng................................................................................Professor (Acting Head) Pistorius, P.C., PrEng MEng(Pretoria) PhD(Cantab) MSAIMM MASSAF FSAAcadEng ...............................................................Extraordinary Professor Rethmeier, M. Dipl.-Ing., Dr.-Ing. (TU Braunschweig, Germany) .....................................................................................Extraordinary Professor Du Toit, M., PrEng BEng MEng PhD(Pretoria) MEng(Witwatersrand) FSAIW FSAAE IWE...................................Professor De Villiers, J.P.R., BSc(Hons)(Free State) PhD(Illinois) GMVA LGVSA LKNMMN ........................................................................Professor Garbers-Craig, A.M., MSc(Pretoria) SM(Metal)(MIT) PhD(Pretoria) MSAIMM MISS ......................................................Associate Professor Groot, D.R., MSc PhD(Port Elizabeth) MDP(Unisa) MSAIMM...........Senior Lecturer Naudé, N.,PrEng, BEng(Pretoria) MSc(Eng) PhD(Eng)(Stellenbosch) MMMA MSAIMM ...................................Senior Lecturer Siyasiya, C.W., PrEng BSc(Mech)(Malawi) MSc PhD(Met)(Pretoria) MSAIMM........................................................Senior Lecturer Erwee, M.W., BEng(Hons)(Pretoria) MEng (Pretoria) MSAIMM MAIST...........................................................................Lecturer Kurup, V. BEng (MSU- India) MTech(IT-BHU-India)MSAIMM ...........Lecturer Loots, R., BEng(Hons)(Pretoria) MEng (Pretoria) ASAIMM……….. ..........................................................................Lecturer Roux, W.P., BEng(Hons)(Pretoria) ASAIMM.....................................Junior Lecturer 3
- 10. Engineering 2014 Department of Mechanical and Aeronautical Engineering Meyer, J.P., PrEng MEng PhD(Pretoria) FSAIMechE MASHRAE MSAIRAC FASME MAIAA FRAeS FSAAE MIIR MSSPI ...........................................................................................Professor (Head) Bejan, A., PE PhD(MIT) FASME.......................................................Extraordinary Professor Katz, Z., PrEng BSc DSc(Israel IT) MASME MSAIMechE MNAMRI FSME MCIRP....................................................................Extraordinary Professor Kröger, D.G., BEng(Mec)(Stellenbosch) S.M.and MechE(MIT) ScD(MIT) ......................................................................................Extraordinary Professor Lewis, R.W., FICE PrEng PhD(Swansea) DSc(Wales)......................Extraordinary Professor Marwala, T., BSc(Mech)(Case Western Reserve Univ) MSc(Pretoria) PhD(Cantab)...........................................................Extraordinary Professor Craig, K.J., PrEng MEng(Pretoria) PhD(Stanford).............................Professor Heyns, P.S., PrEng MEng PhD(Pretoria) FSAAE FSAAI FSAIMechE L.Akad.SA.................................................................Professor Slabber, J.F.M., BSc BEng(Stellenbosch) DEng(Pretoria).................Professor Els, P.S., PrEng MEng PhD(Pretoria) MSAIMechE MSAE MISTVS MASME ...........................................................................Associate Professor Theron, N.J., PrEng MEng(Stellenbosch) PhD(Rensselaer) MSAIMechE...................................................................................Associate Professor Coetzee, J.L., PrEng BSc(Mech Eng) MEng(Industrial) PhD(Pretoria) BCom(Unisa) GCC(Factories) GCC(Mines & Works) ....................................................................Associate Professor Dala L., PhD (Manchester), CEng, Eur-Ing, ESTP (Dipl-Ing, France), ESTA (Dipl-Ing, France), FRAeS, MAIAA, (AeSSA).........Associate Professor Kok, S., PrEng MEng(Pretoria) PhD(Illinois) .....................................Associate Professor Dirker, J., PrEng MEng DEng(RAU)..................................................Senior Lecturer Inglis, H.M., BSc(Eng)(Cape Town) MS(Illinois)................................Senior Lecturer Lexmond, A.S. MSc (Delft), PhD (Eindhoven) ..................................Senior Lecturer Mahmood, G.I., BTech (IIT Bombay), MEng (CUNY), PhD (Utah) ............................................................................................Senior Lecturer Martins, L. S., BSc MSc (UFPR) PhD (FSU) .....................................Senior Lecturer Pietra, F., MSc(Aero)(Pisa) MSc(Mech) (Ingolstadt)..........................Senior Lecturer Sharifpur, M., BEng(Mech)(Shiraz) MEng(NuclearEng) PhD (EMU) MASME MIIIS.....................................................................Senior Lecturer Thiart, C.J.H., PrEng BEng MEng PhD(Pretoria)...............................Senior Lecturer Wilke, D.N., BEng, MEng PhD(Pretoria)............................................Senior Lecturer Xing, B., BSc, MSc (UKZN), DEng (UJ)……………………………..… Senior Lecturer Barbieri-Huyssen, B., MS(Pisa, Italy) ................................................Lecturer Grimsehl, K.P., PrEng BEng(Hons)(Mech)(Pretoria) .........................Lecturer Kat, C., BEng MEng PhD(Pretoria) ...................................................Lecturer Kotzé, N.M., PrEng BEng(Hons)(Pretoria) MSAIMechE....................Lecturer Meeser, R.F., BEng(Hons)(Pretoria) .................................................Lecturer Nell, R.W., PrEng BEng(Hons) MEng(Pretoria) (NWU) SAIMegl.......Lecturer Page, L.G., BEng(Hons), MEng(Pretoria)..........................................Lecturer Roux, S.M., BEng(Hons)(Pretoria) ....................................................Lecturer Smith, L., BEng (Hons) MEng(Pretoria) ............................................Lecturer Van der Westhuizen, S.F., MEng(Hons)(Pretoria) ............................Junior Lecturer Snedden, G.C., PrEng BSc, MSc (Natal) PhD (Durham) BCom(Unisa) MRAes ...................................................................Extraordinary Lecturer 4
- 11. Engineering 2014 Department of Mining Engineering Webber-Youngman, R.C.W., PrEng MEng(Pretoria) Mine Manager's Cert.(Metal) PhD(North-West) MEC Cert......................Associate Professor (Head) Du Plessis, J.J, PrEng BEng(Hons)(Pretoria) PhD(Witwatersrand) MEC Cert.....................................................Extraordinary Professor Fauconnier, C.J., PrEng MEng DEng(Pretoria) Mine Manager’s Cert.(Metal) ..................................................................................Honorary Professor Malan, D.F., PrEng MEng(RAU) PhD(Witwatersrand) Chamber of Mines Rock Mechanic Cert........................................Extraordinary Professor Napier, J.A.L., MSc PhD(Witwatersrand) ..........................................Extraordinary Professor Spiteri, W., BSc PhD(Witwatersrand) NIXT SAFEX ISEE IFS ...........Extraordinary Professor Bredell, P.M., PrEng BEng(Pretoria) Mine Manager’s Cert.(Metal) ..................................................................................Senior Lecturer De Graaf, W.W., PrEng BEng(Hons)(Pretoria) Mine Manager's Cert.(Metal) ..................................................................Senior Lecturer Knobbs, C.G., PrEng BSc(Eng)(Witwatersrand) Mine Manager’s Cert.(Metal) BCom(Unisa) MBL ISMP(Harvard)............Senior Lecturer Maritz, J.A., PrEng BEng(Hons)(Pretoria) Mine Manager’s Cert.(Metal) Rock Engineering Cert..............................................Senior Lecturer Van Staden, M.S., PrEng BEng (Pretoria) Mine Manager’s Cert.(Metal) ..................................................................................Senior Lecturer Mabapa R.R., BEng(Hons) (Pretoria)................................................Junior Lecturer Graduate School of Technology Management Department of Engineering and Technology Management Pretorius, M.W., BSc HED MEng PhD(Pretoria) MIEEE....................Professor (Head) Oerlemans, L.A.G., BSc(Econ) MSc(Tilburg) PhD(Eindhoven)..........Extraordinary Professor Amadi-Echendu, E.U., MS(Wyoming) DPhil(Sussex)........................Professor Buys, A.J., PrEng MEng(Cape Town) PhD(Pretoria).........................Professor Ouma, J.M., BSc(Nairobi) PhD(Amsterdam) .....................................Professor Pretorius, L., PrEng MSc(Math) MSc(Mech) DEng(Pretoria) MIEEE MASME HonFSAIMEchE..................................................Professor Steyn, H.de V., PrEng BSc(Eng)(Hons) MBA PhD(Pretoria) .............Professor Steyn, J.L., PrEng MSc(Eng) DEng(Pretoria) HFSAIMechE M.Akad.SA MAcadEng .................................................................Professor Visser, J.K., PrEng BSc BEng(Stellenbosch) BScEng(Hons) PhD(Pretoria) ...............................................................................Professor Van der Lingen, E., BSc(Free State) MSc(North West) PhD(Pretoria)........................................ .......................................Associate Professor Walwyn, D.R., BSc(Cape Town) PhD(Cambridge)............................Professor Bekker, M.C., PrEng BEng(Pretoria) MEng(RAU) MBA(Stellenbosch) PhD(Pretoria) ................................................Senior Lecturer Chan, K-Y., BEng MEng PhD(Pretoria).............................................Senior Lecturer Lalk, J., PrEng BSc BEng(Hons)(Potchefstroom) MEng(Pretoria) PhD(Cranfield) SMIEEE.......................................Senior Lecturer Thopil, G.A., BEng(India) MEng(Stellenbosch) PhD(Pretoria) ...............................................................................Senior Lecturer Van Waveren, C.C., PrEng MEng(Pretoria) ......................................Senior Lecturer Benade, S.J., BEng(Stellenbosch) MEng PhD(Pretoria)....................Programme Director Carl and Emily Fuchs Institute for Microelectronics Sinha, S., PrEng MEng PhD(Pretoria) SMIEEE SMSAIEE................Director 5
- 12. Engineering 2014 Institute for Technological Innovation Pouris, A., MSc(Industr. Eng)(Thessaloniki) MSc(App.Econ)(Surrey) PhD(Cape Town)....................................Director General Academic Development Programme Muller, E., BA PGDHE BEd Psych MEd Psych PhD(Johan- nesburg) ........................................................................................Senior Lecturer Du Preez, A.E., BSc(Hons) MSc(Pretoria) Dip. in Higher Education(Unisa) ...........................................................................Lecturer Community-based Project Jordaan, M., BPrimEd BA(Hons) MA DPhil(Pretoria) HOD(SACTE) MDS(Free State) ...................................................Senior Lecturer Student Administration Jones, E............................................................................................Head: Student Administration 6
- 13. Engineering 2014 GENERAL INFORMATION The information regarding degree programmes here published is subject to change and may be amended prior to the commencement of the academic year in 2014. Admission Any person who wishes to register at the University for the first time, or after an interruption of studies, should apply or reapply for admission. Application for admission to all programmes closes on 30 September. Selection A selection procedure takes place prior to admission to any programme in the School of Engineering. Restrictions may be placed on the number of students admitted to the School and/or its departments. Postgraduate selection takes place as stipulated in the respective departmental rules. Number restriction If limited human resources and/or facilities are available, number restrictions will be applied. Statement of symbols When registering at this University for the first time, an undergraduate candidate must submit a statement of symbols obtained for subjects in the Grade 12 examination. National Senior Certificate All undergraduate candidates who enroll at the University of Pretoria for the first time, must show their original National Senior Certificate at the Student Administration of their faculty before the end of the first semester. Language of tuition In conducting its general business, the University uses two official languages, namely Afrikaans and English. In formal education, the language of tuition is either Afrikaans or English or both languages, taking the demand as well as academic justification and economic viability into consideration. However, it remains the student’s responsibility to determine in which language a module and any further level of that module is presented. This information is published annually in the Timetable. The University reserves the right to change the language of tuition on short notice, depending on the size of the groups and the availability of lecturers. In respect of administrative and other services, a student may choose whether the University should communicate with him or her in Afrikaans or English. Bursaries and loans Particulars about bursaries and loans are available on request. Accommodation Applications for accommodation in university residences for a particular year may be submitted as from 1 March of the preceding year. Applications will be considered while vacancies exist, and prospective students are advised to apply well in advance. Please note that admission to the University does not automatically mean that lodging will also be available. 7
- 14. Engineering 2014 Welcoming day, registration and start of the academic year Details of the welcoming day to which all parents are cordially invited, and the subsequent programme for registration and start of the academic year during which all new first-year students must be present, are obtainable from the office of the Director: Student Affairs. Prescribed books Lists of prescribed books are not available. The lecturers will supply information regarding prescribed books to students at the commencement of lectures. Amendment of regulations and fees The University retains the right to amend the regulations and to change tuition fees without prior notification. NB The fees advertised and thus levied in respect of a module or study programme presentation represents a combination of the costs associated with the formal services rendered (for example lectures, practicals, access to laboratories, consumables used in laboratories, etc.) as well as associated overheads such as the provision of library and recreation facilities, security and cleaning services, electricity and water supply, etc. Therefore the fees in respect of a module or study programme presentation cannot simply be reconciled with the visible services that are rendered in respect of such module or study programme. Leave of absence If it is impossible for a registered student at the University of Pretoria to continue with his/her studies/research in a specific year, but he/she intends to continue in the following year, the student must apply in writing to the Dean of the relevant faculty for leave of absence. The application must include: full names, student number, address, reasons and period for leave of absence, for example the whole year, first semester (January to June) or second semester (July to December), name of supervisor (where applicable), and the student’s intentions for the period after his/her leave of absence. However, in accordance with the policy of the University of Pretoria, leave of absence is not granted for more than two years. Any outstanding fees should be paid in full upon the student’s return from his/her leave of absence. SYSTEM OF TUITION In 2001, the School of Engineering commenced with phasing in a new system of tuition, which corresponds with the required guidelines of SAQA (the South African Qualifications Authority) and the NQF (National Qualifications Framework), as well as with the accreditation requirements of ECSA (Engineering Council of South Africa). In this system, programmes are offered which are outcomes-based, student-centred and market- orientated. More information on this matter is given in the Glossary of Terms below, as well as in Regulation Eng.11. 8
- 15. Engineering 2014 GLOSSARY OF TERMS academic year: The duration of the academic year which is determined by the University Council. admission regulation: A regulation compiled by the dean concerning the admission of students to a specific School, which includes a provision regarding the selection process. credit (or credit value): A value unit linked to learning activities, calculated in accordance with the SAQA norm of 1 credit = 10 notional hours (learning hours). Credits are linked to modules and qualifications. In the School of Engineering modules normally carry credit values of 8 or 16 each, and typically a total of 640 credits is required for the Bachelor of Engineering degree. curriculum: A series of modules which form a programme, grouped together over a specified period of time and in a certain sequence according to the regulations. ECSA: Engineering Council of South Africa. This is a statutory council which is inter alia responsible for the registration of professional engineers and for the accreditation of the academic programmes for engineers at South African universities. examination mark: The mark a student obtains for an examination in a module, including practical examinations where applicable. extended programme: A programme for a degree or diploma that is completed over a longer period than the minimum duration of the particular degree or diploma. final mark: The mark calculated on the basis of the semester/year mark and the examination mark a student obtains in a particular module according to a formula which is determined from time to time in the regulations for each module with the proviso that should no semester/year mark be required in a module, the examination mark serves as the final mark. GS: A combined (final) mark (semester/year mark and examination mark) of 40% - 49%. grade point average based on module credits (GPA): an average mark that is calculated by multiplying the final mark achieved in a module with the credit value of that module and then dividing the sum of these values by the total of the credit values of all the modules for which a student was enrolled. The result of these calculations is a weighted average based on module credits. learning outcome: The end product of a specified learning process, i.e. the learning result (specific skills) that one intends to achieve at the end of the learning process. level of a module: The academic level (year) of a module which is indicated in the module code, which gives an indication of the complexity of the module. module: An independent, defined learning unit, designed to result in a specific set of learning outcomes, and which is a component of a programme. module code: Consists of an equal number of letters and digits, which indicate the name of the module, the year of study, the period of study and the level of the module. notional hours (learning hours): The estimated number of hours students should spend to master the learning content of a particular module or programme. The total number of learning hours for a module consists of the time needed for lectures, tutorials and practicals (contact hours), as well as for self-study, examination preparation and any other activity required by the study programme. (notional hours = credits x10) NQF: National Qualifications Framework. This is a national framework in which all SAQA- registered qualifications are listed, arranged on eight levels in accordance with the complexity of the qualification. programme: This is a comprehensively planned, structured and coherent set of teaching and learning units (modules), designed to satisfy a specific set of outcomes at exit-level, which culminates in a student being awarded a particular qualification (diploma, degree). 9
- 16. Engineering 2014 promotion: Promotion means that for certain modules a student may be exempted from the final examination, provided that a student's semester or year mark for the module exceeds a certain predetermined minimum percentage (e.g. 75%). qualification: In outcomes-based education, a qualification is a diploma or a degree which is obtained after attaining the learning outcomes as specified in a coherent learning programme, expressed as an accumulation of credits at specific levels. SAQA: South African Qualifications Authority. This body has been established by law and has as its purpose the registration of qualifications, programmes and unit standards, in order to ensure that specific national and international criteria are achieved. semester/year mark: The mark a student obtains during the course of a semester or a year for tests, class-work, practical work or any other work in a particular module as approved by regulation. student-centred learning: Teaching and learning methodology which facilitates the student’s own responsibility for the learning process. A prerequisite is that lectures, tutorials and practicals be adapted so that active participation by students is always achieved. syllabus: Summary of the contents of a module. 10
- 17. Engineering 2014 DEGREES CONFERRED IN THE SCHOOL OF ENGINEERING AND GRADUATE SCHOOL OF TECHNOLOGY MANAGEMENT The following degree is awarded in the School of Engineering (minimum duration in brackets): (a) Bachelor's degree: (i) Bachelor of Engineering – [BEng] (four years) The following degrees are awarded in the School of Engineering and the Graduate School of Technology Management (minimum duration in brackets): (a) Honours degrees: (one year) (i) Bachelor of Engineering Honours – [BEngHons] (ii) Bachelor of Science Honours – [BScHons] (b) Master's degrees: (one year) (i) Master of Engineering – [MEng] (ii) Master of Science – [MSc] (c) Doctorates: (one year) (i) Doctor of Philosophy– [PhD] (ii) Doctor of Philosophy in Engineering – [PhD (Engineering)] (iii) Doctor of Engineering – [DEng] Regulations for the degree: Bachelor of Engineering [BEng] Eng. 1 Admission to degree study General Regulations G.1 to G.15 are applicable to all bachelor's degrees. Where the General Regulations have vested authority in the Faculty to determine its own provisions, these provisions appear in this publication. General To register for a first bachelor's degree at the University, a candidate must, in addition to the required National Senior Certificate with admission for degree purposes, comply with the specific admission requirements for particular programmes and fields of study as prescribed in the admission regulations and the regulations of the departments. Applicants are notified in writing of provisional admission. Admission to the School of Engineering is based on the final grade 12 examination results. (a) The following persons may also be considered for admission: (i) A candidate who is in possession of a certificate which is deemed by the University to be equivalent to the required National Senior Certificate with admission for degree purposes. (ii) A candidate who is a graduate from another tertiary institution or has been granted the status of a graduate of such an institution. (iii) A candidate who passes an entrance examination, which is prescribed by the University from time to time. Abovementioned candidates are requested to contact the faculty for more information regarding admission requirements. Note: A conditional exemption certificate does not grant admission to bachelor's study. However, in certain circumstances some of the faculties do accept a 11
- 18. Engineering 2014 conditional exemption on the basis of mature age and prior knowledge. Candidates are advised to contact the specific faculty administration in this regard. (b) The Senate may limit the number of students allowed to register for a programme, in which case the Dean concerned may, at his discretion, select from the students who qualify for admission those who may be admitted. (c) Subject to faculty regulations and the stipulations of General Regulations G.1.3 and G.62, a candidate will only be admitted to postgraduate studies, if he or she is already in possession of a recognised bachelor's degree. Academic literacy It is expected of all new undergraduate students who wish to study at the University to sit for an academic literacy test. Certain modules which address shortcomings in this respect, are included in the undergraduate curriculum, as indicated in Eng. 13.1 and 13.2. In addition, modules which have the purpose of developing specific language and communication skills in the context of the requirements of the engineering profession are also included in the curriculum. Admission requirements for candidates with a National Senior Certificate (NSC) To be able to gain access to the faculty and specific programmes prospective students require the appropriate combinations of recognised NSC subjects as well as certain levels of achievement in the said subjects. In this regard the determination of an admission point score (APS) is explained and a summary of the faculty specific requirements, i.e. the APS per programme and the specific subjects required per programme is provided. Determination of an Admission Point Score (APS) The calculation is simple and based on a candidate’s achievement in six 20-credit recognised subjects by using the NSC ratings, that is the “1 to 7 scale of achievement”. Thus, the highest APS that can be achieved is 42. Life Orientation is excluded from the calculation determining the APS required for admission. Rating code Rating Marks % 7 Outstanding achievement 80-100% 6 Meritorious achievement 70-79% 5 Substantial achievement 60-69% 4 Adequate achievement 50-59% 3 Moderate achievement 40-49% 2 Elementary achievement 30-39% 1 Not achieved 0-29% Preliminary admission is based on the results obtained in the final Grade 11 examination. Final admission is based on Grade 12 results. Please note: The final Grade 12 results will be the determining factor with regard to admission. Alternative admission channels: Candidates with an APS lower than required could be considered for admission to the faculty if they meet the additional assessment criteria specified by the faculty from time to time. Preference will, however, be given to students who comply with the regular admission requirements of the faculty. 12
- 19. Engineering 2014 Specific requirements for the Faculty of Engineering, Built Environment and Information Technology 1. A valid National Senior Certificate with admission for degree purposes. 2. Minimum subject and level requirements School of Engineering – minimum requirements Degree APS Group A Group B Two Languages Mathematics Physical Science Two other subjects Engineering (4-year programme) 36 Comply with NSC minimum require- ments; ADDITIONALLY one of these languages must be Afrikaans OR English at level 5 (60-69%). 7 (80-100%) OR 6 (70-79%) provided a mark of 7 (80-100%) is obtained in Physical Science 6 (70-79%) Any two subjects Engineering (4-year or ENGAGE programme) depending on results of the compulsory institutional proficiency test 30 Comply with NSC minimum require- ments; ADDITIONALLY one of these languages must be Afrikaans OR English at level 5 (60-69%). 6 (70-79%) 5 (60-69%) Any two subjects Engineering (ENGAGE programme) depending on results of the compulsory institutional proficiency test 25 Comply with NSC minimum requirements; ADDITIONALLY one of these languages must be Afrikaans OR English at level 4 (50-59%). 5 (60-69%) 4 (50-59%) Any two subjects NB Mining Engineering students are advised to also check if they are medically compliant with the government requirements to work on a mine. Consult: http://mohealth.co.za And www.dme.gov.za/pdfs/mhs/occupational_health/fitness_minimum_standards.pdf Note: • The applications of candidates whose Grade 11 marks do not meet the admission requirements, but who comply with the above requirements in the Grade 12 examinations, will be reconsidered on request, based on their results in the institutional proficiency test and only if there are places available in the Faculty, and on condition that the candidates applied for admission to engineering studies prior to 30 September of the previous year. 13
- 20. Engineering 2014 • Candidates, who are admitted provisionally on the basis of their Grade 11 results, retain their admission after sitting for the Grade 12 examinations, only if they obtain an NSC with admission for degree purposes and comply with all of the above requirements. Eng. 2 (a) Registration for a specific year A student registers for all the modules he or she intends taking in that specific year (first and second-semester modules and year modules) at the beginning of an academic year. Changes to a curriculum at the beginning of the second semester may be made only with the approval of the Dean. (b) Module credits for unregistered students There are students who attend lectures, write tests and examinations and in this manner earn “marks”, but have neither registered for modules nor registered as students. These marks will not be communicated to any student before he/she has provided proof of registration. A student cannot obtain any credits in a specific academic year for a module “passed” in this manner during a previous academic year and for which he/she was not registered. This arrangement applies even where the student is prepared to pay the tuition fees. Eng. 3 Examinations (a) Examinations and projects (i) An examination in a module may be written and/or oral. Projects are prepared and examined as stipulated in the study guide of the module, in accordance with the regulations and procedures as described in (c) below. (ii) The examinations for modules of the first semester are held in May/June, while all other examinations (second-semester modules and year modules) are held in October/November. (b) Examination admission A student must obtain a minimum semester/year mark of at least 40% to gain examination admission to a module, with the exception of first-year modules at first- semester level where at least 30% is required. In addition, all other examination requirements as applicable to the specific module, must be satisfied. (c) Pass requirements Refer also to General Regulations G.11.1(a) and G.12.2.2 (i) In order to pass a module a student must obtain an examination mark of at least 40% and a final mark of at least 50%. A student passes a module with distinction if a final mark of at least 75% is obtained. The final mark is com- piled from the semester/year mark and the examination mark. Borderline cases (e.g. a mark of 49% or 74%) must be reconsidered by both the internal and external examiners, for determination of the possible merit of an upward adjustment of the mark. Marks may not be adjusted downwards, except when obvious marking and adding errors were detected. The pass mark is a minimum final mark of 50% and a student fails the module if a lower mark (e.g. 49%) was obtained. (ii) Calculation of the final mark: The semester/year mark must account for no less than 40% and no more than 60% of the final mark, with the exception of modules like design and research projects and essays, as well as in modules 14
- 21. Engineering 2014 where the development of general skills is the primary learning activity, where appropriate alternative norms are determined by individual schools or departments. The specific details and/or formula for the calculation of the final mark are given in the study guide of each module. Also, a schedule listing this information for all the modules presented in each school will be compiled, for approval by the Dean. (iii) Calculation of the semester/year mark. The semester/year mark is com-piled from formative assessment of learning activities such as assignments, presentations, practicals and group projects, as well as from class tests and semester tests. For each module the specific formula for the calculation of the semester/year mark is determined by the lecturer(s) responsible for the presentation of the module and the details are given in the study guide of the module. Also, a schedule listing this information for all the modules presented in each school will be compiled, for approval by the Dean. Refer also to General Regulation G.11.1(b). (iv) In some modules specific requirements in respect of certain components of the semester/year mark may be set, in order for a student to pass the module (for example that satisfactory performance in and attendance of practical classes are required). Thus, even if a pass mark is obtained in the module, a pass is not granted unless these requirements are met. For such modules these specific requirements are given in the study guide of the module. Also, a schedule listing this information for all such modules presented in each school will be compiled, for approval by the Dean. (v) A student must comply with the subminimum requirements in subdivisions of certain modules. For such modules these specific requirements are given in the study guide of the module. Also, a schedule listing this information for all such modules presented in each school will be compiled, for approval by the Dean. (vi) General Regulation G.10.3 is normally not applied by the School of Engineering and no promotion (exemption from the examination) is allowed in any module, except in special cases where permission of the Dean is required. (d) Ancillary examinations Refer to General Regulation G.12.3 (e) Supplementary examinations Refer to General Regulation G.12.3 In the School of Engineering a supplementary examination is only granted in instances where: (i) A final mark of between 45% and 49% was achieved; (ii) A final mark of between 40% and 44% was achieved and where the candidate also achieved either a semester mark or an examination mark of 50% or higher; (iii) A pass mark has been obtained, but the required subminimum in the examination section of the module or divisions thereof has not been obtained. (iv) A final mark of between 40% and 49% has been obtained in first-year modules in the first semester. Calculation of the final supplementary examination mark: (1) The semester mark is retained and the final mark is calculated as the weighted average of the supplementary examination mark and the semester mark, in accordance with the formula as published in the study manual of the 15
- 22. Engineering 2014 specific module, with the proviso that the maximum final mark awarded may be no more than 50%. The only exception to this rule is in the case of first- year modules at first-semester level, where the semester mark is not considered, and where the supplementary examination mark is taken as the final mark, with the proviso that the maximum final mark awarded may be no more than 50%. (2) All other pass requirements, as published in the study manual of each specific module, remain so and are applicable during the determination of the final result of a supplementary examination in the module. Special supplementary examinations will not be arranged for students who were not able to write the supplementary examinations during scheduled times, as given in the examinations timetable. (f) Special examinations (including the aegrotat) Refer also to General Regulation G.12.5 (i) A medical certificate stating that a student appeared ill or declared him- /herself unfit to write the examination will not be accepted. (ii) The doctor must be consulted on or before the date on which the examination was scheduled. (g) Other special examinations Refer also to General Regulation G.12.6 (i) The Dean may, at the recommendation of the head of the department concerned, grant a special examination in a module to a student who wrote the examination and failed that module in the final year of study, and consequently does not comply with degree requirements. A student may be granted at most two such special examinations. No special examinations will be allowed for modules with a project or design component in any discipline of engineering. No other special examinations are granted in the School of Engineering. (ii) A student should apply in writing to the Dean to be considered for such special examination(s). The head of department decides when a special examination will take place and may prescribe work to be completed satisfactorily before a student may sit for such an examination. (iii) During calculation of the final mark the semester mark is retained and the final mark is calculated as the weighted average of the special examination mark and the semester mark, in accordance with the formula as published in the study manual of the specific module, with the proviso that the maximum final mark awarded may be no more than 50%. (h) Re-marking of examination scripts Refer to General Regulation G.14 (i) Duration of examinations in undergraduate modules The duration of an examination in an 8-credit module will not exceed 90 minutes and in a 16-credit module will not exceed 180 minutes, except where special approval is granted by the Dean to exceed these limits. The duration of a supplementary examination or a special examination in all under- graduate modules will not exceed 90 minutes, except where special approval is granted by the Dean to exceed this limit. In the event of an aegrotat, the duration of the examination can be extended to a maximum period of 180 minutes, depending on an arrangement made between the lecturer and the student. 16
- 23. Engineering 2014 Eng. 4 Renewal of registration Should a student who is repeating a year of study, with the exception of first-year students, fail to obtain sufficient credits to be promoted to the subsequent year of study at the end of the year of repetition, he or she will forfeit his or her right to readmission. Students who forfeit the right to readmission, may apply in writing to the Admissions Committee for readmission to the Faculty. Provisions regarding promotion, including provisions for first-year students, appear in the regulations of the relevant fields of study. Eng. 5 Modules from other faculties A student who follows a module presented by another school or faculty must familiarise himself or herself with the admission requirements of the specific module, the sub minima in examination papers, time of supplementary examinations, etc. Eng. 6 Change of field of study Transfer from one field of study to another may only take place with the Dean’s approval, after consultation with the relevant head of department. Eng. 7 Minimum study period The minimum period of study for the degree is four years of full-time study. Eng. 8 Exposure to the practice of engineering Engineering students are exposed in three ways to the practice of engineering during the course of their studies: (a) Workshop practice – a module comprising a period at the end of the first year of study during which students are trained in workshop practice. Students in electrical, electronic and computer engineering attend the Introduction to Laboratory Measurements and Computer Simulations’ module. (b) Practical training – specific periods of work at firms during which experience is gained in the practice of engineering. Students may deviate from this stipulation only with the permission of the Dean. (c) Excursions – study excursions arranged for students to visit various engineering firms and installations in order to obtain insight into the industry. This training is compulsory. Details of the modules regarding these aspects of training are explained in the sections of this publication which deal with the curricula and syllabi of the various programmes. Eng. 9 Registration of modules (a) Final cut-off dates are set for the change of modules (removing or adding) for each academic year. These dates are available from the Student Administration offices. (b) A student may not register for a module of a subsequent year if a timetable clash occurs with a module of a previous year which has not yet been passed and which is prescribed for his or her field of study, unless exemption is obtained from class attendance in the module of the previous year. 17
- 24. Engineering 2014 (c) Should a student register for modules of the second semester at the beginning of a year of study, and it becomes evident at the end of the first semester, that he or she does not comply with the prerequisites of the second-semester modules, the registration of such modules will be cancelled. It is also the student's responsibility to ensure at the beginning of the second semester that the cancellation has been brought about. Eng. 10 10.1 Pass with distinction (a) A student graduates with distinction if: (i) no module of the third or fourth year of study of the four year programme or of the fourth or fifth year of the ENGAGE programme was repeated and a weighted average of at least 75% was obtained in one year in all the modules of the final year of study; and (ii) the degree programme was completed within the prescribed four years for the four year programme and within the prescribed five years of the ENGAGE programme. (b) Exceptional cases to the above will be considered by the Dean. 10.2 Dean’s Merit List The Dean's Merit List will be published annually on the website of the Faculty and will contain the names of the students whose academic performance over the year has been excellent and deserves recognition. Letters of commendation will be sent to students who qualify for inclusion on the Dean's Merit List. To be eligible for inclusion in the Dean's Merit List, a student must pass all the modules as prescribed in the curriculum of a specific year of study as published in the Regulations, Part I, University of Pretoria, 2014. A student registered for the first, second or third year of the four-year programme must obtain a minimum weighted average of 75% and a student registered on the first, second, third or fourth year of the five year programme must obtain a minimum weighted average of 75%. Curricula for the BEng programmes Eng. 11 Fields of study, learning outcomes and learning contents The Bachelor of Engineering degree may be obtained in the following fields of study: (a) Chemical Engineering (12130021) (b) Civil Engineering (12130081) (c) Computer Engineering (12130101) (d) Electrical Engineering (12130031) (e) Electronic Engineering (12130091) (f) Industrial Engineering (12130011) (g) Mechanical Engineering (12130051) (h) Metallurgical Engineering (12130061) (i) Mining Engineering (12130071) All aforementioned fields of study of the BEng degree have been accredited by the Engineering Council of South Africa (ECSA), and comply with the academic requirements for registration as a professional engineer. All the undergraduate programmes were recently restructured and the new programme for the first year of study 18
- 25. Engineering 2014 was phased in in 2008, the second year was phased in in 2009 and the third year has been phased in since 2010. The new fourth year has been phased in from 2011. The new programmes are designed in accordance with the outcomes-based model as required by the South African Qualifications Authority (SAQA). The learning outcomes and contents of the programmes have been compiled in accordance with the latest accreditation standards (PE-60 and PE-61) of ECSA, which also comply with the SAQA requirements, and which are summarised as follows: Learning outcomes of the BEng degree: A graduate in engineering should be able to apply the following skills on an advanced level: (a) Engineering problem solving. (b) Application of specialist and fundamental knowledge, with specific reference to mathematics, basic sciences and engineering sciences. (c) Engineering design and synthesis. (d) Investigation, experimentation and data analysis. (e) Engineering methods, skills, tools and information technology. (f) Professional and general communication. (g) Awareness and knowledge of the impact of engineering activity on society and the physical environment. (h) Work in teams and in multidisciplinary environments. (i) An awareness and ability for lifelong learning. (j) An awareness and knowledge of principles of professional ethics and practice. Learning contents of the BEng programmes: Six essential knowledge areas are included in the syllabi of the programmes. The typical representation of each knowledge area as a percentage of the total contents of an undergraduate programme is given in brackets ( ) in the list below. This percentage varies for the different study directions, but conforms in all instances to the minimum knowledge area content as stipulated by ECSA. Knowledge areas: (a) Mathematics, including numerical methods and statistics (13%) (b) Basic sciences: the natural sciences essential to the programme (15%) (c) Engineering sciences (40%) (d) Engineering design and synthesis (16%) (e) Computing and information technology (5%) (f) Complementary studies: communication, economy, management, innovation, environmental impact, ethics, engineering practice (11%). Eng. 12 Module information With a few exceptions, most modules offered at the School of Engineering are semester modules having credit values of either 8 or 16. A student may be permitted by the Dean, on recommendation of the relevant head of the department, to register for an equivalent module in an alternate semester, although the module is normally offered to the student’s group in another semester, and providing that no timetable clashes occur. The curriculum of each programme is given in Regulations Eng. 13.1 and 13.2 in this publication, in which the information of each module is given, as per the following example: 19
- 26. Engineering 2014 Module Credits Prerequisites XYZ 163 Mathematics 163 16 XYZ 151 (a) XYZ 163: Module code XYZ A letter code of which the first letter identifies the department/division which offers the relevant module(s), as indicated in the table below: Letter Department School of Engineering: B Industrial and Systems Engineering C Chemical Engineering E Electrical, Electronic and Computer Engineering M Mechanical and Aeronautical Engineering N Materials Science and Metallurgical Engineering P Mining Engineering S Civil Engineering Graduate School of Technology Management: I Engineering and Technology Management 163: Numerical code of which the first digit indicates the level of the module (year of study during which the module is normally presented). (b) Mathematics 163: Name of the module, as well as three digits which are similar to the numeric part of the module code. (c) 16: Number of credits allocated to the module. This is the value or the "weight" of the module, as estimated in accordance with the SAQA norm of 1 credit = 10 notional hours. For example, for a module with a credit value of 16 the average student should devote approximately 160 hours (10 hours per week) in order to be able to achieve the set learning outcomes of the module (contact time, own study time and examination preparation time are all included). Lecturers are obliged to ensure that this is a fair time estimate when setting the workload of the module. (d) XYZ 151: Prerequisite. Before a student is admitted to a module (XYZ 163), he or she must pass the prerequisite module(s) (XYZ 151), unless one of the following indications is used: Minimum requirement () Code in brackets: (XYZ 151) Examination admission GS Code followed by GS: XYZ 151 GS Combined (final) mark of 40% - 49% # Code followed by #: XYZ 151# Concurrent registration Deviations from these requirements may be permitted only with the approval of the Dean, after consultation with the relevant head(s) of department(s). Eng. 13 Curricula Eng. 13.1 Four-year Programmes Please note: The requirements for promotion from the one year of study to the next are given in Eng. 14, Eng. 15 and Eng. 16. Module Credits Prerequisites SWK 122 Mechanics 122 16 WTW 158 20
- 27. Engineering 2014 Please note Students who did not pass SWK 122 Mechanics 122 in their first year of study can take the module in the first semester of the following year. Faculty requirement Module Credits Prerequisites JCP 203 Community-based project 203 8 Notes Students who register for the first year from 2005 will be required to successfully complete the above module as part of the requirements for the BEng degree. A student may register for the module during any of the years of study of the programme, but preferably not during the first or the final year of study. (a) Chemical Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 CIR 113 Chemical engineering 113 8 FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 WTW 158 Calculus 158 16 Total 80 Second semester CHM 181 General chemistry 181 16 CHM 171 CIR 123 Chemical engineering 123 8 CHM 171GS, CIR 113 EBN 122 Electricity and electronics 122 16 HAS 120 Humanities and social sciences 120 8 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 80 Recess training WWP 121 Workshop practice 121 6 Second year of study First semester Module Credits Prerequisites CHM 215 Chemistry 215 16 CHM 171/172, 181 CIR 211 Chemical engineering 211 8 CIR 123 CJJ 210 Professional and technical communication 210 8 CIR 123 JCP 203 Community-based project 203 8 MPR 213 Programming and information technology 213 18 21
- 28. Engineering 2014 SWK 210 Strength of materials 210 16 SWK122, WTW168/WTW 128 WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 90 Second semester BES 220 Engineering statistics 220 8 CHM 226 Chemistry 226 8 CHM 171/172, 181 CTD 223 Thermodynamics 223 16 CIR 211, MPR 212/213 (WTW 258) EIR 221 Electrical engineering 221 16 EBN 111/122, WTW 161 WTW 238 Mathematics 238 16 WTW 258 GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 72 Third year of study First semester Module Credits Prerequisites BSS 310 Engineering management 310 8 CIR 310 Chemical engineering 310 16 (CTD 223), SWK 210, CHM 215 CMO 310 Mass transfer 310 16 (CTD 223), COP 311# COP 311 Transfer processes 311 16 WTW 238, (WTW 263) CPA 310 Particle technology 310 16 (CIR 211), COP 311# Total 72 Note: • Students who have not passed CIR 412 before 2012, have to register for CPA 310. Second semester CIO 320 Chemical engineering design 320 16 (CTD 223), (COP 311) CKN 321 Kinetics 321 16 (CTD 223) CLB 321 Laboratory 321 16 CJJ 210, CHM 226, CPN 321#, CKN 321# (CMO 320/310), CIO 310/320# CPN 321 Process dynamics 321 16 CIO 310/320#, CKN 321# MIA 320 Impact of engineering activity and group work 320 8 Total 72 Recess training CPY 311 Practical training 311 16 (CJJ 210), (CIR 211) 22
- 29. Engineering 2014 Fourth year of study First semester Module Credits Prerequisites CBI 410 Biotechnology 410 16 (CKN 321), (CMO 320/310), (CPA 310) CPB 410 Process control 410 16 (CPN 321 GS) CPS 410 Process synthesis 410 8 CLB 321, CIR 310GS CRO 410 Reactor design 410 16 (CKN 321 GS) CSC 411 Research project 411 16 CLB 321, CPB 410#, CRO 410# Total 72 Note: • Students who have passed CBI 311, receive credit for CBI 410. Second semester CPJ 421 Design project 421 24 (CPB 410), (CRO 410), BIE 310/BSS 310, CPS 420#, CPR 420# CPR 420 Chemical engineering practice 420 8 CLB 321 CPS 420 Process analysis 420 8 CPS 410 CSC 421 Research project 421 16 CSC 411 CSS 420 Specialisation 420 16 CPJ 421# Total 72 Recess training CPY 411 Practical training 411 16 (CMO 320/310), CPY 311 (b) Civil Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 NMC 113 Materials science 113 16 WTW 158 Calculus 158 16 Total 72 Second semester EBN 122 Electricity and electronics 122 16 FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 72 Recess training SWP 121 Workshop practice 121 6 23
- 30. Engineering 2014 Second year of study First semester Module Credits Prerequisites JCP 203 Community-based project 203 8 SGM 210 Geomaterials and processes 210 16 SJJ 210 Professional and technical communication 210 8 SWK 210 Strength of materials 210 16 SWK122, WTW168 SWK 211 Statics 211 16 SWK 122 WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 80 Second semester BES 220 Engineering statistics 220 8 SBZ 221 Civil engineering measurement techniques 221 8 SGM 221 Pavement materials and design 221 16 SGM 210 GS SIN 223 Structural analysis 223 16 WTW 161,168, SWK 210 WTW 238 Mathematics 238 16 WTW 258 GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 72 Third year of study First semester Module Credits Prerequisites MPR 213 Programming and information technology 213 18 SGM 311 Soil mechanics 311 16 (SWK 210) SHC 310 Hydraulics 310 16 (SWK 210) SIB 310 Timber design 310 8 SIN 223 GS SIE 310 Civil engineering economics 310 8 SIN 311 Structural analysis 311 8 SIN 223 Total 74 Second semester SBM 321 Civil building materials 321 16 SGM 323 Geotechnical engineering 323 16 (SGM 311) SHC 321 Hydraulics 321 16 (SHC 310) SIN 323 Steel design 323 8 SIN 311 GS SIN 324 Reinforced concrete design 324 8 SIN 311 GS SVC 323 Transportation engineering 323 16 BES 220 Total 80 24
- 31. Engineering 2014 Fourth year of study First semester Module Credits Prerequisites IPI 410 Engineering professionalism 410 8 SHC 410 Hydraulics 410 16 (SHC 310) SHC 321GS SIN 411 Steel design 411 8 (SIN 323) SIN 413 Reinforced concrete design 413 8 (SIN 324) SSC 412 Research project 412 24 (SHC 321), (SIN 323), (SIN 324), (SGM 323), (SVC 323), (SBM 321) SVC 412 Infrastructure planning 412 16 (SVC 323) (SIE 310) Total 80 Second semester SBZ 420 Civil engineering construction management 420 16 (SVC 412) SCA 420 Computer applications in civil engineering 420 16 (SHC 410), (SIN 411), (SIN 413), (SGM 323), (SVC 412) SDO 420 Detailed design 420 24 (SHC 410), (SIN 411), (SIN 413), (SGM 323), (SVC 412) SEV 421 Environmental geotechnology 421 16 Total 72 Recess training SPY 410 Practical training 410 16 (c) Computer Engineering First year of study First semester Module Credits Prerequisites COS 131 Introduction to programming 131 16 EBN 111 Electricity and electronics 111 16 FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 WTW 158 Calculus 158 16 Total 72 Second semester COS 110 Program design: Introduction 110 16 COS 130/COS 131/COS 132 COS 222 Operating systems 222 16 COS 153 or COS 131 or COS 132 HAS 120 Humanities and social sciences 120 8 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 72 25
- 32. Engineering 2014 Recess training EIW 121 Information technology practice 121 8 EMR 101 Introduction to laboratory measurements and computer simulations 101 4 Second year of study First semester Module Credits Prerequisites COS 212 Data structures and algorithms 212 16 COS 110 EIR 211 Electrical engineering 211 16 EBN 111/122, WTW 161 EJJ 210 Professional and technical communication 210 8 JCP 203 Community-based project 203 8 NMC 113 Materials science 113 16 WTW 258 Calculus 258 8 WTW 158,168 WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 Total 80 Second semester BES 220 Engineering statistics 220 8 ELI 220 Linear systems 220 16 EIR 211 GS/EIR 221 GS ERS 220 Digital systems 220 16 WTW 238 Mathematics 238 16 WTW 258GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 64 Recess training EIW 221 Information technology practice 221 8 Third year of study First semester Module Credits Prerequisites BSS 310 Engineering management 310 8 EAI 320 Intelligent systems 320 16 WTW 258 EME 310 Electromagnetic compatibility 310 16 EMK 310 Microprocessors 310 16 ERS 220GS, EIR 211/221GS ENE 310 Analogue electronics 310 16 ELI 220 GS Total 72 Second semester EBB 320 Control systems 320 16 ELI 220 GS EDC 310 Digital communication 310 16 ELI 220 GS EPE 321 Software engineering 321 16 COS 212 ERD 320 Computer engineering design 320 16 EMK 310 GS MIA 320 Impact of engineering activity and group work 320 8 Total 72 26
- 33. Engineering 2014 Recess training EIW 320 Information technology practice 320 8 EIW 221 Fourth year of study First semester Module Credits Prerequisites EAS 410 Computer engineering: architecture and systems 410 16 EMK 310 GS EHN 410 E-business and network security 410 16 EPR 402 Project 402 16 ERD 320 Finalists only ESP 411 DSP: programming and application 411 16 ESC 320 GS or EDC 310 GS IPI 410 Engineering professionalism 410 8 Total 72 Second semester EPR 402 Project 402 48 ERD 320 Finalists only ERP 420 Specialisation 420 16 Total 64 Recess training EPY 423 Practical training and report 423 16 (d) Electrical Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 NMC 113 Materials science 113 16 WTW 158 Calculus 158 16 Total 72 Second semester EBN 122 Electricity and electronics 122 16 FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 SWK 122 Mechanics 122 16 WTW 158 WTW 168 Calculus 168 8 WTW 158 GS WTW 161 Linear algebra 161 8 Total 72 Recess training EMR 101 Introduction to laboratory measurements and computer simulations 101 4 27
- 34. Engineering 2014 Second year of study First semester Module Credits Prerequisites COS 131 Introduction to programming 131 16 EIR 211 Electrical engineering 211 16 EBN 111/122, WTW 161 EJJ 210 Professional and technical communication 210 8 JCP 203 Community-based project 203 8 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 80 Second semester BES 220 Engineering statistics 220 8 ELI 220 Linear systems 220 16 EIR 211 GS/EIR 221 GS ERS 220 Digital systems 220 16 WTW 238 Mathematics 238 16 WTW 258 GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 64 Recess training EPW 200 Practical wiring 200 4 Third year of study First semester Module Credits Prerequisites BSS 310 Engineering management 310 8 ELX 311 Electrical machines 311 16 EIR 211 EMK 310 Microprocessors 310 16 ERS 220 GS, EIR 211/221GS EMZ 310 Electromagnetism 310 16 WTW 238 GS, WTW 263 GS, EIR 211 GS/EIR 221 GS ENE 310 Analogue electronics 310 16 ELI 220 GS Total 72 Second semester EBB 320 Control systems 320 16 ELI 220 GS EDF 320 Power electronics 320 16 ELX 311, ELI 220 GS EKK 320 Power system components 320 16 EIR 211 EWE 320 Electrical engineering design 320 16 EIR 211/221 GS MIA 320 Impact of engineering activity and group work 320 8 Total 72 Recess training ESP 300 DSP programming 300 4 EPW 200 28
- 35. Engineering 2014 Fourth year of study First semester Module Credits Prerequisites EAD 410 Electrical drives 410 16 ELX 311 GS, EDF 320 GS EBT 410 Automation 410 16 EBB 320 GS EKK 410 Power system analysis 410 16 EKK 320 EPR 400 Project 400 16 EWE 320/ELO 320 Finalists only IPI 410 Engineering professionalism 410 8 Total 72 Second semester ENR 420 Energy 420 16 EPR 400 Project 400 48 EWE 320/ELO 320 Finalists only Total 64 Recess training EPY 423 Practical training and report 423 16 (e) Electronic Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 NMC 113 Materials science 113 16 WTW 158 Calculus 158 16 Total 72 Second semester EBN 122 Electricity and electronics 122 16 FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 72 Recess training EMR 101 Introduction to laboratory measurements and computer simulations 101 4 29
- 36. Engineering 2014 Second year of study First semester Module Credits Prerequisites COS 131 Introduction to programming 131 16 EIR 211 Electrical engineering 211 16 EBN 111/122, WTW 161 EJJ 210 Professional and technical communication 210 8 JCP 203 Community-based project 203 8 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 80 Second semester BES 220 Engineering statistics 220 8 ELI 220 Linear systems 220 16 EIR 211 GS/EIR 221 GS ERS 220 Digital systems 220 16 WTW 238 Mathematics 238 16 WTW 258 GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 64 Third year of study First semester Module Credits Prerequisites BSS 310 Engineering management 310 8 EMK 310 Microprocessors 310 16 ERS 220GS, EIR 211/221GS EMS 310 Modulation systems 310 16 ELI 220 EMZ 310 Electromagnetism 310 16 WTW 238 GS, WTW 263 GS, EIR 211 GS/EIR 221 GS ENE 310 Analogue electronics 310 16 ELI 220 GS Total 72 Second semester EBB 320 Control systems 320 16 ELI 220 GS ELO 320 Electronic engineering design 320 16 EMK 310 GS EMZ 320 Microwaves and antennas 320 16 EMZ 310 ESC 320 Stochastic communication systems 320 16 EMS 310, WTW 258, 256, 238 MIA 320 Impact of engineering activity and group work 320 8 Total 72 30
- 37. Engineering 2014 Fourth year of study First semester Module Credits Prerequisites EBT 410 Automation 410 16 EBB 320 GS ENE 410 Advanced electronics 410 16 ENE 310 GS EPR 400 Project 400 16 EWE 320/ELO 320 Finalists only ESP 411 DSP: programming and application 411 16 ESC 320 GS or EDC 310 GS IPI 410 Engineering professionalism 410 8 Total 72 Second semester EES 424 Specialisation 424 16 ERS 220 EPR 400 Project 400 48 EWE 320/ELO 320 Finalists only Total 64 Recess training EPY 423 Practical training and report 423 16 (f) Industrial Engineering First year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 WTW 158 Calculus 158 16 Total 72 Second semester CHM 172 General chemistry 172 16 HAS 120 Humanities and social sciences 120 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 72 Recess training WWP 121 Workshop practice 121 6 31
- 38. Engineering 2014 Second year of study First semester Module Credits Prerequisites BJJ 210 Professional and technical communication 210 8 JCP 203 Community-based project 203 8 MOW 217 Manufacturing and design 217 16 MGC 110, SWK 122 MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 82 Second semester BES 220 Engineering statistics 220 8 BPZ 220 Productivity 220 16 MTX 221 Thermodynamics 221 16 FSK 116/176 WTW 238 Mathematics 238 16 WTW 258 GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 64 Third year of study First semester Module Credits Prerequisites BAN 313 Industrial analysis 313 8 BER 310 Business law 310 16 BOB 310 Operational management 310 16 BOZ 312 Operations research 312 16 BSS 310 Engineering management 310 8 FBS 110 Financial management 110 10 MVS 311 Manufacturing systems 311 16 Total 90 Second semester BFB 320 Facilities planning 320 8 BID 320 Information systems design 320 16 BLK 320 Industrial logistics 320 16 (BOB 310) BUY 321 Simulation modelling 321 16 (BAN 313) MIA 320 Impact of engineering activity and group work 320 8 Total 64 Recess training BPY 310 Practical training 310 16 32
- 39. Engineering 2014 Fourth year of study First semester Module Credits Prerequisites BGC 410 Quality assurance 410 16 BON 410 Operations research 410 16 (BES 220), (BOZ 312) BPJ 410 Project 410 16 Finalists only BSR 410 Management accounting 410 16 (FBS 110) IPI 410 Engineering professionalism 410 8 Total 72 Second semester ABV 320 Labour relations 320 8 BIE 420 Engineering economics 8 BPJ 420 Project 420 24 BPJ 410 BPZ 421 Business engineering 421 16 Finalists only BSS 410 Systems engineering 410 16 Total 72 Recess training BPY 410 Practical training 410 16 (g) Mechanical Engineering First year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 WTW 158 Calculus 158 16 Total 72 Second semester CHM 172 General chemistry 172 16 HAS 120 Humanities and social sciences 120 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 72 Recess training WWP 121 Workshop practice 121 6 33
- 40. Engineering 2014 Second year of study First semester Module Credits Prerequisites JCP 203 Community-based project 203 8 MJJ 210 Professional and technical communication 210 8 MOW 217 Manufacturing and design 217 16 MGC 110, SWK 122 MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 FSK 116/176, SWK 122, WTW 256# WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 82 Second semester BES 220 Engineering statistics 220 8 MOW 227 Machine design 227 16 MOW 217 MTX 221 Thermodynamics 221 16 FSK 116/176 WTW 238 Mathematics 238 16 WTW 258 GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 64 Third year of study First semester Module Credits Prerequisites BSS 310 Engineering management 310 8 MOW 312 Machine design 312 16 MOW 227 MSY 310 Structural mechanics 310 16 MOW 217, WTW 256 MTV 310 Thermoflow 310 16 MTX 311 Thermodynamics 311 16 MTX 221 Total 72 Second semester EIR 221 Electrical engineering 221 16 EBN 111/122, WTW 161 MIA 320 Impact of engineering activity and group work 320 8 MKM 321 Continuum and computational structural mechanics 321 16 (MSY 310) MOW 323 Machine design 323 16 (MOW 312) MVR 320 Vibrations and noise 320 16 (MSD 210) Total 72 Recess training MPY 315 Practical training 315 16 34
- 41. Engineering 2014 Fourth year of study First semester Option – Mechanical and Aeronautical Module Credits Prerequisites IPI 410 Engineering professionalism 410 8 MKM 411 Computational fluid dynamics 411 16 MTV 310 MOX 410 Design project 410 16 MOW 312GS, MOW 323GS MSC 412 Research project 412 16 Finalists only MTV 410 Thermoflow 410 16 Total 72 Note: For the Aeronautical Option, the themes of both the Design and the Project must be aeronautical-related. Second semester Option – Mechanical MBB 410 Control systems 410 16 MVR 320 GS MSC 422 Research project 422 24 Finalists only, MSC 412 MTV 420 Thermal and fluid machines 420 16 MTV 310, (MTX 311) One elective from the following: MAN 420 Porous flow 420 16 MEG 421 Mechatronics 421 16 MHM 420 Heat and mass transfer 420 16 MII 420 Maintenance engineering 420 16 MKI 420 Nuclear engineering 420 16 MLV 420 Aeronautics 420 16 MTV 310 MOO 420 Optimum design 420 16 MUU 420 Fossil fuel power stations 420 16 MVE 420 Vehicle engineering 420 16 MWN 420 Numerical methods 420 16 Offering of electives depends on the availability of resources and industry support. Total 72 or Option – Aeronautical MBB 410 Control systems 410 16 MVR 320 GS MSC 422 Research project 422 24 Finalists only, MSC 412 MTV 420 Thermal and fluid machines 420 16 MTV 310, (MTX 311) Elective module: MLV 420 Aeronautics 420 16 MTV 310 Offering of electives depends on the availability of resources and industry support. Total 72 Recess Training MPY 415 Practical training 415 16 35
- 42. Engineering 2014 (h) Metallurgical Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 NMC 113 Materials science 113 16 WTW 158 Calculus 158 16 Total 72 Second semester EBN 122 Electricity and electronics 122 16 FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 72 Recess training WWP 121 Workshop practice 121 6 Second year of study First semester Module Credits Prerequisites GMI 210 Mineralogy 210 16 JCP 203 Community-based project 203 8 MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 FSK 116/176, SWK 122, WTW 256# NJJ 210 Professional and technical communication 210 8 WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 82 Second semester BES 220 Engineering statistics 220 8 EIR 221 Electrical engineering 221 16 EBN 111/122, WTW 161 NMC 223 Materials science 223 16 NMC 113/123 NPT 220 Process thermodynamics 220 16 (CHM 171/172) WTW 238 Mathematics 238 16 WTW 258GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 80 36
- 43. Engineering 2014 Third year of study First semester Module Credits Prerequisites BSS 310 Engineering management 310 8 MTV 310 Thermoflow 310 16 NEC 310 Electrochemistry 310 16 NMC 313 Materials science 313 16 (NMC 223) NMP 310 Minerals processing 310 16 Total 72 Second semester MIA 320 Impact of engineering activity and group work 320 8 NEX 320 Excursions 320 8 (NMP 310) NHM 322 Hydrometallurgy 322 16 (NPT 220), (NEC 310) NMM 320 Mechanical metallurgy 320 16 (NMC 223) NPM 321 Pyrometallurgy 321 16 (NPT 220) NVM 321 Refractory materials 321 8 (NPT 220), NPM 321# Total 72 Recess training NPY 316 Practical training 316 16 Fourth year of study First semester Module Credits Prerequisites IPI 410 Engineering professionalism 410 8 NHM 412 Hydrometallurgy 412 16 (NHM 322) NMP 411 Minerals processing 411 16 (NMP 310) NPB 412 Process metallurgy and control 412 8 (NPM 321) NPW 411 Metals processing 411 16 (NMC 313), (NMM 320) NSC 412 Literature survey 412 8 NEX 320 Total 72 Second semester NOP 421 Process design 421 32 (NMP 411) NSC 422 Project 422 32 NSC 412/411 Total 64 Recess training NPY 416 Practical training 416 16 (i) Mining Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 MGC 110 Graphical communication 110 16 NMC 113 Materials science 113 16 WTW 158 Calculus 158 16 Total 72 37
- 44. Engineering 2014 Second semester EBN 122 Electricity and electronics 122 16 FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 72 Recess training PWP 121 Workshop practice 121 8 Second year of study First semester Module Credits Prerequisites JCP 203 Community-based project 203 8 MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 FSK 116/176, SWK 122, WTW 256# PJJ 210 Professional and technical communication 210 8 SWK 210 Strength of materials 210 16 SWK122, WTW168 WTW 256 Differential equations 256 8 WTW 158, WTW 161,168 WTW 258 Calculus 258 8 WTW 158,168 Total 82 Second semester BES 220 Engineering statistics 220 8 MTX 221 Thermodynamics 221 16 FSK 116/176 SUR 220 Surveying 220 16 WTW 238 Mathematics 238 16 WTW 258 GS, 256 WTW 263 Numerical methods 263 8 WTW 161,168 Total 64 Recess training PPY 220 Experiential training 220 16 Third year of study First semester Module Credits Prerequisites BSS 310 Engineering management 310 8 GLY 155 Introduction to geology 155 16 MTV 310 Thermoflow 310 16 NMP 310 Minerals processing 310 16 PMY 311 Surface mining and geotechnics 311 16 Total 72 38
- 45. Engineering 2014 Second semester GLY 161 Historical geology 161 8 GLY 151 GS, 152 GS or GLY 155GS MIA 320 Impact of engineering activity and group work 320 8 PME 320 Mineral economics 320 16 PMY 320 Mining 320 16 PMY 311 PNB 300 Industrial excursions 300 8 PRX 321 Explosives engineering 321 8 MTX 221 PSC 321 Introduction to project 321 8 Total 72 Recess training PPY 320 Experiential training 320 16 Fourth year of study First semester Module Credits Prerequisites GLY 254 Structural geology 254 12 GLY 151, GLY 152 or GLY 155 IPI 410 Engineering professionalism 410 8 PEE 410 Mine environmental control engineering 410 16 MTV 310, Finalists only PMY 410 Mining 410 16 PMY 320, Finalists only PMY 423 Mine risk management – Health and safety 423 8 Finalists only PNB 400 Industrial excursions 400 8 PNB 300, Finalists only PSZ 410 Strata control 410 16 SWK 210, PMY 320, Finalists only Total 84 Second semester GLY 361 Ore deposits 361 18 GLY 254 PMZ 422 Mine design 422 42 PMY 410, PSZ 410, PEE 410, PNB 400, Finalists only PNB 400 Industrial excursions 400 8 PNB 300, Finalists only PSC 411 Project 411 10 PSC 321 Finalists only Total 78 Recess training PPY 418 Practical training 418 16 Eng. 13.2 Engineering Augmented Degree Programme (ENGAGE) Please note: The Engineering Augmented Degree Programme (ENGAGE) is an extended degree programme with a five-year curriculum. It is designed to enable students who show academic potential but who do not meet the normal entry requirements for the four-year degree programme, to obtain an Engineering degree. ENGAGE students spend the first 39
- 46. Engineering 2014 three years of the programme covering the content of the first two years of the four-year degree programme. They also take compulsory augmented modules in each of the Level 1 subjects. These augmented modules provide students with background knowledge and skills needed to succeed in an engineering degree. The curriculum for years four and five of the ENGAGE programme are identical to the curriculum for years 3 and 4 of the 4-year programme, respectively. Students may apply directly for admission to the programme. • Students must register for the entire programme, not components of it. The curriculum is fixed; there are no electives. • Attendance at all components of years 1 to 3 of the programme is compulsory. Non-attendance will only be condoned in the case of illness (sick note required) or family crisis (e.g. a death in the family), in which case students must inform the programme administration immediately. • Students who fail to meet the attendance requirement for any module in any semester of years 1 to 3 of the programme will be excluded from the programme. • No augmented module may be repeated more than once. • Selection into the programme will be based on a combination of performance in the National Senior Certificate examinations or equivalent and other selection tests approved by the faculty. • A student who fails a mainstream module (e.g. Chemistry) but passes the associated augmented module (e.g. Additional chemistry) does not need to repeat the augmented module. • A student who fails an augmented module (e.g. Additional chemistry) but passes the associated mainstream module (e.g. Chemistry) does not need to repeat the mainstream module. • A student must meet the attendance requirement and obtain at least 40% for both the continuous assessment and test components as well as a final mark of 50% in order to pass an augmented module. i) The requirements for promotion from the one year of study to the next are given in Eng. 14, Eng. 15 and Eng. 16. (ii) Only the curricula of the first, second and third years of study are given here. The curricula of the fourth and the fifth years of study are identical to those of the third and the fourth years of the four-year programmes and are given in Eng. 13.1. (iii) JPO 110 is a prerequisite for JPO 120. Credit for JPO is obtained with a final mark ≥50%. Conditional admission to JPO 120: If the final mark for JPO 110 is between 45% and 49%, a student can register for JPO 120 but credit for JPO 110 and JPO 120 will only be obtained if the final combined mark for JPO 110 and JPO 120 is ≥50%. Faculty requirement Module Credits Prerequisites JCP 203 Community-based project 203 8 Notes Students who register for the first year from 2005 will be required to successfully complete the above module as part of the requirements for the BEng degree. A student may register for the module during any of the years of study of the programme, but preferably not during the first or the final year of study. 40
- 47. Engineering 2014 (a) Chemical Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 111 Additional chemistry 1 111 8 JPO 116 Additional mathematics 1 116 8 WTW 158 Calculus 158 16 Total 64 Second semester FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 122 Additional physics 122 8 JPO 126 Additional mathematics 2 126 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Recess training WWP 121 Workshop practice 121 6 Second year of study First semester Module Credits Prerequisites CIR 113 Chemical engineering 113 8 EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 72 Second semester CHM 181 General chemistry 181 16 CHM 171 CIR 123 Chemical engineering 123 8 CHM 171 GS, CIR 113 JPO 121 Additional chemistry 2 121 8 JPO 125 Additional mechanics 125 8 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW 161, 168 Total 64 41
- 48. Engineering 2014 Third year of study First semester Module Credits Prerequisites CHM 215 Chemistry 215 16 CHM 171/172, 181 CIR 211 Chemical engineering 211 8 CIR 123 CJJ 210 Professional and technical communication 210 8 CIR 123 MPR 213 Programming and information technology 213 18 SWK 210 Strength of materials 210 16 SWK122, WTW168 WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 74 Second semester BES 220 Engineering statistics 220 8 CHM 226 Chemistry 226 8 CHM 171/172, 181 CTD 223 Thermodynamics 223 16 CIR 211, MPR 212/213, (WTW 258) EIR 221 Electrical engineering 221 16 EBN 111/122, WTW 161 WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 64 (b) Civil Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 111 Additional chemistry 1 111 8 JPO 116 Additional mathematics 1 116 8 WTW 158 Calculus 158 16 Total 64 Second semester FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 122 Additional physics 122 8 JPO 126 Additional mathematics 2 126 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Recess training SWP 121 Workshop practice 121 6 42
- 49. Engineering 2014 Second year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 64 Second semester JPO 123 Additional materials science 123 8 JPO 125 Additional mechanics 125 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW 161, 168 Total 56 Third year of study First semester Module Credits Prerequisites SJJ 210 Professional and technical communication 210 8 SGM 210 Geomaterials and processes 210 16 SWK 210 Strength of materials 210 16 SWK122, WTW168 SWK 211 Statics 211 16 SWK 122 WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 64 Second semester BES 220 Engineering statistics 220 8 SBZ 221 Civil engineering measurement techniques 221 8 SGM 221 Pavement materials and design 221 16 SGM 210 GS SIN 223 Structural analysis 223 16 WTW 161, 168, SWK 210 WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 64 43
- 50. Engineering 2014 (c) Computer Engineering First year of study First semester Module Credits Prerequisites FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 116 Additional mathematics 1 116 8 JPO 152 Additional physics 152 8 WTW 158 Calculus 158 16 Total 64 Second semester HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 125 Additional mechanics 125 8 JPO 126 Additional mathematics 2 126 8 SWK 122 Mechanics 122 16 WTW 158 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Recess training EIW 121 Information technology practice 121 8 Second year of study First semester Module Credits Prerequisites COS 131 Introduction to programming 131 16 EBN 111 Electricity and electronics 111 16 JPO 112 Additional electricity and electronics 112 8 JPO 114 Additional programming 1 114 8 WTW 258 Calculus 258 8 WTW 158, 168 Total 56 Second semester COS 110 Programme design: Introduction 110 16 COS 130/COS 131/COS 132 JPO 123 Additional materials science 123 8 JPO 124 Additional programming 124 8 NMC 123 Materials science 123 16 WTW 263 Numerical methods 263 8 WTW161, 168 Total 56 Recess training EIW 221 Information technology practice 221 8 EMR 101 Introduction to laboratory measurements and computer simulations 101 4 44
- 51. Engineering 2014 Third year of study First semester Module Credits Prerequisites COS 212 Data structures and algorithms 212 16 COS 110 EIR 211 Electrical engineering 211 16 EBN 111/122, WTW 161 EJJ 210 Professional and technical communication 210 8 JCP 203 Community-based project 203 8 WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 56 Second semester BES 220 Engineering statistics 220 8 COS 222 Operating systems 222 16 COS 130/ COS 131/ COS 132 ELI 220 Linear systems 220 16 EIR 211 GS/EIR 221 GS ERS 220 Digital systems 220 16 WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 72 Recess training EIW 320 Information technology practice 320 8 EIW 221 (d) Electrical Engineering First year of study First semester Module Credits Prerequisites FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 116 Additional mathematics 1 116 8 JPO 152 Additional physics 152 8 WTW 158 Calculus 158 16 Total 64 Second semester CHM 172 General chemistry 172 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 126 Additional mathematics 2 126 8 JPO 161 Additional chemistry 1 161 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 45
- 52. Engineering 2014 Second year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 64 Second semester JPO 123 Additional materials science 123 8 JPO 125 Additional mechanics 125 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW 161, 168 Total 56 Recess training EMR 101 Introduction to laboratory measurements and computer simulations 101 4 EPW 200 Practical wiring 200 4 Third year of study First semester Module Credits Prerequisites COS 131 Introduction to programming 131 16 EIR 211 Electrical engineering 211 16 EBN 111/122, WTW 161 EJJ 210 Professional and technical communication 210 8 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 64 Second semester BES 220 Engineering statistics 220 8 ELI 220 Linear systems 220 16 EIR 211 GS/EIR 221 GS ERS 220 Digital systems 220 16 WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 56 46
- 53. Engineering 2014 (e) Electronic Engineering First year of study First semester Module Credits Prerequisites FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 116 Additional mathematics 1 116 8 JPO 152 Additional physics 152 8 WTW 158 Calculus 158 16 Total 64 Second semester CHM 172 General chemistry 172 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 126 Additional mathematics 2 126 8 JPO 161 Additional chemistry 1 161 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Second year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 64 Second semester JPO 123 Additional materials science 123 8 JPO 125 Additional mechanics 125 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW 161, 168 Total 56 Recess training EMR 101 Introduction to laboratory measurements and computer simulations 101 4 47
- 54. Engineering 2014 Third year of study First semester Module Credits Prerequisites EJJ 210 Professional and technical communication 210 8 COS 131 Introduction to programming 131 16 EIR 211 Electrical engineering 211 16 EBN 111/122, WTW 161 MSD 210 Dynamics 210 16 SWK 122, FSK116/176, WTW 256# WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 64 Second semester BES 220 Engineering statistics 220 8 ELI 220 Linear systems 220 16 EIR 211 GS/EIR 221 GS ERS 220 Digital systems 220 16 WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 56 (f) Industrial Engineering First year of study First semester Module Credits Prerequisites CHM 171 General chemistry 171 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 111 Additional chemistry 1 111 8 JPO 116 Additional mathematics 1 116 8 WTW 158 Calculus 158 16 Total 64 Second semester FSK 176 Physics 176 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 122 Additional physics 122 8 JPO 126 Additional mathematics 2 126 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Recess training WWP 121 Workshop practice 121 6 48
- 55. Engineering 2014 Second year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 64 Second semester JPO 123 Additional materials science 123 8 JPO 125 Additional mechanics 125 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW 161, 168 Total 56 Third year of study First semester Module Credits Prerequisites BJJ 210 Professional and technical communication 210 8 MOW 217 Manufacturing and design 217 16 MGC 110, SWK 122 MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 66 Second semester BES 220 Engineering statistics 220 8 BPZ 220 Productivity 220 16 MTX 221 Thermodynamics 221 16 FSK 116/176 WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 56 49
- 56. Engineering 2014 (g) Mechanical Engineering First year of study First semester Module Credits Prerequisites FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 116 Additional mathematics 1 116 8 JPO 152 Additional physics 152 8 WTW 158 Calculus 158 16 Total 64 Second semester CHM 172 General chemistry 172 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 126 Additional mathematics 2 126 8 JPO 161 Additional chemistry 1 161 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Recess training WWP 121 Workshop practice 121 6 Second year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 64 Second semester JPO 123 Additional materials science 123 8 JPO 125 Additional mechanics 125 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW 161, 168 Total 56 50
- 57. Engineering 2014 Third year of study First semester Module Credits Prerequisites MJJ 210 Professional and technical communication 210 8 MOW 217 Manufacturing and design 217 16 MGC 110, SWK 122 MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 66 Second semester BES 220 Engineering statistics 220 8 MOW 227 Machine design 227 16 MOW 217 MTX 221 Thermodynamics 221 16 FSK 116/176 WTW 238 Mathematics 238 16 WTW 258GS, 256 Total 56 (h) Metallurgical Engineering First year of study First semester Module Credits Prerequisites FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 116 Additional mathematics 1 116 8 JPO 152 Additional physics 152 8 WTW 158 Calculus 158 16 Total 64 Second semester CHM 172 General chemistry 172 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 126 Additional mathematics 2 126 8 JPO 161 Additional chemistry 1 161 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Recess training WWP 121 Workshop practice 121 6 51
- 58. Engineering 2014 Second year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 64 Second semester JPO 123 Additional materials science 123 8 JPO 125 Additional mechanics 125 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW161, 168 Total 56 Third year of study First semester Module Credits Prerequisites GMI 210 Mineralogy 210 16 MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# NJJ 210 Professional and technical communication 210 8 WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 66 Second semester BES 220 Engineering statistics 220 8 EIR 221 Electrical engineering 221 16 EBN 111/122, WTW 161 NMC 223 Materials science 223 16 NMC 113/123 NPT 220 Process thermodynamics 220 16 (CHM 171/172) WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 72 52
- 59. Engineering 2014 (i) Mining Engineering First year of study First semester Module Credits Prerequisites FSK 116 Physics 116 16 HAS 110 Humanities and social sciences 110 8 JPO 110 Professional orientation 110 8 JPO 116 Additional mathematics 1 116 8 JPO 152 Additional physics 152 8 WTW 158 Calculus 158 16 Total 64 Second semester CHM 172 General chemistry 172 16 HAS 120 Humanities and social sciences 120 8 JPO 120 Professional orientation 120 8 JPO 110 JPO 126 Additional mathematics 2 126 8 JPO 161 Additional chemistry 1 161 8 WTW 161 Linear algebra 161 8 WTW 168 Calculus 168 8 WTW 158 GS Total 64 Recess training PWP 121 Workshop practice 121 8 Second year of study First semester Module Credits Prerequisites EBN 111 Electricity and electronics 111 16 JCP 203 Community-based project 203 8 JPO 112 Additional electricity and electronics 112 8 JPO 113 Additional graphical communication 113 8 MGC 110 Graphical communication 110 16 WTW 258 Calculus 258 8 WTW 158, 168 Total 64 Second semester JPO 123 Additional materials science 123 8 JPO 125 Additional mechanics 125 8 NMC 123 Materials science 123 16 SWK 122 Mechanics 122 16 WTW 158 WTW 263 Numerical methods 263 8 WTW161, 168 Total 56 53
- 60. Engineering 2014 Third year of study First semester Module Credits Prerequisites MPR 213 Programming and information technology 213 18 MSD 210 Dynamics 210 16 SWK 122, FSK 116/176, WTW 256# PJJ 210 Professional and technical communication 210 8 SWK 210 Strength of materials 210 16 SWK122, WTW168 WTW 256 Differential equations 256 8 WTW 158, 161, 168 Total 66 Second semester BES 220 Engineering statistics 220 8 MTX 221 Thermodynamics 221 16 FSK 116/176 SUR 220 Surveying 220 16 WTW 238 Mathematics 238 16 WTW 258 GS, 256 Total 56 REQUIREMENTS FOR PROMOTION TO THE FOLLOWING YEAR OF STUDY Eng. 14 Promotion to the second semester of the first year and to the second year of study (a) A new first-year student who has failed in all the prescribed modules of the programme at the end of the first semester, is excluded from studies in the School of Engineering. A student who is registered for the Engineering Augmented Degree Programme and has passed only 8 credits will also be excluded. (b) A student who complies with all the requirements of the first year of study, is promoted to the second year of study. (c) A student who has not passed at least 70% of the credits of the first year of study after the November examinations, must reapply for admission should he/she intend to proceed with his/her studies. Application on the prescribed form must be submitted to the Student Administration of the School of Engineering not later than 11 January. Late applications will be accepted only in exceptional circumstances after approval by the Dean. Should first-year students be readmitted, conditions of readmission will be determined by the Admissions Committee. (d) Students who have not passed all the prescribed modules at first year level (level 100), as well as students who are readmitted in terms of Regulation Eng. 14.(c) must register for the outstanding first-year level (level-100) modules. (e) A student who is repeating his or her first year, may, on recommendation of the relevant heads of department and with the approval of the Dean, be permitted to enroll for modules of the second-year of study in addition to the first-year modules which he or she failed, providing that he or she complies with the prerequisites for the second-year modules and no timetable clashes occur. Students on the ENGAGE programme may, following the same procedure, be permitted to enrol for level-200 modules in addition to the level-100 modules which he/she failed 54
- 61. Engineering 2014 providing that he/she complies with the prerequisites for the modules at 200-level and no timetable clashes occur. On recommendation of the relevant head of department and with special permission from the Dean, permission may be granted to exceed the prescribed number of credits. The total number of credits which may be approved may not exceed the normal number of credits per semester by more than 16 credits. (f) Students in Computer, Electrical and Electronic Engineering, who fail a first-year module for the second time, forfeit the privilege of registering for any modules of an advanced year of study. Please note: (i) From the second year of study each student should be in possession of an approved calculator. It is assumed that each student will have easy access to a personal computer. (ii) Students who intend transferring to Mining Engineering, must familiarise them- selves with the stipulations set out in the syllabi of PWP 121 Workshop practice 121. Eng. 15 Promotion to the third year of study of the Four-year Programme, as well as to the third and the fourth years of study of the ENGAGE Programme. In case of the fourth year of study of the ENGAGE Programme, the words "first", "second" and "third" must be substituted with the words "second", "third" and "fourth" respectively. (a) A student who complies with all the requirements of the second year of study, is promoted to the third year of study. (b) A student must pass all the prescribed modules at first year level (level 100) before he or she is admitted to any module at third year level (level 300). (c) A student who is repeating his or her second year must register for all the second- year modules still outstanding. Such a student may, on recommendation of the relevant head of department and with the approval of the Dean, be permitted to enroll for modules of the third year of study in addition to the second-year modules which he or she failed, providing that he or she complies with the prerequisites for the third-year modules and no timetable clashes occur. On recommendation of the relevant head of department, and with special permission from the Dean, permission may be granted to exceed the prescribed number of credits. The total number of credits which may be approved, may not exceed the normal number of credits per semester by more than 16 credits. (d) Students in Computer, Electrical and Electronic Engineering who fail a second-year module for the second time, forfeit the privilege of registering for any modules of the third year of study. (e) Students who intend transferring to Mining Engineering, must familiarise them- selves with the stipulations set out in the syllabi of PWP 120 Workshop practice 120, as well as PPY 317 Practical training 317. Eng. 16 Promotion to the fourth year of study of the Four-year Programme, as well as to the fifth year of study of the ENGAGE Programme. In case of the fifth year of study of the ENGAGE Programme, the words "second", "third" and "fourth" must be substituted with the words "third", "fourth" and "fifth" respectively. (a) A student who complies with all the requirements of the third year of study is promoted to the fourth year of study. A student who does not comply with all the 55
- 62. Engineering 2014 requirements but who is able to register for all outstanding modules in order to complete the degree programme, may at registration be promoted to the fourth year of study. (b) A student must pass all the prescribed modules of the second year of study, before he or she is admitted to any module of the fourth year of study. (c) A student who has not passed all the prescribed modules of the third year of study, must register for the outstanding modules. A student may be admitted by the Dean, on the recommendation of the head of department concerned, to modules of the fourth year of study, in addition to the outstanding third-year modules, provided that he or she complies with the prerequisites of the fourth-year modules and no timetable clashes occur. The total number of credits per semester for which a student registers may not exceed the normal number of credits per semester by more than 16 credits. In exceptional cases, the Dean may, on recommendation of the relevant head of department, permit a student to exceed the above limit. (d) Students in Computer, Electrical and Electronic Engineering who fail a third-year module for the second time, forfeit the privilege of registering for any modules of the fourth year of study. REGULATIONS FOR POSTGRADUATE PROGRAMMES IN THE SCHOOL OF ENGINEERING AND THE GRADUATE SCHOOL OF TECHNOLOGY MANAGEMENT Bachelor of Engineering Honours [BEngHons] Eng. 17 Also consult the General Regulations G.16 to G.29. (a) Subject to the stipulations of Reg. G.1.3 and G.62, a BEng degree or equivalent qualification is required for admission. (b) The minimum duration of the programme is one year of full-time study. (c) The curriculum is determined in consultation with the relevant heads of departments. A student is required to pass modules to the value of at least 128 credits. (d) The degree is awarded in the following fields of engineering: (i) Bioengineering (Code 12240201) (ii) Chemical Engineering (Code 12240021) (iii) Computer Engineering (Code 12240211) (iv) Control Engineering (Code 12240231) (v) Electrical Engineering (Code 12240031) (vi) Electronic Engineering (Code 12240091) (vii) Environmental Engineering (Code 12240221) (viii) Geotechnical Engineering (Code 12240212) (ix) Industrial Engineering (Code 12240011) (x) Mechanical Engineering (Code 12240051) (xi) Metallurgical Engineering (Code 12240061) (xii) Microelectronic Engineering (Code 12240191) (xiii) Mining Engineering (Code 12240071) (xiv) Structural Engineering (Code 12240121) (xv) Technology Management (Code 12240251) (xvi) Transportation Engineering (Code 12240111) (xvii) Water Resources Engineering (Code 12240161) (xviii) Water Utilisation Engineering (Code 12240101) 56
- 63. Engineering 2014 (e) The degree is awarded on the basis of examinations only. (f) Examinations (i) The examination in each module for which a student is registered, takes place during the normal examination period after the conclusion of lectures (i.e. November/January or June/July). (ii) A student registered for the honours degree must complete his or her studies within two years (full-time), or within three years (part-time) after first registration for the degree: Provided that the Dean, on recommendation of the relevant head of department, may approve a stipulated limited extension of this period. (iii) A student must obtain at least 50% in an examination for each module where no semester or year mark is required. A module may only be repeated once. (iv) In modules where semester or year marks are awarded, a minimum examination mark of 40% and a final mark of 50% is required. (v) No supplementary or special examinations are granted at postgraduate level. (g) A student passes with distinction if he or she obtains a weighted average of at least 75% in the first 128 credits for which he or she has registered (excluding modules which were discontinued timeously). The degree is not awarded with distinction if a student fails any one module (excluding modules which were discontinued timeously). (h) Credit for modules Consult General Regulation G.23 Master of Engineering [MEng] Master of Science (Engineering Management) [MSc (Engineering Management)] Master of Science (Project Management) [MSc (Project Management)] Eng. 18 Also consult the General Regulations G.30 to G.44. and G.57 to G.62 (a) Subject to the stipulations of Reg. G.1.3 and G.62, a BEngHons degree or equivalent qualification is required for admission to the MEng programmes [excluding the MEng (Engineering Management) and the MEng (Project Manage- ment)]. The admission requirement for the MEng (Engineering Management) and the MEng (Project Management) is a BEng or equivalent qualification. The admission requirement for the MSc (Engineering Management) and the MSc (Project Management) is a BScHons or equivalent qualification. (b) The minimum duration of the MEng programmes [excluding the MEng (Engineering Management) and the MEng (Project Management)] is one year of full-time study. The programmes MEng (Engineering Management), MEng (Project Management), MSc (Engineering Management) and the MSc (Project Management) can be completed in a minimum period of two years. (c) A minimum of 128 credits is required to obtain the MEng degree [excluding the MEng (Engineering Management) and the MEng (Project Management)]. Either a mini-dissertation (64 credits) and coursework (64 credits) or a dissertation (128 credits) is included in the programme. A minimum of 256 credits is required for the MEng (Engineering Management), MEng (Project Management), MSc (Engineering Management) and the MSc (Project Management), including a mini-dissertation (64 credits) and coursework(192 credits). (d) Recognition is not granted for credits acquired during studying for the BEngHons or the BScHons. (e) The degree Master of Engineering is awarded in the following fields of engineering: 57
- 64. Engineering 2014 Degree code Dissertation Degree code Mini- dissertation (i) Bioengineering 12250201 EIB 890 (ii) Chemical Engineering 12250021 CVD 800 (iii) Computer Engineering 12250211 ERI 890 (iv) Control Engineering 12250231 CVD 800 (v) Electrical Engineering 12250031 EIR 890 (vi) Electronic Engineering 12250091 EIN 890 (vii) Engineering Management 12250172 IGB 898 (viii) Environmental Engineering 12250221 CVD 800 (ix) Geotechnical Engineering 12250212 SGI 890 (x) Industrial Engineering 12250011 BIR 890 (xi) Mechanical Engineering 12250051 MIR 890 (xii) Metallurgical Engineering 12250061 NIN 890 (xiii) Microelectronic Engineering 12250191 EEY 890 (xiv) Mining Engineering 12250071 PYI 890 (xv) Software Engineering 12250202 EPR 890 (xvi) Project Management 12250262 IGB 898 (xvii) Structural Engineering 12250121 SIN 890 (xviii) Technology Management 12250251 ITB 890 12250252 IGB 898 (xix) Transportation Engineering 12250111 SVI 890 (xx) Water Utilisation Engineering 12250101 CVD 800 (xxi) Water Resources Engineering 12250161 WBK 890 (f) Unless the Dean, on recommendation of the relevant head of department, decides otherwise, the master's degree is conferred on the basis of examinations of coursework and a mini-dissertation or a dissertation (including an examination on the dissertation). (g) The curriculum is determined in consultation with the relevant head of department. (h) Examinations (i) The stipulations of Eng. 17 (f)(i), (iii), (iv) and (v) are applicable. (ii) An MEng student [excluding the MEng (Engineering Management) and the MEng (Project Management)] is required to complete his or her degree studies within three years after the first registration: Provided that the Dean, in consultation with the relevant head of department, may, in exceptional circumstances, approve a stipulated limited extension of this period. (iii) A student for an MEng (Engineering Management), MEng (Project Manage- ment), MSc (Engineering Management) or an MSc (Project Management) is required to complete his or her degree studies within four years after the first registration: Provided that the Dean, in consultation with the relevant head of department, may, in exceptional circumstances, approve a stipulated limited extension of this period. (iv) The Dean may, on recommendation of the relevant head of department, exempt a student from the examination on the dissertation. (i) Guidelines for the preparation and examination of mini-dissertations are available from all departments. The average mark awarded by all the examiners is the final mark, with the pass mark being at least 50%. (j) Pass with distinction (i) A student who submits a dissertation passes with distinction if an average mark of at least 75% is obtained for the dissertation (and the examination on the dissertation). 58
- 65. Engineering 2014 (ii) A student who completes the master's degree on grounds of coursework and a mini-dissertation, passes with distinction if a weighted average mark of at least 75% is obtained in the first 128 credits obtained for the degree [first 256 credits in the case of the MEng (Engineering Management), MEng (Project Management), MSc (Engineering Management) or the MSc (Project Management)], provided that 64 of these credits are allocated to the mini- dissertation. However, the degree is not awarded with distinction should a student fail any of these modules (excluding modules which have been timeously discontinued). The degree is also not awarded with distinction if a student obtains less than 70% for the mini-dissertation. (k) General master's degree requirements and draft article A student must by means of a dissertation or mini-dissertation prove that he or she is capable of planning, instituting and executing a scientific investigation. Unless the Senate, on the recommendation of the supervisor, decides otherwise, a student, before or on submission of a dissertation, must submit proof issued by a recognised academic journal that an article was submitted, to the Head: Student Administration. The draft article should be based on the research that the student has conducted for the dissertation and be approved by the supervisor if the supervisor is not a co-author. The supervisor shall be responsible for ensuring that the paper is taken through all the processes of revision and resubmission, as may be necessary. Conferment of the degree may be made subject to compliance with the stipulations of this regulation. Curricula for the following programmes: BEngHons MEng MSc (Engineering Management) MSc (Project Management) Eng. 19 Any specific module is offered on condition that a minimum number of students are registered for the module, as determined by the head of department and the Dean. Students must consult the relevant head of department in order to compile a meaningful programme, as well as for information on the syllabi of the modules. The various departmental postgraduate brochures should also be consulted. Note: The programmes are arranged in alphabetical order according to the names of the academic departments. (a) CHEMICAL ENGINEERING A limited number of appropriate modules from other departments and from other divisions of Chemical Engineering are allowed. Not all modules listed are presented each year. Please consult the departmental postgraduate brochure. BEngHons (Chemical Engineering)(12240021) Module Code Credits Bioprocessing 732 CBP 732 32 Fluoro-materials science and technology 732 CFT 732 32 Process integration 732 CIP 732 32 Chemical engineering 702 CIR 702 32 Carbon materials science and technology 732 CMS 732 32 Product design 732 CPO 732 32 59
- 66. Engineering 2014 Polymer processing 732 CPP 732 32 Polymer materials science 732 CPW 732 32 Bio-reaction engineering 732 CRH 732 32 Research Orientation 700 CRO 700 32 Separation technology 732 CSK 732 32 Additive technology 732 CYM 732 32 BEngHons (Control Engineering)(12240231) Module Code Credits Multivariable control system design 700 CBO 700 32 Multivariable control system theory 700 CBT 700 32 Model-based control laboratory 732 CML 732 32 Process control system development 732 CSP 732 32 BEngHons (Environmental Engineering)(12240221) Module Code Credits Air quality control 780 CAM 780 32 Principles of environmental engineering 780 CEM 780 32 Industrial waste engineering 780 WAI 780 32 Water quality management 780 WQB 780 32 BEngHons (Water Utilisation Engineering)(12240101) Code Credits Biological water treatment 780 WBW 780 32 Chemical water treatment 780 WCW 780 32 Water quality management 780 WQB 780 32 The remaining 32 credits may be taken by selecting one of the following relevant modules: Process integration 732 CIP 732 32 Separation technology 732 CSK 732 32 Industrial waste engineering 780 WAI 780 32 MEng (Chemical Engineering)(12250021) MEng (Control Engineering)(12250231) MEng (Environmental Engineering)(12250221) MEng (Water Utilisation Engineering)(12250101) Module Code Credits Dissertation 800 CVD 800 128 (b) CIVIL ENGINEERING Students who have obtained an engineering degree or equivalent may apply for admission to these BEngHons post-graduate programmes. BEngHons (Water Resources Engineering)(12240161) At least 128 credits from the following: Module Code Credits At least 72 credits from the following: Flood hydrology 792 SHC 792 24 Free surface flow 794 SHC 794 24 Pipe flow 795 SHC 795 24 Pump systems 785 SHW 785 24 and 60
- 67. Engineering 2014 the remainder of the credits from the following: Concrete technology 794 SGC 794 24 Hydraulic design 793 SHC 793 24 Water resource analysis and management 796 SHC 796 24 Applied statistical methods and optimization 798 SHC 798 24 Numerical methods for Civil Engineers 780 SIK 780 24 Finite element applications in Civil Engineering 780 SIR 780 24 Infrastructure management 790 SSI 790 24 or the balance of the credits may also elected from the following electives presented by the Department of Chemical Engineering: Principles of environmental engineering 780 CEM 780 32 Industrial waste engineering 780 WAI 780 32 Biological water treatment 780 WBW 780 32 Chemical water treatment 780 WCW 780 32 Water quality management 780 WQB 780 32 BEngHons (Geotechnical Engineering)(12240212) At least 128 credits from the following: Core modules: Code Credits Analytical soil mechanics 787 SGS 787 24 Theoretical soil mechanics 788 SGS 788 24 Specialised geotechnical testing 789 SGS 789 24 Electives: Engineering geology 703 IGL 703 16 Engineering geology 704 IGL 704 16 Applied statistical methods and optimization 798 SHC 798 24 Numerical methods for Civil Engineers 780 SIK 780 24 Finite element applications in Civil Engineering 780 SIR 780 24 BEngHons (Structural Engineering)(12240121) At least 128 credits from the following: Module Code Credits At least 96 credits from the following: Concrete technology 794 SGC 794 24 Steel design 776 SIN 776 24 Structural mechanics 777 SIN 777 24 Reinforced concrete design 778 SIN 778 24 Timber design 779 SIN 779 24 Structural analysis 790 SIN 790 24 Prestressed concrete design 791 SIN 791 24 and the remainder of the credits from the following: Applied statistical methods and optimization 798 SHC 798 24 Numerical methods for Civil Engineers 780 SIK 780 24 Finite element applications in Civil Engineering 780 SIR 780 24 Infrastructure management 790 SSI 790 24 An approved module from the Department of Mathematics and Applied Mathematics. An approved module from the Department of Mechanical and Aeronautical Engineering. 61
- 68. Engineering 2014 BEngHons (Transportation Engineering)(12240111) At least 128 credits from the following: Core modules: Code Credits Applied statistical methods and optimization 798 SHC 798 24 Electives: Pavement design 793 SGC 793 24 Concrete technology 794 SGC 794 24 Road rehabilitation technology 797 SGC 797 24 Numerical methods for Civil Engineers 780 SIK 780 24 Finite element applications in Civil Engineering 780 SIR 780 24 Infrastructure management 790 SSI 790 24 Transportation planning 789 SVC 789 24 Transportation studies 790 SVC 790 24 Transportation special 791 SVC 791 24 Traffic engineering 792 SVC 792 24 Multimodal transport 788 SVV 788 24 Geometric design and safety 791 SVV 791 24 MEng (Water Resources Engineering)(12250161) Module Code Credits Dissertation 890 WBK 890 128 MEng (Geotechnical Engineering)(12250212) Module Code Credits Dissertation 890 SGI 890 128 MEng (Structural Engineering)(12250121) Module Code Credits Dissertation 890 SIN 890 128 MEng (Transportation Engineering)(12250111) Module Code Credits Dissertation 890 SVI 890 128 (c) ELECTRICAL, ELECTRONIC AND COMPUTER ENGINEERING BEngHons (Electrical Engineering)(12240031) Students may take modules to the value of 32 credits from other fields of specialisation or from other departments, with approval of the Coordinator: Postgraduate Studies. Module Code Credits Power electronics 780 EED 780 32 Energy management 732 EES 732 32 Power distribution engineering 732 EEV 732 32 Introduction to research 732 EIN 732 32 Solid-state lighting ELV 732 32 Energy optimisation 732 ENO 732 32 Research project: Theory 732 EPT 732 32 Research project: Design and laboratory 732 EPT 733 32 Advanced topics in energy research 732 ERT 732 32 Electrical drives 780 ETE 780 32 62
- 69. Engineering 2014 BEngHons (Electronic Engineering)(12240091) Students may take modules to the value of 32 credits from other fields of specialisation or from other departments, with approval of the Coordinator: Postgraduate Studies. Module Code Credits Advanced classical optics 732 EAD 732 32 Intelligent Systems 732 EAI 732 32 Advanced Topics in Intelligent Systems EAI 733 32 Optimal control 780 EBO 780 32 Cellular wireless telephony 710 ECW 710 32 Electro optics 732 EEO 732 32 Interferometry 716 EFR 716 16 Introduction to research 732 EIN 732 32 Electronic warfare 780 ELB 780 32 Solid-state lighting ELV 732 32 Antenna theory 780 EMA 780 32 Multivariable control systems 732 EMB 732 32 Microwave theory 780 EMM 780 32 Optical design 732 EOD 732 32 Detection and estimation 732 EOP 732 32 Research project: Theory 732 EPT 732 32 Research project: Design and laboratory 732 EPT 733 32 Introductory radiometry and photometry 716 ERD 716 16 Electro-optical systems design 732 ESD 732 32 Digital radio techniques 732 ESR 732 32 Adaptive systems 732 ETA 732 32 Digital communications 732 ETD 732 32 Coding theory 732 ETK 732 32 Topics in photonics 732 ETP 732 32 Mobile communications 732 ETR 732 32 Telecommunication systems engineering 732 ETT 732 32 BEngHons (Computer Engineering)(12240211) Students may take modules to the value of 32 credits from other fields of specialisation or from other departments, with approval of the Coordinator: Postgraduate studies. Module Code Credits Intelligent Systems 732 EAI 732 32 Advanced Topics in Intelligent Systems EAI 733 32 Introduction to research 732 EIN 732 32 Wireless sensor networks 732 EKS 732 32 Electronic warfare 780 ELB 780 32 Solid-state lighting ELV 732 32 Detection and estimation 732 EOP 732 32 Research project: Theory 732 EPT 732 32 Research project: Design and laboratory 732 EPT 733 32 New generation networks 732 ERC 732 32 Computer networks 780 ERN 780 32 Information security 780 ETH 780 32 63
- 70. Engineering 2014 BEngHons (Bioengineering)(12240201) Students may take modules to the value of 32 credits from other fields of specialisation or from other departments, with approval of the Coordinator: Postgraduate studies. It is a requirement that a student must complete all three the bioengineering honours modules, as well as Introduction to research 732 (EIN 732), to enroll for a master’s or a PhD in Bioengineering. Module Code Credits Biosignals and systems 732 EBB 732 32 Bioelectricity and electronics 732 EBE 732 32 Bioelectromagnetism and modelling 732 EBI 732 32 Introduction to research 732 EIN 732 32 Research project: Theory 732 EPT 732 32 Research project: Design and laboratory 732 EPT 733 32 BEngHons (Microelectronic Engineering)(12240191) Students may take modules to the value of 32 credits from other fields of specialisation or from other departments, with approval of the Coordinator: Postgraduate studies. Code Credits Introduction to research 732 EIN 732 32 Analogue electronic design 732 EME 732 32 Communication electronics 732 EMK 732 32 Research project: Theory 732 EPT 732 32 Research project: Design and laboratory 732 EPT 733 32 MEng (Electrical Engineering)(12250031) Module Code Credits Dissertation 890 EIR 890 128 MEng (Electronic Engineering)(12250091) Module Code Credits Dissertation 890 EIN 890 128 MEng (Computer Engineering)(12250211) Module Code Credits Dissertation 890 ERI 890 128 MEng (Bioengineering)(12250201) Module Code Credits Dissertation 890 EIB 890 128 MEng (Microelectronic Engineering)(12250191) Module Code Credits Dissertation 890 EEY 890 128 64
- 71. Engineering 2014 MEng (Software Engineering)(12250202) Module Code Credits Dissertation 890 EPR 890 128 (d) ENGINEERING AND TECHNOLOGY MANAGEMENT BEngHons (Technology Management)(12240251) At least 128 credits from the following: Core modules: Code Credits Decision analysis and risk management 780 IBD 780 16 Technological entrepreneurship 780 IEE 780 16 Quality management 780 IKK 780 16 Organisation and innovation 780 INV 780 16 Project management 780 IPK 780 16 Systems engineering 780 ISE 780 16 Operations management 781 IVV 781 16 and Electives /Ad hoc modules Asset management 780 IBB 780 16 Engineering logistics 780 IIX 780 16 Maintenance management 780 IMC 780 16 Research methodology 781 INI 781 16 (Contact department for more information) * Students who wish to continue with the Master’s in Technology Management need to take Research Methodology as elective module. MEng (Technology Management)(12250251) This qualification follows upon the BEngHons (Technology Management). Module Code Credits Dissertation 890 ITB 890 128 or MEng (Technology Management)(12250252) Core modules Code Credits Financial management 831 FBS 831 16 Mini-dissertation IGB 898 64 Technology management 802 ITB 802 16 People Management 884 PEM 884 16 Electives Technology commercialisation 881 or IKG 881 16 Module from the MEM/MPM programme (subject to the approval of the head of department) 16 MEng (Engineering Management)(12250172) MSc (Engineering Management)(12251074) Minimum requirements: 192 credits of coursework modules and a mini-dissertation (64 credits). Total: 256 credits. 65
- 72. Engineering 2014 Module Code Credits Mini-dissertation 898 (MEng) IGB 898 64 Mini-dissertation 898 (MSc) ISC 898 64 and Core modules Financial management 830 FBS 830 16 Maintenance management 801 IIB 801 16 Research methodology 800 INI 800 16 Project management 803 IPK 803 16 Production and operations management 801 IPP 801 16 Systems engineering and management 801 ISE 801 16 Technology management 801 ITB 801 16 People management 883 PEM 883 16 and Select two modules from the domain of specialisation in consultation with the Department of Engineering and Technology Management. Details regarding the curricula as well as syllabi of the respective domains are available from the Department. Domain: General Decision analysis and risk management 801 IRI 801 16 Strategic management 801 ISM 801 16 Electives Engineering service management 801 IGB 801 16 Marketing management 801 IIM 801 16 Engineering logistics 801 IIX 801 16 Quality management 801 IKK 801 16 Information management 884 ILB 884 16 Legal aspects of project management 803 ILC 803 16 Life cycle management of SHE 802 ILE 802 16 New ventures and entrepreneurship 801 IOE 801 16 or Domain: Asset and Maintenance Management Electives Engineering asset management 801 IAM 801 16 Reliability engineering 801 IBI 801 16 Engineering logistics 801 IIX 801 16 Legal aspects of project management 803 ILC 803 16 Life cycle management of SHE 802 ILE 802 16 Decision analysis and risk management 801 IRI 801 16 Strategic management 801 ISM 801 16 or Domain: Sustainable development Life cycle management of SHE 802 ILE 802 16 Strategic management 801 ISM 801 16 Electives Engineering asset management 801 IAM 801 16 Engineering service management 801 IGB 801 16 Marketing management 801 IIM 801 16 Engineering logistics 801 IIX 801 16 Legal aspects of project management 803 ILC 803 16 New ventures and entrepreneurship 801 IOE 801 16 Decision analysis and risk management 801 IRI 801 16 66
- 73. Engineering 2014 or Domain: Engineering Service Management Engineering service management 801 IGB 801 16 Advanced engineering service management 802 IGB 802 16 Strategic management 801 ISM 801 16 Electives Engineering logistics 801 IIX 801 16 Information management 884 ILB 884 16 Legal aspects of project management 803 ILC 803 16 Decision analysis and risk management 801 IRI 801 16 MEng (Project Management)(12250262) MSc (Project Management)(12251075) Minimum requirements: 192 credits of coursework modules and a mini-dissertation (64 credits). Total: 256 credits Module Code Credits Mini-dissertation 898 (MEng) IGB 898 64 Mini-dissertation 898 (MSc) ISC 898 64 and Core modules Project human resource management 801 IHR 801 16 Research methodology 800 INI 800 16 Project finance and cost management 802 IPF 802 16 Project procurement management 801 IPJ 801 16 Introduction to project management 801 IPM 801 16 Project quality management 801 IQM 801 16 Project risk management 801 IRM 801 16 Project system engineering 802 ISE 802 16 and Select two modules from the domain of specialisation in consultation with the Department of Engineering and Technology Management. Details regarding the curricula as well as syllabi of the respective domains are available from the Department. Domain: General Project management practice 801 IMP 801 16 Strategic project management 804 ISM 804 16 Electives Engineering service management 801 IGB 801 16 Marketing management 801 IIM 801 16 Engineering logistics 801 IIX 801 16 Information management 884 ILB 884 16 Legal aspects of project management 803 ILC 803 16 Life cycle management of SHE 802 ILE 802 16 New ventures and entrepreneurship 801 IOE 801 16 or Domain: Engineering Service Management Engineering service management 801 IGB 801 16 Advanced engineering service management 802 IGB 802 16 Strategic project management 804 ISM 804 16 67
- 74. Engineering 2014 Electives Engineering logistics 801 IIX 801 16 Information management 884 ILB 884 16 Legal aspects of project management 803 ILC 803 16 Project management practice 801 IMP 801 16 Domain: Construction Management Strategic project management 804 ISM 804 16 Construction management I 803 KBS 803 16 Construction management II 804 KBS 804 16 Construction management III 805 KBS 805 16 Electives Engineering logistics 801 IIX 801 16 Legal aspects of project management 803 ILC 803 16 Project management practice 801 IMP 801 16 New ventures and entrepreneurship 801 IOE 801 16 (e) INDUSTRIAL AND SYSTEMS ENGINEERING An appropriate bouquet of 8 modules must be selected in consultation with the Head of Department to comply with the requirements for one of the following domains of specialisation: • Resource Optimisation (RO) • Supply Chain Engineering (SCE) • Business Process Management (BPM) BEngHons (Industrial Engineering)(12240011) Module Code Credits Advanced aspects of operations research 780 BAO 780 16 Solution algorithms in operations research 780 BAR 780 16 Enterprise architecture 781 BBA 781 16 Supply chain information and decision technology 780 BCI 780 16 Novel industrial and systems engineering 780 BCS 780 16 Design and analysis of experiments 780 BDE 780 16 Inventory modelling 780 BEE 780 16 Applied engineering statistics 780 BES 780 16 Quality management 780 BGH 780 16 Health and safety in the workplace 780 BGW 780 16 Probability models 780 BHM 780 16 Information systems 780 BIS 780 16 Lean supply chain strategies and systems 780 BLC 780 16 Supply chain processes 781 BLK 781 16 Process optimization BMK 781 16 Operations research 780 BOZ 780 16 Manufacturing planning and control systems 782 BPZ 782 16 Business engineering 780 BSI 780 16 Reliability engineering 780 BTH 780 16 Simulation modelling 780 BUY 780 16 Supply chain design 780 BVK 780 16 Research methodology 781 (Compulsory) INI 781 16 Not more than 4 appropriate modules are allowed from other departments. 68
- 75. Engineering 2014 Non-Industrial Engineers The following curriculum must be followed: Module Code Credits Industrial analysis 780 (Compulsory) BAN 780 16 Enterprise architecture 781 BBA 781 16 Novel Industrial and systems engineering 780 BCS 780 16 Design and analysis of experiments 780 BDE 780 16 Inventory modelling 780 BEE 780 16 Applied engineering statistics 780 BES 780 16 Quality management 780 BGH 780 16 Health and safety in the workplace 780 BGW 780 16 Probability models 780 BHM 780 16 Information systems 780 BIS 780 16 Business logistics 780 (Compulsory) BLK 780 16 Supply chain processes 781 BLK 781 16 Operations research 780 (Compulsory) BOZ 780 16 Production management 781 (Compulsory) BPZ 781 16 Manufacturing planning and control systems 782 BPZ 782 16 Reliability engineering 780 BTH 780 16 Simulation modelling 780 BUY 780 16 Supply chain design 780 BVK 780 16 Research methodology 781 (Compulsory) INI 781 16 A maximum of 3 approved modules may be selected from other departments MEng(Industrial Engineering)(12250011) Module Code Credits Dissertation 890 BIR 890 128 (f) MATERIALS SCIENCE AND METALLURGICAL ENGINEERING A limited number of appropriate modules from other departments are allowed. BEngHons (Metallurgical Engineering)(12240061) Module Code Credits Electrometallurgy 700 NEL 700 32 Fabrication engineering 700 NFE 700 32 Physical metallurgy 700 NFM 700 32 Heat treatment 700 NHB 700 32 Hydrometallurgy 700 NHM 700 32 Corrosion 700 NKR 700 32 Literature survey 700 NLO 700 32 Mechanical metallurgy 700 NMM 700 32 Minerals processing 700 NMP 700 32 Applied theory of sampling for minerals processing 700 NMP 701 32 Nuclear reactor materials 700 NNR 700 32 Metallurgical analysis 700 NPA 700 16 Pyrometallurgy 700 NPM 700 32 Froth flotation 700 NSF 700 32 69
- 76. Engineering 2014 Welding metallurgy 700 NSW 700 32 Refractory materials 700 NVM 700 32 Mathematical modelling of metallurgical processes and materials 700 NWM 780 32 Welding processes 700 NWP 700 32 Design of welded structures 700 NWP 701 32 Option: Welding Engineering The following 128 credits are prescribed: Fabrication engineering 700 NFE 700 32 Welding metallurgy 700 NSW 700 32 Welding processes 700 NWP 700 32 Design of welded structures 700 NWP 701 32 MEng (Metallurgical Engineering)(12250061) Module Code Credits Dissertation 890 NIN 890 128 (g) MECHANICAL AND AERONAUTICAL ENGINEERING A limited number of appropriate modules from other departments are allowed. Not all modules listed are presented each year. Please consult the departmental post- graduate brochure. BEngHons (Mechanical Engineering)(12240051) Module Code Credits Fluid-structure interaction 780 MAH 780 16 Porous flow 780 MAN 780 16 Aircraft turbomachinery 780 MAY 780 16 Solar energy 780 MBA 780 16 Control systems 780 MBB 780 16 Topology and shape optimisation 780 MBT 780 16 Composite materials 780 MCM 780 16 Finite element methods 780 MEE 780 16 Advanced finite element methods 781 MEE 781 16 Mechatronics 780 MEG 780 16 Vibration-based condition monitoring 781 MEV 781 16 Advanced heat and mass transfer 780 MHM 780 16 Condition-based maintenance 780 MIC 780 16 Reliability-based maintenance 781 MII 781 16 Maintenance practice 780 MIP 780 16 Maintenance practice 781 MIP 781 16 Maintenance logistics 782 MIP 782 16 Maintenance operations 783 MIP 783 16 Reliability engineering 781 MIR 781 16 Tribology 780 MIT 780 16 Aerodynamics 780 MLD 780 16 Gas dynamics 780 MLG 780 16 Air-conditioning and refrigeration 780 MLR 780 16 Aeronautical structures 780 MLT 780 16 70
- 77. Engineering 2014 Flight mechanics 780 MLV 780 16 Aircraft design MLW 780 16 Structural control 781 MOI 781 16 Optimum design 780 MOO 780 16 Design 780 MOX 780 16 Specialised design 781 MOX 781 16 Specialised design 782 MOX 782 16 Theory of elasticity 780 MSE 780 16 Fracture mechanics 780 MSF 780 16 Numerical thermoflow 780 MSM 780 16 Numerical thermoflow 781 MSM 781 16 Independent study 781 MSS 781 16 Independent study 782 MSS 782 16 Fatigue 780 MSV 780 16 Fluid mechanics 780 MSX 780 16 Advanced fluid mechanics 781 MSX 781 16 Specialised structural mechanics 781 MSY 781 16 Specialised structural mechanics 782 MSY 782 16 Experimental structural dynamics 783 MSY 783 16 Specialised thermoflow 780 MTV 780 16 Specialised thermoflow 781 MTV 781 16 Advanced thermodynamics and energy systems 781 MTX 781 16 Reactor coolant flow and heat transfer 782 MUA 782 16 Reactor engineering science 783 MUA 783 16 Reactor physics 784 MUA 784 16 Reactor materials engineering 785 MUA 785 16 Reactor materials engineering 786 MUA 786 16 Reactor stress analysis 787 MUA 787 16 Fossil fuel power stations 781 MUU 781 16 Vehicle dynamics 780 MVI 780 16 Numerical methods 780 MWN 780 16 Nano and micro heat transfer 781 MWX 781 16 MEng (Mechanical Engineering)(12250051) Module Code Credits Dissertation 890 MIR 890 128 (h) MINING ENGINEERING A limited number of appropriate modules from other departments are allowed, i.e. 64 credits. BEngHons (Mining Engineering)(12240071) Module Code Credits Financial mine evaluation 780 PFZ 780 16 Slope stability 781 PHS 781 16 Airflow and fans 711 PKB 711 16 Heat and refrigeration 712 PKB 712 16 Advanced design: mining 780 PMZ 780 16 71
- 78. Engineering 2014 Open pit mining 783 POY 783 16 Advanced explosives engineering 785 PRX 785 16 Guided special studies 700 Finalists only PSS 700 32 Strata control – Hard rock mining 786 PSZ 786 16 Strata control – Collieries 788 PSZ 788 16 MEng (Mining Engineering)(12250071) Module Code Credits Dissertation 890 PYI 890 128 (i) MODULES FROM OTHER DEPARTMENTS Postgraduate modules offered by the Department of Geology: Engineering geology 703 IGL 703 Engineering geology 704 IGL 704 Postgraduate modules offered by the Department of Mathematics and Applied Mathematics: First semester Mathematical models of financial engineering 732 WTW 732 Second semester Mathematical models of financial engineering 762 (Prerequisite: WTW 732) WTW 762 Bachelor of Science Honours in Applied Science [BScHons (Applied Science)] Bachelor of Science Honours in Technology Management [BScHons (Technology Management)] Eng. 20 Also consult the General Regulations G.16 to G.29. (a) Admission requirements: An appropriate bachelor's degree, a BTech degree or equivalent qualification. (b) The minimum duration of the programme is one year of full-time study. (c) A minimum of 128 credits is required to obtain the BScHons degree. (d) The BScHons (Applied Science) degree is conferred by the following academic departments: Chemical Engineering Civil Engineering Industrial and Systems Engineering Materials Science and Metallurgical Engineering Mechanical and Aeronautical Engineering Mining Engineering (e) The BScHons (Technology Management) degree is conferred by the following academic department: Engineering and Technology Management (f) The stipulations of Reg. Eng. 17 (e) to (g) apply mutatis mutandis. 72
- 79. Engineering 2014 Master of Science in Applied Science [MSc (Applied Science)] Master of Science in Technology Management [MSc (Technology Management)] Eng. 21 Also consult the General Regulations G.30 to G.44. and G.57 to G.62 (a) Subject to the stipulations of Regulation G.62, an appropriate BScHons or equivalent degree is required for admission. (b) The minimum duration of the programme is one year of full-time study. (c) The MSc (Applied Science) degree is conferred by the same departments as the BScHons (Applied Science) degree. The MSc (Technology Management) degree is conferred by the Department of Engineering and Technology Management. (d) A minimum of 128 credits is required to obtain the MSc degree. Either a mini- dissertation (64 credits) and coursework (64 credits) or a dissertation (128 credits) is included in the programme. (e) The stipulations of Regulation Eng. 18 (f) to (k) apply mutatis mutandis, excluding the stipulations applicable to the MEng (Engineering Management), MEng (Project Management), MSc (Engineering Management) and the MSc (Project Manage- ment). Curricula for the following programmes: BScHons (Applied Science) BScHons (Technology Management) MSc (Applied Science) MSc (Technology Management) Eng. 22 Any specific module is offered on the condition that a minimum number of students are registered for the module, as determined by the head of department and the Dean. Students must consult the relevant head of department in order to compile a meaningful programme, as well as on the syllabi of the modules. The relevant departmental postgraduate brochures must also be consulted. Note: The programmes are arranged in alphabetical order according to the names of the academic departments. (a) CHEMICAL ENGINEERING A limited number of appropriate postgraduate modules from other departments are allowed. Not all modules listed are presented each year. Please consult the departmental postgraduate brochure. 73
- 80. Engineering 2014 BScHons (Applied Science) (Control) (12243012) Module Code Credits First year first semester Process control 410 CPB 410 16 Biotechnology 410 CBI 410 16 Second semester Chemical engineering 787 CIR 787 16 ** Specialisation 420 CSS 420 16 ** Note: Only the Optimisation option may be taken. Second year Process control system development 732 CSP 732 32 and one of the following modules: Process integration 732 CIP 732 32 Separation technology 732 CSK 732 32 The modules CPB 410, CBI 410, and CSS 420 do not form part of the postgraduate block presentations. Individual arrangements have to be made with the relevant lecturer regarding attendance of lectures, study material, tests and assignments. BScHons (Applied Science) (Chemical Technology )(12243015) Module Code Credits Specialisation in Carbon, Fluoro-materials and Polymer Materials Science - 128 credits from the following: Bioprocessing 732 CBP 732 32 Fluoro-materials science and technology 732 CFT 732 32 Chemical engineering 707 CIR 707 32 Carbon materials science and technology 732 CMS 732 32 Product design 732 CPO 732 32 Polymer processing 732 CPP 732 32 Polymer materials science 732 CPW 732 32 Separation technology 732 CSK 732 32 Additive technology 732 CYM 732 32 Specialisation in Process Technology – 128 credits Specialisation in Process Technology is possible by registering for the following modules: (Please note that a candidate selecting this option will not be allowed to register for any modules at 700-level before the modules of the first semester at 400-level had been completed successfully.) First year first semester Two of the following modules: Biotechnology 410 CBI 410 16 Process control 410 CPB 410 16 Reactor design 410 CRO 410 16 Second semester Chemical engineering 787 CIR 787 16 ** Specialisation 420 CSS 420 16 ** Note: Any of the options may be taken excluding the Product Design option 74
- 81. Engineering 2014 Second year Product design 732 CPO 732 32 and one of the following modules: Process integration 732 CIP 732 32 Separation technology 732 CSK 732 32 The modules CPB 410, CBI 410, CRO 410 and CSS 420 do not form part of the post- graduate block presentations. Individual arrangements have to be made with the relevant lecturer regarding attendance of lectures, study material, tests and assignments. BScHons (Applied Science) (Environmental Technology) (12243025) Module Code Credits The following 128 credits are prescribed: Air quality control 787 CAM 787 32 Principles of environmental engineering 787 CEM 787 32 Waste management engineering 787 WAI 787 32 Water quality management 780 WQB 780 32 BScHons (Applied Science) (Water Utilisation )(12243029) Module Code Credits The following 128 credits are prescribed: Industrial waste engineering 787 WAI 787 32 Biological water treatment 787 WBW 787 32 Chemical water treatment 787 WCW 787 32 Water quality management 780 WQB 780 32 MSc (Applied Science) (Control) (12253012) MSc (Applied Science) (Chemical Technology) (12253015) MSc (Applied Science) (Environmental Technology) (12253025) MSc (Applied Science) (Water Utilisation) (12253029) Module Code Credits Dissertation 807 CVD 807 128 (b) CIVIL ENGINEERING Students who have obtained a relevant three-year university degree or BTech degree may apply for admission to this post-graduate programme. As for the other Honours degrees, a minimum 128 SAQA credits are required. The modules to select from are as follows: BScHons (Applied Science) Module Code Credits Specialisation in Water Resources (12243030) Basic statistical methods 797 SHC 797 24 Basic hydraulics 788 SHW 788 24 and 24 credits from the following: Basic pavements and transportation 787 SGM 787 24 Basic structural design 793 SIC 793 24 75
- 82. Engineering 2014 and the remainder of the modules chosen from the modules prescribed for the BEngHons (Water Resource Engineering) programme, as approved by the head of department, and after completion of the appropriate modules from the list above. Specialisation in Geotechnics (12243019) Basic soil mechanics 785 SGM 785 24 Basic statistical methods 797 SHC 797 24 and the remainder of the credits chosen from the modules prescribed for the BEngHons (Geotechnical Engineering) programme, as approved by the head of department, and after completion of the appropriate modules from the list above Specialisation in Structures (12243031) Basic structural analysis 790 SIC 790 24 Basic structural design 793 SIC 793 24 and the remainder of the credits chosen from the modules prescribed for the BEngHons (Structural Engineering) programme, as approved by the head of department, and after completion of the appropriate modules from the list above. Specialisation in Transportation Planning (12243028) Basic pavements and transportation 787 SGM 787 24 Basic statistical methods 797 SHC 797 24 Transportation planning 789 SVC 789 24 and the remainder of the credits chosen from the modules for the BEngHons (Transportation Engineering) programme, as approved by the head of department, and after completion of the appropriate modules from the list above. MSc (Applied Science) (Geotechnics) (12253019) MSc (Applied Science) (Structures) (12253036) MSc (Applied Science) (Transportation Planning) (12253028) MSc (Applied Science) (Water Resources) (12253031) Module Code Credits Dissertation 890 SST 890 128 (c) ELECTRICAL, ELECTRONIC AND COMPUTER ENGINEERING MSc (Applied Science)(12253046) Module Code Credits Dissertation 891 EER 891 128 (d) ENGINEERING AND TECHNOLOGY MANAGEMENT BScHons (Technology Management)(12241072) 128 credits from the following: Core modules Code Credits Technological entrepreneurship 780 IEE 780 16 Quality management 780 IKK 780 16 Engineering economics 780 IKN 780 16 76
- 83. Engineering 2014 Organisation and innovation 780 INV 780 16 Project management 780 IPK 780 16 Systems engineering 780 ISE 780 16 Operations management 781 IVV 781 16 and Electives (Ad hoc module for students from other departments) Asset management 780 IBB 780 16 Engineering logistics 780 IIX 780 16 Maintenance management 780 IMC 780 16 Research methodology 781 INI 781 16 * Students who wish to continue with the Master’s in Technology Management need to take Research Methodology as elective module. MSc (Technology Management)(12251072) This qualification follows upon the BScHons (Technology Management) Module Code Credits Dissertation 895 ITB 895 128 or MSc (Technology Management)(Coursework)(12251076) Mini-dissertation 898 ISC 898 64 Financial management 831 FBS 831 16 Technology management 802 ITB 802 16 People management 884 PEM 884 16 Elective module Technology commercialisation 881 IKG 881 16 or Module from the MEM/MPM programme (subject to the approval of the head of department) 16 (e) INDUSTRIAL AND SYSTEMS ENGINEERING An appropriate bouquet of 8 modules must be selected in consultation with the Head of Department to comply with the requirements for one of the following domains of specialisation: • Resource Optimisation (RO) • Supply Chain Engineering (SCE) • Business Process Management (BPM) BScHons (Applied Science) (Industrial Systems)(12243011) Module Code Credits Industrial analysis 780 (Compulsory) BAN 780 16 Enterprise architecture 781 BBA 781 16 Quality management 780 BGH 780 16 Supply chain processes 781 BLK 781 16 Production management 781 (Compulsory) BPZ 781 16 Simulation modelling 780 BUY 780 16 Research methodology 781(Compulsory) INI 781 16 Basic statistical methods 797 (Compulsory) SHC 797 24 A minimum of 3 approved modules may be selected from the BEngHons programme. 77
- 84. Engineering 2014 MSc (Applied Science) (Industrial Systems)(12253011) Module Code Credits Dissertation 891 BIR 891 128 (f) MATERIALS SCIENCE AND METALLURGICAL ENGINEERING A limited number of appropriate postgraduate modules from other departments are allowed. BScHons (Applied Science) (Metallurgy)(12243022) Module Code Credits 32 credits from the following (compulsory): Basic physical metallurgy 701 NFM 701 32 Basic extractive metallurgy 701 NHM 701 32 Basic pyrometallurgy 701 NPM 701 32 and a maximum of 32 credits from the following: (optional) Research methodology 781 INI 781 16 Project management 780 IPK 780 16 Mathematical modelling of metallurgical processes and materials 780 NWM 780 32 Basic statistical methods 797 SHC 797 24 and the balance of the credits(for a total of at least 128) chosen from the modules for the BEngHons programme, as approved by the head of department and after successful completion of the appropriate 701 module. Option: Welding Technology The following 128 credits are prescribed: Fabrication engineering 700 NFE 700 32 Welding metallurgy 700 NSW 700 32 Welding processes 700 NWP 700 32 Design of welded structures 700 NWP 701 32 MSc (Applied Science) (Metallurgy)(12253022) Module Code Credits Dissertation 891 NIN 891 128 (g) MECHANICAL AND AERONAUTICAL ENGINEERING A limited number of appropriate modules from other departments are allowed. BScHons (Applied Science) (Mechanics)(12243021) Any one of the following three 32 credit module options: Module Code Credits Structural mechanics 732 MSY 732 32 Thermoflow 732 MTV 732 32 The combination of Maintenance practice 780 MIP 780 16 Reliability engineering 781 MIR 781 16 78
- 85. Engineering 2014 (If a student fails the selected 32 credit option or any one of the two 16 credit modules from the third option, this may be taken as grounds for termination of the registration of the student, in terms of General Regulation G.4 and G.19.) and at least 96 credits chosen from the modules as prescribed for the BEngHons programme, as approved by the head of department, and subject to concurrent registration prerequisite requirements published in the departmental postgraduate brochure. MSc (Applied Science) (Mechanics)(12253021) Module Code Credits Dissertation 891 MIR 891 128 (h) MINING ENGINEERING BScHons (Applied Science) (Mining)(12243044) Module Code Credits Basic mine environment engineering 701 PKB 701 16 Underground mining methods 701 PMY 701 32 Surface-mining 703 PMY 703 16 Explosives engineering 701 PRX 701 16 Guided special studies 700 Finalists only PSS 700 32 Basic rock mechanics 703 PSZ 703 16 Total number of credits 128 All the modules above are compulsory for fulfilling the requirement for BScHons (Applied Science)(Mining). MSc (Applied Science) (Mining Environmental Control)(12253023) or MSc (Applied Science) (Mine Strata Control)(12253024) Module Code Credits Dissertation 891 PYI 891 128 DOCTORAL DEGREES Doctor of Philosophy in Engineering [PhD (Engineering)] Eng. 23 Also consult the General Regulations G.45 to G.55 and G.57 to G.62. (a) Subject to the stipulations of Regulations G.45 and G.62, no candidate is admitted to doctoral studies unless such a candidate holds a master's degree in Engineering or an equivalent master's degree. (b) Unless otherwise decided by the Dean, on the recommendation of the supervisor, the PhD (Engineering) degree is awarded on the basis of a thesis and an examination on the thesis. (c) Unless Senate, on the recommendation of the supervisor, decides otherwise, a student, before or on submission of a thesis, must submit proof of submission of an article from/issued by an accredited journal, to the Head: Student Administration. The submitted article should be based on the research that the student has 79
- 86. Engineering 2014 conducted for the thesis and be approved by the supervisor if the supervisor is not a co-author. The supervisor shall be responsible for ensuring that the paper is taken through all the processes of revision and resubmission, as may be necessary. Conferment of the degree may be made subject to compliance with the stipulations of this regulation. (d) The student must provide proof by means of his work, thesis and examination of advanced original research and/or creative work which makes a real and substantial contribution to the knowledge of engineering science and/or practice. Doctor of Philosophy [PhD] Eng. 24 Also consult the General Regulations G.45 to G.55 and G.57 to G.62. (a) Subject to the stipulations of Regulations G.45 and G.62 a master's degree is required for admission to studies for a PhD. (b) Unless otherwise decided by the Dean, on the recommendation of the supervisor, the PhD degree is awarded on the basis of a thesis and an examination on the thesis. (c) Unless the Senate, on the recommendation of the supervisor, decides otherwise, a student, before or on submission of a thesis, must submit proof of submission of an article issued by an accredited journal, to the Head: Student Administration. The submitted article should be based on the research that the student has conducted for the thesis and be approved by the supervisor if the supervisor is not a co-author. The supervisor shall be responsible for ensuring that the paper is taken through all the processes of revision and resubmission, as may be necessary. Conferment of the degree may be made subject to compliance with the stipulations of this regulation. (d) The student must provide proof by means of his work, thesis and examination of advanced original research and/or creative work which makes a real and sub- stantial contribution to the knowledge of Engineering Science and/or Practice. Doctor of Engineering [DEng] (Code 12260001) Eng. 25 The degree DEng is awarded on the basis of publications. Subject to General Regulation G.56, the following applies: 1. Admission The degree is conferred on a candidate who can demonstrate that he/she enjoys international recognition in her/his field of expertise by virtue of the quality and impact of the publications that have been produced. 2. Application (a) A candidate must apply in writing to be considered for the degree. (b) Should a candidate wish to graduate at a particular ceremony, an application must be submitted before the closing date of the various graduation ceremonies, which is announced annually. 80
- 87. Engineering 2014 (c) The application must be accompanied by (i) four sets of copies of the publications by virtue of which application is made; (ii) a declaration in which the candidate testifies that the publication/s submitted for the doctoral degree – has/have not previously been submitted to this or any other tertiary institution for such a doctoral degree; – is/are his or her own work, and with regard to such publication/s of which he or she is co-author, that his or her personal contribution to those works is clearly stated; – take(s) place with due recognition given to the author's copyright in accordance with the case. (iii) a summary of not more than 500 words that indicates the contribution that the work has made to the discipline. 3. Registration A candidate must register in the manner determined by the University and pay the prescribed registration fee. 4. Evaluation of the publications (a) The dean appoints a committee, chaired by the chairperson of the Research Committee and of which the head of the department concerned is a member, to make a recommendation to the faculty board as to whether the works have sufficient substance to be submitted for examination in terms of G.56.5(b). (b) If the faculty board accepts the recommendation, the Postgraduate Committee appoints an examination panel for a particular candidate, subject to approval by the dean. (c) The head of the department concerned compiles a list of names of potential examiners both inside and outside of South Africa from which the Postgraduate Committee chooses at least three external examiners from outside the University, all of whom must be recognised internationally as having made significant contributions in the field of study. Normally, at least two of these examiners would be from outside South Africa. (d) No examiner should have any interest in the candidate or in any way be involved in the research that the candidate has done previously. (e) External examiners must be from different institutions. (f) As soon as a potential examiner has accepted his/her appointment as examiner, he/she is supplied with a formal letter of appointment as well as documentation on the policy of the University concerning examinations. Examiners must sign an acceptance form that is to be returned to the Head: Student Administration. (g) A candidate passes if all the members of the examination panel accept the publications for the purposes of conferring the doctoral degree, and on condition that if all but one of the examiners accept the work, the dean, after consultation with the Postgraduate Committee, may appoint a knowledgeable and esteemed academic of stature from outside the University as additional examiner. If the additional examiner accepts the publications, the candidate passes. If such an examiner also rejects the publications, the doctorate is not conferred. (h) A candidate is only considered once for a doctoral degree based on publications. (i) The degree is not conferred with distinction. 81
- 88. Engineering 2014 (j) After a decision on whether the degree is to be conferred or not, has been reached, as indicated in (g) above, the Head: Student Administration has to (i) address a letter to the examiners to thank them for their participation in the examination and for their recommendations; (ii) inform the examiners of the final result and indicate to them what their further involvement, if any, will be in the remainder of the process; (iii) inform the candidate and the head of the department of the final result. 82
- 89. Engineering 2014 ALPHABETICAL LIST OF MODULES IN THE SCHOOL OF ENGINEERING AND THE GRADUATE SCHOOL OF TECHNOLOGY MANAGEMENT # = Concurrent registration () = Examination admission dpw = discussions per week GS = combined (final) mark (semester/year mark plus examination mark) of at least 40% – 49% hpw = hours per week LP = Lecturer's permission lpw = lectures per week ppw = practicals per week spw = seminars per week TDH = Permission by head of department tpw = tutorials per week opw = other per week BAN 313 Industrial analysis 313 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Mathematical statistics provides the basis for a number of important applications in the engineering environment. This module provides an introduction to the most important of these applications and will include the following syllabus themes: Monte Carlo simulation, decision analysis, forecasting and data-dependent modelling. BAN 780 Industrial analysis 780 Academic organisation: Industrial and Systems Engineering Prerequisite: Not for Industrial Engineering students Contact time: 24 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: • Monte Carlo Simulation • Continuous Simulation • System Dynamics • Multi-objective Decision-making • Operations Research • Decision Analysis • Discrete Simulation BAO 780 Advanced aspects of operations research 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 83
- 90. Engineering 2014 Module content: Decision makers are frequently faced with complex problem environments. The module introduces two advanced topics in the field of Operations Research that can assist in the development of more relevant decision support models. The first topic deals with multi objectivity and introduces a variety of interventions to incorporate the competing objectives into mathematical programming models. Secondly, the topic of Data Envelopment Analysis (DEA) is introduced, a non-parametric method used to empirically measure the productive efficiency of decision-making units. This linear programming methodology allows the decision maker to measure the productivity in complex environments with multiple inputs and outputs; uncover often overlooked relationships between in- and outputs; and analyse and quantify the inefficiencies of every unit evaluated. BAR 780 Solution algorithms in operations research 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: When developing decision-support models using optimisation, the computational burden is often so great that exact optimal solutions are not attainable, or not efficiently found, especially in combinatorial and discrete optimisation problems. Often approximate solutions are adequate and can provide superior solutions to the current state-of-practice decision approaches. The module introduces a selection of heuristics and metaheuristics applied to a variety of problems frequently faced by Industrial Engineers. The module also introduces a methodology to test and validate heuristics to ensure robust and reliable application. BBA 781 Enterprise architecture 781 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Enterprise Engineering is a developing discipline that aims to comprehend enterprise complexity and thereby master it (Hoogervorst, 2009).Two important concepts support enterprise engineering: enterprise ontology and enterprise architecture. While enterprise ontology describes the essence of an enterprise, enterprise architecture provides normative guidance for design (Hoogervorst, 2009). The course provides different approaches to describe/represent the enterprise (its essence and implemented versions) and guide its evolution. The module covers: • Background on Systems thinking, Systems Design and Systems Engineering • Different perspectives on alignment: creating coherency and consistency between different systems • Prominent approaches (and related mechanisms) to govern coherent and consistent enterprise design (e.g. Zachman, The Open Group, EA as Strategy, Hoogervorst/Dietz). • Enterprise Modelling (notation standards, languages using different tools). • Case studies • Change Management 84
- 91. Engineering 2014 BCC 410 Computer control 410 Academic organisation: Industrial and Systems Engineering Prerequisite: (BRV 320) Contact time: 1 tpw 2 lpw 2 ppw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Principles of digital control, digital mathematics, microcomputer control, programming of micro controllers, implementing ASSEMBLER programmes, stepmotor control, control through the parallel port, introduction to robotics and the kinematics of robots. BCI 780 Supply chain information and decision technology 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Information technology is an important enabler of effective supply chain management, typically spanning the extended value chain from suppliers to customers. The timeliness and availability of relevant information are critical when applying supply chain strategies that increase service levels of and reduce cost and lead times. Value- added IT-based services are increasingly used to differentiate and develop relationships with customers. The objective of the course is to develop a sound understanding of components and priorities IT investment to enable supply chain integration and efficiency, the impact of business process change on IT implementation and selection of decision support systems. • The Value of Information • Leveraging Financial Information • Advanced Supply Chain Planning and Execution • Decision Support Systems • IT Capabilities for Supply Chain Excellence • Enterprise Resource Planning Systems • Advanced Planning and Scheduling Systems • Identification Technology • Integrating Supply Chain IT BCS 780 Novel industrial and systems engineering 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: The module affords an individual student the opportunity of studying a designated area of coherent advanced knowledge under the tutorship of a specialist staff member of the Department of Industrial and Systems Engineering. BDE 780 Design and analysis of experiments 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 85
- 92. Engineering 2014 Module content: The design of an experiment may be defined as ‘the logical construction of an experiment in which the degree of uncertainty with which the inferences are drawn may be well defined’. The module deals with the following: • Principles of experimental design (Randomisation, Replication and Blocking (local control) • One-Factor-Two-level Factorial Designs • One-Factor-Multi-level Factorial Designs • Completely Randomised Design (CRD) and introduction to ANOVA • Randomised Complete Block Design (RBD) • Latin Square Design (LSD) • Balanced Incomplete Block Design (BIBD) • Factorial Experiments (2nd and 3rd factorial experiments) • Blocking and Confounding in Factorial designs • Overview of Factorial Designs BEE 780 Inventory modelling 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: • Theory of Inventory Systems: Inventory models and modelling including time and certainty complexities, linear and non-linear systems and feedback systems • Review of inventory models: Types and representations (classic, shortage, capacity constraint, time value of money, deterioration, time varying, stochastic inputs, imperfect quality, integrated scheduling and lot sizing models, service systems and retrial queues) • Review of important inventory papers, their approaches and their foci: • Modelling and Solution techniques: Characterisation and assumptions Mathematical Modelling, Mathematical Programming, Heuristics, Simulation Models, Control Theory and other approaches • State of the art of modelling: Current challenges and research trends • Technological solutions of inventory modelling and management: Algorithms and software, integration to MRP, ERP and scheduling modules, integration to WMS modules, and demonstrations BEN 420 Elective module 420 Academic organisation: Industrial and Systems Engineering Prerequisite: Finalists only Contact time: 2 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: An elective module chosen from an approved shortlist. 86
- 93. Engineering 2014 BES 220 Engineering statistics 220 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 2 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Engineering systems are often subjected to variation, uncertainty and incomplete information. Mathematical statistics provides the basis for effectively handling and quantifying the effect of these factors. This module provides an introduction to the concepts of mathematical statistics and will include the following syllabus themes: data analysis, probability theory, stochastic modelling, statistical inference and regression analysis. BES 780 Applied engineering statistics 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module presents an applied approach to solve real-world engineering problems. The premise of the course is that data analysis, and thus, applied statistics, is an inseparable part of conducting research and solving engineering problems. The module presents the elements of different types of statistical studies as they relate to different industrial settings. The aim of the module is to promote inductive reasoning through the gathering, analysing and interpreting of diverse types of observational data. The outcome of the module is an engineer equipped to select and apply statistical methods appropriate to an industrial setting.The course covers the following topics: • Contextualisation: Different types of industrial processes and research settings, related types of statistical studies and a framework for understanding and applying statistics • Principles of probabilistic and rational data gathering • The use of common and specialised probability distributions (such as the Gamma, Exponential and Weibull distributions) in solving real-life problems, conducting scientific research and analysing stochastic and deterministic processes • Data transformations: When and how to transform data • Bridging the gap between technology and statistical analysis: The use of EXCEL in resolving basic and advanced statistical problems BFB 320 Facilities planning 320 Academic organisation: Industrial and Systems Engineering Contact time: 1 ppw 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: This module introduces the principles, approaches, methods, techniques and tools to systematically determine facility requirements, determine the required space of and relationships between activities, develop and evaluate alternative plans and layouts and present the results. Aspects such as facilities location, manufacturing and service process design, capacity planning, materials handling, personnel facilities, storage and warehousing are also addressed. A structured facility design project forms an integral part of the course. 87
- 94. Engineering 2014 BGC 410 Quality assurance 410 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to quality and quality management systems. Statistical process control. Acceptance control. BGH 780 Quality management 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Professionally, engineers are confronted with issues related to product quality and performance or organisational excellence. The intention of this course is to provide an overview of the domain of modern quality management and to equip the student with theory, methodologies and tools and techniques to improve and achieve product quality and performance excellence. The course covers the following topics; • Contextualisation: The History, Guru’s, Principles, Industrial setting and the Domain of Quality Management • Practices of improving and achieving product quality: Role in Industrial Engineering, On-line and Off-line Quality Control Practices • Frameworks of improving organisational excellence: National Quality Awards, ISO 9000 and other frameworks • Practices of improving performance excellence: Quality and Competitive advantage, Customer and Supplier relationships, People Empowerment and Motivation, Quality Leadership and Organisational change. BGW 780 Health and safety in the workplace 780 Academic organisation: Industrial and Systems Engineering Contact time: 24 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 BHM 780 Probability models 780 Academic organisation: Industrial and Systems Engineering Contact time: 24 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: The objective of the module is that students be exposed to probability theory, learn the ability to follow fairly involved theoretical reasoning, continue to learn how to reason mathematically, and solve problems of a more practical nature. It covers: • Probability theory: Random variables and random vectors, Sequence of random variables, Transformation of Probability distributions • Stochastic Processes: Examples of stochastic processes; various types of stochastic processes • Poisson Processes: Homogeneous and non-homogeneous stochastic processes with examples 88
- 95. Engineering 2014 • Renewal Processes: Renewal functions; ordinary and delayed renewal processes; Regenerative stochastic processes • Discrete-time Markov chains: continuous time Markov chains with focus on examples in Reliability, queuing and inventory models. BID 320 Information systems design 320 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Systems development planning, system requirement analysis, different approaches towards structured analysis and design of systems, process design, database design and normalization, object-oriented design and modelling, information system application building and testing. BIE 420 Engineering economics 420 Academic organisation: Industrial and Systems Engineering Contact time: 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Money-time relationships and equivalence (interest formulae, effective interest rate, bonds and loans). Bases for comparison of alternatives (present worth, annual worth, Internal rate of return, external rate of return, investment balance diagrams, Decision making among alternatives (useful lives equal to study period, useful lives different among alternatives, mutually exclusive alternatives in terms of combinations of proposals). The influence of inflation on engineering economic calculations. Decision making among alternatives on an after-tax basis. Replacement analysis (the economic life of an asset, retirement without replacement). Risk analysis of cash flows. BIR 890 Dissertation: Industrial engineering 890 Academic organisation: Industrial and Systems Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 BIR 891 Dissertation 891 Academic organisation: Industrial and Systems Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 BIR 990 Thesis: Industrial engineering 990 Academic organisation: Industrial and Systems Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 BIS 780 Information systems 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 89
- 96. Engineering 2014 Module content: To introduce the student with a background in transactional application software development to a variety of aspects in the wider field of information technology. Emphasis is on the functional design of Business Intelligence systems from an Industrial Engineering perspective. The aim is to enable the student to appreciate the scope of management challenges in the integrated environment of business processes, transactional application software, data, IT infrastructure and telecommunications, data warehousing, and the necessary management information needed at various levels in an organisation. It covers: • Technology trends • Context diagram of application software portfolio • Review of typical transactional information systems • Role of Business Intelligence and data warehousing • Business dimensional lifecycle • Business requirement definition • Basic elements of the data warehouse • Extraction, Transformation and Loading processes • Dimensional modelling (star schema) • Metadata • Information delivery BIT 990 Thesis: Industrial systems 990 Academic organisation: Industrial and Systems Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 BJJ 210 Professional and technical communication 210 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw 2 opw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Communicate effectively, both orally and in writing, with engineering audiences and the community at large. Written communication as evidenced by: uses appropriate structure, use of modern or electronic communication methods; style and language for purpose and audience; uses effective graphical support; applies methods of providing information for use by others involved in engineering activity; meets the requirements of the target audience. Effective oral communication as evidenced by appropriate structure, style and language; appropriate visual materials; delivers fluently; meets the requirements of the intended audience. Audiences range from engineering peers, management and lay persons, using appropriate academic or professional discourse. Typed reports range from short (300-1 000 word plus tables diagrams) to long (10 000- 15 000 words plus tables, diagrams, references and appendices), covering material at exit level. Methods of providing information include the conventional methods of the discipline, for example engineering drawings, as well as subject-specific methods. BLC 780 Lean supply chain strategies and systems 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 90
- 97. Engineering 2014 Module content: Supply chain executives need to contribute and support long term strategic objectives by providing a competitive edge through an aligned supply chain strategy. The course addresses the impact of lean principles in supply chain management and practical approach to implementing lean thinking and demand driven supply chains. The course provides a framework for the strategic supply chain decisions, both in designing and managing an efficient extended supply chain. The latest innovations, trends and challenges in agile supply chain strategies and systems are reviewed. Team leadership skills are developed through practical applications, approaches and best practices of lean supply chain design and management. Supply chain leadership perspectives will be provided by executives and managers from industry and team-based simulation games. Course outline: • Fundamentals of lean management • Lean Thinking and Supply Chain (SC) management • Customer Value • Network design strategies • Supply Chain Integration and barriers to Integration • SC performance measurement • Extended Value Chain and Value Stream Mapping • Eliminating Waste in the Supply Chain • Applying Lean Principles to Supply Chain Operations • Inventory positioning approaches • Operational Executive Problems A3 Performance Management BLK 320 Industrial logistics 320 Academic organisation: Industrial and Systems Engineering Prerequisite: (BOB 310) Contact time: 2 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Role of logistics in the economy and organisation. Customer service. Forecasting. Logistics information systems and electronic information flow. Inventory management. Managing materials flow. Distribution channels. Transportation. Warehousing. Packaging. Strategic purchasing. Global logistics. Organising and controlling logistics. Supply chain management. Supply chain finance and performance measurement. SCOR reference models. Implementing logistics strategy. BLK 780 Business logistics 780 Academic organisation: Industrial and Systems Engineering Contact time: 24 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 BLK 781 Supply chain processes 781 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 91
- 98. Engineering 2014 Module content: A key objective of supply chain management is to develop competiveness and achieve a market advantage through the implementation of cross-functional processes as the mechanism to coordinate internal and external activities.The course aims to create an understanding of the importance of integrating key supply chain business processes and to develop the ability to analyse and implement such processes across functional and corporate silos. Standardised process definitions and practices, including strategic and operational sub-processes and key performance measurements, are considered. Course outline: • Customer Relationship Management Process • Supplier Relationship Management Process • Customer Service Management Process • Demand Management Process • Order fulfilment Process • Manufacturing Flow Management (Planning and Control) Process • Product Development and Commercialisation Process • Returns Management Process • Assessment of Supply Chain Management (SCM) Processes • Implementing and Sustaining SCM Processes • Supply Chain Mapping Approaches • Supply Chain Performance Measurement BMK 781 Process optimisation 781 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Process optimisation is an engineering discipline which focuses on the tools and techniques used specifically for business process analysis, design, and optimisation. As physics determines the physical behaviour of tangibles, process physics forms the foundation of business process behaviour. Traditionally, operations research techniques are used by Industrial Engineers to optimise business processes, process optimisation provides a more focused approach using techniques such as Social Network Analysis, System Dynamics, image profiling and process mining to uncover analytical models.The outcome of this course is to enable the student to create an integrated, analytical business process behaviour profile. This supports the analysis, design and optimisation of business processes in a Business Engineering lifecycle. The following topics are covered in the course: • Standard Process Physics principles, facts and models. • Process Intelligence • Adaptive process control and SMART processes • Robustness and complexity analysis • Process mining • Social Network Analysis Process optimisation requires an understanding of operations research within the business engineer framework. This course requires a full understanding of undergraduate Industrial Engineering modules as well as a postgraduate understanding of resource optimisation and enterprise architecture. 92
- 99. Engineering 2014 BOB 310 Operational management 310 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction to operations management, operations strategy and competitiveness. World-class and agile manufacturing. Operations planning in the service industries. The manufacturing management environment. Batching principles (EOQ and DEL). Manufacturing planning and control systems. Sales and operations planning. Capacity planning and control. Demand management. Master production scheduling. Materials requirements planning (MRP). Distribution requirements planning. Just-in-time (JIT) manufacturing. Synchronous manufacturing (Theory of constraints). Comparing MRP, JIT and TOC. Shop-floor scheduling and control. Integration and implementation of manufacturing planning and control systems. Enterprise Resource Planning (ERP) systems. Business process transformation. BON 410 Operational research 410 Academic organisation: Industrial and Systems Engineering Prerequisite: (BES 220), (BOZ 312) Contact time: 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Review of basic probability, Markov chain models, Markov decision models. Queuing systems: M/M/1 queues (both finite and infinite capacity), etc.; deterministic and stochastic inventory models. Competitive games: pure and mixed strategies, optimum strategy, two-person zero-sum games, graphical methods and applications, LP methods for games. BOZ 312 Operational research 312 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction to Operations Research, and more specifically the branch of optimisation and its application to industrial problems. In the module the topics of linear and integer linear programming are introduced. The focus is on identifying and scoping appropriate problems, the subsequent formulation of problems, solution algorithms, and post- optimisation sensitivity analysis. Students are exposed to solving problems using optimisation software. BOZ 780 Operations research 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Building on undergraduate modules in Operations Research, the module aims to extend the mathematical programming and optimisation capabilities by introducing uncertainty. Many decision makers are confronted with complex environments in which data is not 93
- 100. Engineering 2014 known with certainty, or in which the decision constraints are uncertain. For cases where one knows the shape, or can assume that the uncertainty follows a known probabilistic distribution, stochastic programming can be used. In the module both chance-constrained programming and fixed recourse are introduced. Fuzzy optimisation is introduced for cases where the shape and/or distribution of the uncertainty are not known. BPJ 410 Project 410 Academic organisation: Industrial and Systems Engineering Prerequisite: Finalists only Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Choice of project topic. Appointment of project leader. Literature study, analysis and creation of alternatives. BPJ 420 Project 420 Academic organisation: Industrial and Systems Engineering Prerequisite: BPJ 410 Contact time: 2 opw Period of presentation: Semester 2 Language of tuition: English Credits: 24 Module content: Narrowing of topic choice. Detailed solution of chosen alternative. Writing of final project report and presentation of project. BPY 310 Practical training 310 Academic organisation: Industrial and Systems Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: *Attendance module only During or at the end of the second year of study, students in industrial engineering undergo at least six weeks of prescribed practical training in the industry. A satisfactory report on the practical training must be submitted to the Faculty Administration within one week of registration. In exceptional circumstances the prescribed minimum period can be reduced, as approved by the chairman of the School of Engineering. BPY 410 Practical training 410 Academic organisation: Industrial and Systems Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: *Attendance module onlyDuring or at the end of the third year of study, students in industrial engineering undergo at least six weeks of prescribed practical training in the industry. A satisfactory report on the practical training must be submitted to the department within one week of registration. In exceptional circumstances the prescribed minimum period can be reduced, as approved by the chairman of the School of Engineering. 94
- 101. Engineering 2014 BPZ 220 Productivity 220 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Qualifying and quantifying productivity: efficiency, effectiveness, utilisation, profitability and competitiveness. Method study: critical examination and process flow charts and diagrams. Work measurement: time study and activity sampling. Organisational behaviour: motivation, incentive schemes, group forming, work teams, job design and change management. Ergonomics. BPZ 421 Business engineering 421 Academic organisation: Industrial and Systems Engineering Prerequisite: Finalists only Contact time: 2 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Integration of engineering functions; strategic planning; organisational structures; business management; systems engineering; work-flow management; process modelling; business architecture; change management and motivation; marketing management and industry exposure. Business management game project. BPZ 781 Production management 781 Academic organisation: Industrial and Systems Engineering Contact time: 24 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 BPZ 782 Manufacturing planning and control systems 782 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: To introduce the student to the manufacturing environment, the nature and scope of the manufacturing task, the manufacturing planning and control systems. It covers: • Production Management History, context and modelling complexity • Understanding system variability and attendant buffering principles and techniques • Batching principles and techniques (from EOQ to RoP) • Production planning and control principles and activities • Demand anticipation and management • Sales and Operations planning, MPS and MRP • Capacity planning, scheduling and production flow management • Tactical and consequential inventory management principles • Pull production philosophies and techniques • Principles, the variability impact and effects on system slacks • Theory of constraints, CONWIP and Lean/JIT • Current PM challenges and research opportunities 95
- 102. Engineering 2014 BSI 780 Business engineering 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Organisations are complex systems which consist of people, processes, customers, resources and regulatory environments. Business Engineering (BE) is a discipline which uses an engineering approach towards introducing planned business change into the organisation. This includes formal analysis, design, implementation and maintenance of the holistic business system; requiring a deep understanding and knowledge of the interaction and balance of complex business system elements. The outcome of the course is to enable the student to understand the art and science of engineering complex business systems. The following topics are covered in the course: • BE principles for design, implementation and optimisation of complex business systems • BE programme process which governs the implementation of holistic business changes • BE programme and project structures • BE Tools and techniques used throughout the BE lifecycle for engineering modelling and optimisation. • Business • Models and innovation approaches • Integrated Business planning • Business Process reference models for strategic, tactical, core and support processes. Business engineering is the ultimate pinnacle of industrial engineering competency – being able to construct business systems serving complicated organisational value propositions. The course requires a full understanding of undergraduate Industrial Engineering modules as well as a postgraduate understanding of resource optimisation, enterprise architecture, and supply chain engineering. BSS 310 Engineering management 310 Academic organisation: Industrial and Systems Engineering Contact time: 1 opw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Programme and systems engineering Concepts: Application of project management, systems thinking, systems approach, product, system and project life cycles, project phases and specification practices. Development models: stage-gate development, project charter, systems engineering models, systems engineering management and life cycle characteristics. Planning and Scheduling: task definition, work breakdown structures, duration estimation, Gantt charts, critical path, resource handling. Costs and Budgets: cost estimates, project life cycle costs, work authorisation. Control: project organisation. Legal: contracts, intellectual property. Case studies and semester project. Engineering Economics Decision making in an engineering environment. Allocation of cost. Money-time relationships (discreet interest formulae, tables, financial calculator, Excel). Bases for comparison of alternatives (present worth, annual worth,). Decision making among 96
- 103. Engineering 2014 alternatives before and after tax (useful lives equal to study period, useful lives different among alternatives). BSS 410 Systems engineering 410 Academic organisation: Industrial and Systems Engineering Contact time: 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: A company's ability to remain competitive hinges increasingly on its ability to develop successful products. In practice this is often determined by how well the company performs systems engineering. Applying the principles of systems engineering allows designers to understand the big picture, i.e. how a product needs to perform technically as well as within its application domain, e.g. environmentally, human interfaces, and so on. This module equips the student with the relevant tools and process understanding to successfully apply systems engineering to product development. Some of these tools and processes include specification practices, requirements engineering, systems engineering management and verification and validation processes. BTH 780 Reliability engineering 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: To make students conversant with the concepts, tools and techniques of reliability engineering. Capita selecta from: • Introduction to Reliability Engineering • Reliability Mathematics • Probability Plotting • Reliability Prediction for Design • Reliability Testing • Reliability Growth • Maintainability • Reliability Management BUY 321 Simulation modelling 321 Academic organisation: Industrial and Systems Engineering Prerequisite: (BAN 313) Contact time: 2 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to simulation as technique. Simulation methodology. Formulation of problem situations by means of simulation models with the emphasis on discrete models. Input and output analysis. Introduction to simulation software. BUY 780 Simulation modelling 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 1 97
- 104. Engineering 2014 Language of tuition: English Credits: 16 Module content: • Stochastic Modelling • Stochastic Simulation Modelling • System Dynamics • Agent Based Simulation • Input/Output Analysis • Simulation and Optimization • Simulation Project Management • Simulation Modelling Software BVK 780 Supply chain design 780 Academic organisation: Industrial and Systems Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Strategic design of supply chain networks, inventory management and supply chain integration. Framework for strategic alliances and third party logistics. Analysis and application of alternative supply chain reference models as the basis for modelling, analysis and improvement. Course outline: • Supply Chain Network Design • Strategic Management of Inventory • Supply Chain Integration • Strategic Alliances • Coordinated Product and Supply Chain Design • Supply Chain Modelling (SCOR, VRM) CAM 780 Air quality control 780 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Air quality awareness and impacts of air pollutants. South African air pollution legislation. Meteorology and dispersion modelling. Measurement of air pollution – sampling and analysis. Equipment design of settling chambers and cyclones. Venturis and other wet cleaning equipment. Bag filters. Electrostatic precipitators. Incinerators, adsorption and absorption equipment. CAM 787 Air quality control 787 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Air quality awareness and impacts of air pollutants. South African air pollution legislation. Meteorology and dispersion modelling. Measurement of air pollution – sampling and analysis. Equipment design of settling chambers and cyclones. Venturis and other wet cleaning equipment. Bag filters. Electrostatic precipitators. Incinerators, adsorption and absorption equipment. 98
- 105. Engineering 2014 CBI 410 Biotechnology 410 Academic organisation: Chemical Engineering Prerequisite: (CKN 321), (CMO 320/310), (CPA 310) Contact time: 3 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Characterisation and taxonomy of biological material. Biochemistry and the chemistry of life. Biological growth requirements, metabolism, growth kinetics and product formation. Enzyme chemistry and kinetics. Biological reactor design, operation and downstream processing. CBO 700 Multivariable control system design 700 Academic organisation: Chemical Engineering Contact time: 40 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Design of multivariable controllers using various design techniques. Application of criteria for achieving satisfactory performance, reduction of interaction, maintaining stability and obtaining robust controllers. Design techniques: Sequential loop closure, use of interaction analysis and the RGA; Frequency domain techniques: Inverse Nyquist Array (INA)-, Characteristic Loci (C.L) – and LACEY-techniques; Model-based approaches: Model-Predictive Control (MPC), Internal Model Control (IMC) and Dynamic Matrix Control (DMC); Optimal Controller Design Techniques: LQG, µ- synthesis and H Neural networks and Fuzzy Logic Controllers. CBP 732 Bioprocessing 732 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Description of industrial biotechnology in a process engineering environment. Focus on specific applications in the mining, agricultural, paper and pulp, medical, pharmaceutical, veterinary, brewing and food industries. Principles including implications of bio-prospecting, bio-safety, inoculum production, aseptic growth, quality control and product formulation as applicable to bio-processes. Fermentation with various microbial groups, bio-leaching, gene transfer, solid-substrate fermentation, enzymatic catalysis and immunology. Bioreactors, batch and continuous processing. Bio-remediation. CBT 700 Multivariable control system theory 700 Academic organisation: Chemical Engineering Contact time: 48 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Overview of single loop feedback principles; Matrices and matrix operations; Singular values; State-space description of systems; Extension to multivariable systems; Properties of multivariable systems: Interaction, Stability, Performance, Robustness, Uncertainty. Norms and relationships between single and multiple loop criteria. Criteria for control system specification. 99
- 106. Engineering 2014 CCT 990 Thesis: Chemical technology 990 Academic organisation: Chemical Engineering Period of presentation: Year Language of tuition: English Credits: 360 CEM 780 Principles of environmental engineering 780 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Engineering principles for environmental preservation and management, pollution control, life-cycle assessment, interactions in the macro and micro-environments, global and ecological systems, social-economic factors in environmental systems, predictive models for the current and future environment, environmental engineering as the driver of economic systems. Focus on design aspects. CEM 787 Principles of environmental engineering 787 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Engineering principles for environmental preservation and management, pollution control, life-cycle assessment, interactions in the macro and micro-environments, global and ecological systems, social-economic factors in environmental systems, predictive models for the current and future environment, environmental engineering as the driver of economic systems. CFT 732 Fluoro-materials science and technology 732 Academic organisation: Chemical Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 32 CIO 320 Chemical engineering design 320 Academic organisation: Chemical Engineering Prerequisite: (CTD 223), (COP 311) Contact time: 3 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Steady and unsteady state conductive heat transfer in one to three dimensions. Temperature distributions. Convective heat transfer. Application of boundary layer theory. Determination of film coefficients. Design of heat transfer equipment. Radiant heat transfer. Application of the mechanical energy balance to single phase Newtonian fluids in steady state systems. Adjustment for multiphase, non-Newtonian as well as pulsating systems. Orifice design. Optimal economic choice of pipe diameters, pumps and control valves. 100
- 107. Engineering 2014 CIP 732 Process integration 732 Academic organisation: Chemical Engineering Contact time: 44 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Heat integration: targeting for minimum use of utilities, selection and optimal placing of utilities, role of minimum temperature difference, design for maximum energy recovery, placement of heat engines and heat pumps, capital-energy trade-offs, heat integration of reactors, heat integration of distillation columns, total site analysis; Mass integration: modelling of mass exchange units, synthesis of mass exchanger networks, mathematical optimization techniques for mass integration, wastewater minimization using the WaterPinch; Batch process integration: types and operational philosophies of batch processes, heat integration using time average models, wastewater minimisation in batch processes, scheduling techniques of batch processes, design and synthesis of batch processes. CIR 113 Chemical engineering 113 Academic organisation: Chemical Engineering Contact time: 2 lpw 2 tpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Dimensions, units and their conversion. The mol unit, density, concentration. Specific volume, bulk density, density of ideal mixtures. Temperatures and conversions. Pressure, absolute and gauge. Expression of concentration. Empirical formulae. Introduction to material balances: strategy for solving problems. Material balances without chemical reaction. Combinations of equipment. CIR 123 Chemical engineering 123 Academic organisation: Chemical Engineering Prerequisite: CIR 113, CHM 171 GS Contact time: 2 lpw 2 tpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Chemical reaction and stoichiometry, excess reactant, conversion, yield, selectivity. Material balances with recycle streams, bypass streams and purge streams. Gases, vapours and liquids: ideal gas law, SG and density of gases, Nm³. Material balances where gases are involved. Fuels and combustion: coal analysis, combustion calculations. CIR 211 Chemical engineering 211 Academic organisation: Chemical Engineering Prerequisite: CIR 123 Contact time: 2 lpw 2 tpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Vapour pressure, phase changes, equilibrium. Vapour/gas equilibrium; Henry’s law. Enthalpy and enthalpy balances. Heat of reaction. Data and data sources, steam tables. Enthalpy and combustion; flame temperature. Heats of solution and mixing. Miscible 101
- 108. Engineering 2014 and immiscible liquid mixtures; dew point, bubble point. Simultaneous mass and enthalpy balances. CIR 310 Chemical enigneering 310 Academic organisation: Chemical Engineering Prerequisite: (CTD 223), SWK 210, CHM 215 Contact time: 3 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Materials science and processing aspects of engineering materials: metals, ceramic, polymers and composites. Generalized correlations for physical and thermodynamic properties. Phase equilibrium in multiphase reacting and non-reacting systems with due allowance for non-ideal mixture behaviour. CIR 702 Chemical engineering 702 Academic organisation: Chemical Engineering Contact time: 8 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 CIR 707 Chemical engineering 707 Academic organisation: Chemical Engineering Contact time: 8 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 CIR 787 Chemical Engineering 787 Academic organisation: Chemical Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 CIR 890 Dissertation: Chemical engineering 890 Academic organisation: Chemical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 180 CJJ 210 Professional and technical communication 210 Academic organisation: Chemical Engineering Prerequisite: CIR 123 Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Effective oral communication as evidenced by appropriate structure, style and language; appropriate visual materials; delivers fluently; meets the requirements of the intended audience. Audiences range from engineering peers, management and lay persons, using appropriate academic or professional discourse. Typed reports range from short (300-1 000 word plus tables diagrams) to long (10 000-15 000 words plus tables, diagrams, references and appendices), covering material at exit level. Methods of providing information include the conventional methods of the discipline, for example engineering drawings, as well as subject-specific methods. 102
- 109. Engineering 2014 CKN 321 Kinetics 321 Academic organisation: Chemical Engineering Prerequisite: (CTD 223) Contact time: 3 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Batch reactors; basic reaction kinetics; fitting of experimental reaction data; flow reactor basics. CLB 321 Laboratory 321 Academic organisation: Chemical Engineering Prerequisite: CJJ 210, CHM 226, CPN 321#, CKN 321#, (CMO 320/310), CIO 310/320# Contact time: 2 lpw 8 ppw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Laboratory safety and general industrial safety practices. Techniques for planning of experiments. Experimental work illustrating: Analysis: Composition of coal and gas, heat of combustion, viscosity. Mass transfer: Gas absorption, batch distillation, azeotropic distillation, fractional distillation and liquid-liquid extraction. Heat transfer: Condenser, shell and tube heat exchanger, heat loss from insulated pipes. Piping system design: Frictional energy loss through pipes and fittings. Measuring equipment: Rate of flow, temperature. Reporting of laboratory results. CML 732 Model-based control laboratory 732 Academic organisation: Chemical Engineering Contact time: 12 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Development of models for complex processes using conservation laws, equilibrium relationships and transport equations. Numerical modelling. Use of commercial software packages. Process identification techniques. Implementation of advanced, model-based, controller designs on experimental test rigs taking into account the practical role of controllers, computing equipment, software, measuring instruments, final control elements, noise, etc. in the successful operation of a control system. CMO 310 Mass transfer 310 Academic organisation: Chemical Engineering Prerequisite: (CTD 223), COP 311# Contact time: 3 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Separation by means of equilibrium stages. Design of flash distillation systems, distillation columns, absorbers and strippers by hand and computer calculations. Design of membrane separation systems. 103
- 110. Engineering 2014 CMS 732 Carbon materials science and technology 732 Academic organisation: Chemical Engineering Contact time: 10 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Materials science of carbon and graphite materials: Pitch, mesophase, cokes, synthetic carbons, bulk carbon and graphite, carbon fibres and matrices, sintered carbon, carbon/carbon composites and nuclear graphite. Carbon nanotechnology. Characterization of carbon materials: crystallography (powder X-ray diffraction), thermogravimetric and differential scanning calorimetry, thermo-mechanical analysis, infrared and Raman spectroscopy. Processing of carbon materials. COP 311 Transfer processes 311 Academic organisation: Chemical Engineering Prerequisite: WTW 238, (WTW 263) Contact time: 3 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Momentum transfer. Fluid statics. Control volume approach for conservation of mass, energy, and momentum. Application to pumps and turbines. Navier-Stokes equations, derivation and applications. Laminar and turbulent boundary layer theory. Heat transfer: fundamentals of heat transfer. Differential equations of heat transfer. Steady state conduction. Introduction to unsteady state conduction. Convection heat transfer and the thermal boundary layer. Radiation heat transfer. Mass transfer: fundamentals of mass transfer. Diffusion and the diffusion coefficient. Differential equations of mass transfer. Steady state molecular diffusion in one or more dimensions. CPA 310 Particle technology 310 Academic organisation: Chemical Engineering Prerequisite: (CIR 211), COP 311# Contact time: 3 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Humidification and dehumidification of air. Water cooling, drying, crystallisation, ion exchange, particle technology, particle movement in a fluid, sedimentation. Hydrocyclones, flotation, filtration. Centrifuges. Fluidised bed technology. Mixing. Comminution. Pneumatic transport. CPB 410 Process control 410 Academic organisation: Chemical Engineering Prerequisite: CPN 321 GS Contact time: 3 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Dynamic properties of equipment, instruments and processes. Mathematical modelling and computer simulation of processes in the time, Laplace and frequency domains. Linearisation and non-linear processes. Stability of control systems. Controller tuning. Methods for process identification. Digital process control. Z-transforms. Use of 104
- 111. Engineering 2014 computers and microprocessors. Introduction to modern control theory: state-space approach. Applied process control. Choice of control instrumentation. Plantwide control strategy. Development of P and IDs. CPJ 421 Design project 421 Academic organisation: Chemical Engineering Prerequisite: (CPB 410), (CRO 410); BIE 310/BSS 310, CPS 420#, CPR 420# Contact time: 1 tpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 24 Module content: Application of chemical engineering principles for the complete design of a chemical plant. CPN 321 Process dynamics 321 Academic organisation: Chemical Engineering Prerequisite: CIO 310/320#, CKN 321# Contact time: 3 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Application of the continuity equations, transport equations and phase relationships to describe time-dependent behaviour of processes. Linearisation and use of transfer functions. Stability analysis, effect of dead time and inverse response. Elements of a control loop. Control principles and mechanisms. CPO 732 Product design 732 Academic organisation: Chemical Engineering Contact time: 24 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: The methodology to develop chemical products involves assessing needs, generating ideas, sorting and screening ideas, development of good ideas, and assessment of manufacturing methods. Engineering principles must be used to estimate whether the performance of the product will meet requirements, and involves the application of eg. thermodynamics of mixing, phase equilibrium, solutions, surface chemistry, diffusion and transport properties. Students will choose a need for suitable chemical product, and implement the product design process and techniques to arrive at a unique product that meets the need. Students will present their projects both orally and as a written report. CPP 732 Polymer processing 732 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Unit processes in polymer processing. Analysis of complex processes: Description in terms of elementary processing steps. Transport phenomena: Transport equations, rheology and mixing processes. Elementary process steps: Particle technology, melting, pumping, pressure elevation, mixing, modelling of processes. Forming: Extrusion, 105
- 112. Engineering 2014 calendering, injection moulding, and film blowing. Reactive processing: Thermo set materials, reaction kinetics. CPR 420 Chemical engineering practice 420 Academic organisation: Chemical Engineering Prerequisite: CLB 321 Contact time: 1 tpw 2 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Design economics and process evaluation. Cost estimation and time-value of money. Control applications, choice of instrumentation and development of a plantwide control strategy. Development of PandID’s. Safety: Site plan and layout, area classification, hazard and operability analysis (HAZOP). Occupational Safety and Health Act, Engineering Profession of South Africa Act. Requirements to maintain continued competence and to keep abreast of up-to date tools and techniques. ECSA code of conduct, Continuing Professional Development, ECSA outcomes, ECSA process and reasons for registration as PrEng. Displays understanding of the system of professional development. Accepts responsibility for own actions. Displays judgment in decision making during problem solving and design. Limits decision making to area of current competence. Reason about and make judgment on ethical aspects in case study context. Discerns boundaries of competence in problem solving and design. Case studies typical of engineering practice situations in which the graduate is likely to participate. CPS 410 Process synthesis 410 Academic organisation: Chemical Engineering Prerequisite: CLB 321, CIR 310 GS Contact time: 1 tpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Development of new processing plants; Evaluating process alternatives; Developing a process flowsheet using a process synthesis approach. Applying thermodynamic principles to obtain an optimal synthesis route. Applications using computer packages. CPS 420 Process analysis 420 Academic organisation: Chemical Engineering Prerequisite: CPS 410 Contact time: 1 tpw 2 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Pinch analysis and exergy analysis. Optimisation techniques. Flowsheet optimisation. Economic evaluation of processes. Applications using computer packages. CPW 732 Polymer materials science 732 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 106
- 113. Engineering 2014 Module content: Fundamentals of polymer chain behaviour: Inter and intra molecular forces and chain statistics, rubber elasticity and visco elasticity. The solid-state properties of polymer materials and their applications: plastics, rubbers, adhesives, resins, binders and coatings, etc. Polymer phases: Liquid, glass and crystalline states. Phase transitions: Glass transition, crystallization and spinodal decomposition. Multi component systems: Morphology and thermodynamics of polymer blends and alloys; compatibilization with block copolymers. Mechanical properties and failure of polymers. Physical characterization of polymers. Resins and binders. CPY 311 Practical training 311 Academic organisation: Chemical Engineering Prerequisite: (CJJ 210) and (CIR 211) Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: *Attendance module only At the end of the second year of study, students in Chemical Engineering undergo at least six weeks of prescribed practical training in the industry. The student must also attend all excursions organised during the year by the department. A satisfactory report on the practical training must be submitted to the Faculty Administration within one week of registration. In exceptional circumstances the prescribed minimum period can be reduced, as approved by the Chairman of the School of Engineering. CPY 411 Practical training 411 Academic organisation: Chemical Engineering Prerequisite: (CMO 320/310), CPY 311 Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: *Attendance module only At the end of the third year of study, students in chemical engineering undergo at least six weeks of prescribed practical training in the industry. The student must also attend all excursions organised during the year by the department. A satisfactory report on the practical training must be submitted to the department within one week of registration. In exceptional circumstances the prescribed minimum period can be reduced, as approved by the chairman of the School of Engineering. CRH 732 Bio-reaction engineering 732 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: In depth understanding of the important metabolic pathways in microorganisms, black box models for describing stoichiometry of bioreactions, metabolic flux analysis as the basis for metabolic (genetic) engineering, kinetics of microbial conversions and basic bioreactor design. 107
- 114. Engineering 2014 CRO 410 Reactor design 410 Academic organisation: Chemical Engineering Prerequisite: CKN 321 GS Contact time: 3 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Heterogeneous catalysis: diffusion in reaction for catalyst pores and different catalyst geometries. Inter and intraparticle heat and mass transfer processes. Reactor design: energy and continuity equation for different types of reactor: stirred tank, pipe, radial flow, slurry and fluidised. Modelling of non-ideal flow in reactors. CRO 700 Research orientation 700 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Design, construction and testing of experimental setup. Initial test experiments, calibrations and modifications. Preliminary results. Experimental plan and schedule for the research dissertation. Detailed predictions on anticipated measurements. Directly relevant literature (core essentials taken from CIR 702). CSC 411 Research project 411 Academic organisation: Chemical Engineering Prerequisite: CLB 321, CPB 410 # and CRO 410 # Contact time: 1 tpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: The execution of a complete literature study and research project on a chosen subject. CSC 421 Research project 421 Academic organisation: Chemical Engineering Prerequisite: CSC 411 Contact time: 1 tpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Interpretation of the research results of CSC 411. The writing of a project report and scientific article. Oral presentation and poster. CSK 732 Separation technology 732 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Characterisation and classification of particulate solids, bulk and single particle properties (flowability, rheology, density, etc.), preparation of particles and powders, separation of particles from liquid, gas and solid- solid separation, unit operations involving solids (fluidisation, ion exchange, pneumatic transport, hopper design, etc.) behaviour of multi-component and multiphase systems. 108
- 115. Engineering 2014 CSP 732 Process control system development 732 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Process control computers, interfaces and data-transfer. Control of: distillation columns, heat exchangers, boilers, reactors, biological systems & batch processes; pH- control. Identification of opportunities for advanced control. Cost benefits analysis (CBA). Development and implementation of advanced control systems. Plantwide control vs control of individual processing units. Control philosophy. Development of a control strategy. Base layer control: Inventory control, maintaining a mass and energy balance. Control of production quality and production rate. Control system performance. Design diagrams. Design documentation. Hazard control. Role of the control engineer as member of the design team. Control loop performance & Control system performance measures. CSS 420 Specialisation 420 Academic organisation: Chemical Engineering Prerequisite: CPJ 421# Contact time: 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: A module to be selected from the list of available specialisation topics, including Process Control, Chemical Product Design, Environmental Engineering, Nuclear Engineering, Polymer Processing, Reactor Design, Water Utilisation Engineering and Optimisation techniques. CTD 223 Thermodynamics 223 Academic organisation: Chemical Engineering Prerequisite: CIR 211, MPR 212/213, (WTW 258) Contact time: 3 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Simple applications of the first and second laws of thermodynamics. The concepts of work, heat, enthalpy and entropy. Equations of state for gases and gas mixtures, the calculation of internal energy, enthalpy and entropy using the equations of state. Simple heat engine cycles. Refrigeration and gas liquefaction. Process efficiency by means of energy. Introduction to equilibrium composition principles in multiphase non-reacting systems with due allowance for non-ideality in the phases and the mixtures. CVD 800 Dissertation 800 Academic organisation: Chemical Engineering Period of presentation: Year Language of tuition: English Credits: 128 CVD 807 Dissertation 807 Academic organisation: Chemical Engineering Period of presentation: Year Language of tuition: English Credits: 128 109
- 116. Engineering 2014 CYM 732 Additive technology 732 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Property modification through reactive processing and additive compounding. Colorants and optical modifiers (pigments, dyes, absorbers and opacifiers), fillers and reinforcements; Stabilisers (anti oxidants, light stabilisers, flame retardants); Surfactants (antistatic, antifog and antiblock); Functional additives (gas absorbers, biocides, foaming agents, barrier additives and cross-linkers); Viscosity modifiers. Optimisation of formulations using statistical methods: Taguchi experimental designs and triangular formulation designs. EAD 410 Electrical drives 410 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ELX 311 GS and EDF 320 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Single and three-phase DC-AC invertors, PWM, 4-quadrant conversion, DC and AC variable speed drives and high frequency transformer design. EAD 732 Advanced classical optics 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Propagation and diffraction, linear optical systems theory, coherence, fundamentals of imaging, including MTF and basic aberration theory, some applications including: diffraction gratings, holography, gradient index media and periodic media. EAI 320 Intelligent systems 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: WTW 258 Contact time: 1 ppw 1 tpw 1 wbppw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Practical application of neural networks, fuzzy logic, genetic algorithms and expert systems. Introduction to pattern recognition, optimization and problemsolving using intelligent systems techniques. EAI 732 Intelligent systems 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 32 110
- 117. Engineering 2014 Module content: This module provides the theoretical background necessary to understand, research and develop real-world software and hardware systems that incorporate and exhibit intelligent behaviour. The module incorporates advanced theory from fields such as Artificial Intelligence, Computational Intelligence, Machine Learning, Pattern Recognition and Signal Processing. Core topics of the module include: Bayesian Theory, Neural Networks, Kernel Methods, Graphic Models, and Numerical Bayesian Methods. EAI 733 Advanced topics in intelligent systems 733 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EAI 732 Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 32 Module content: The aim of the module is to augment the general background provided by the EAI 732 module with the specific theoretical background required for MEng. The module will, depending on the intended research field of the student, incorporate advanced theory from fields such as: Digital Image Processing, Computer and Robotic Vision, Probabilistic Robotics, Data Fusion, Hardware and Software Parallel Processing, Real- Time and Reactive Systems. EAS 410 Computer engineering: Architecture and systems 410 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EMK 310 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: This module aims to provide a strong foundation for allowing students to understand modern computer architectures and systems. Microarchitectures and instruction set architectures (ISAs) will be studied in detail, as well as computer memory types and their organisation. The study will also cover performance acceleration techniques such as caching and pipelining. Topics relating to parallel processing will be studied, including instruction level parallel processing (SIMD), multi-threading and multi-core processors as well as their synchronisation. Specialised architectures and techniques used in embedded processors (such as those found in smartphones) will be explored. The module also provides an overview of advanced computer communication buses, memory and storage systems prevalent in enterprise class computing (data centres), including topics such as: network-attached storage NAS, virtualisation, clusters, grid computing and cloud computing. Practicals will demonstrate various elements of computer architectures using VHDL. EBB 320 Control systems 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ELI 220 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 111
- 118. Engineering 2014 Module content: Modelling and simulation of physical systems. Block and signal flow diagrams. State variable formulation. Time and frequency domain analysis. Stability and sensitivity. Design methods, cascade (eg. PID) and feedback controllers. EBB 732 Biosignals and systems 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Bio-engineering: Bioelectricity and Electronics EBE732 Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: The objective of the module is to teach the engineering student how to apply engineering tools to the analysis of biological systems for the purpose of (i) developing understanding of the anatomy and physiology of specific biological systems from an engineering perspective, (ii) deriving appropriate mathematical descriptions of biological systems, and (iii) engineering applicable therapeutic interventions. We will expand on the single nerve fibre studies considered in bioelectricity and electronics: where the latter examined the biophysics of single excitable cells (and electrostimulation thereof), this module will develop it into an analysis of the characteristics of populations of neurons. We will systematically develop a systems-level perspective, working our way through the hierarchical organisation of neural encoding and computation. Furthermore, we will discuss how to measure characteristics and parameters of a particular system (the auditory system) and how to glean information about lower hierarchical levels from these measurements. This is a course in modelling and measurement, using tools from signal processing, control systems, dynamics, probability theory, systems engineering and psychoacoustics. EBE 732 Bioelectricity and electronics 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: This module focuses on electrophysiology, using a quantitative approach. Topics covered in the first part of the module are: electrical properties of the nerve cell membrane, action potentials and the Hodgkin-Huxley model, cable theory, the neuromuscular junction, and extracellular fields. The second part of the module builds on this background to discuss the theory and practice of electrical nerve stimulation. Applications of the theoretical work is discussed, including functional electrical stimulation (e.g. electrostimulation used for standing and walking in paraplegics), and cochlear implants for the deaf. EBI 732 Bioelectromagnetism and modelling 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Undergraduate Electromagnetism EMZ320 or equivalent Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: The course provides an introduction to modelling of bioelectromagnetic systems using numerical methods. It focuses on the study of the interaction of electromagnetic fields 112
- 119. Engineering 2014 with biological systems and application of this knowledge in the modelling of biological volume conduction problems. The finite element technique is used to analyse volume conduction problems. Students are introduced to an industry standard finite element software package, ANSYS, that is used to complete the practical component of the course. EBN 111 Electricity and electronics 111 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Electrical quantities, units, definitions, conventions. Electrical symbols, ideal and practical current and voltage sources, controlled sources. Ohm’s law in resistive circuits, Kirchoff’s current and voltage laws, resistors in series and parallel circuits, voltage and current division, mesh current and node voltage methods. Circuit theorems: Linearity, superposition, Thevenin and Norton equivalent circuits, sources transformation, power calculation, maximum power transfer. Energy storage elements: current, voltage, power and energy in inductors and capacitors, inductors and capacitors in series and parallel. Ideal operational amplifiers and applications: inverting and noninverting amplifiers, summing amplifiers, current sources, integrators. EBN 122 Electricity and electronics 122 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Electrical quantities, units, definitions, conventions. Electrical symbols, ideal and practical current and voltage sources, controlled sources. Ohm’s law in resistive circuits, Kirchoff’s current and voltage laws, resistors in series and parallel circuits, voltage and current division, mesh current and node voltage methods. Circuit theorems: linearity, superposition, Thevenin and Norton equivalent circuits, sources transformation, power calculation, maximum power transfer. Energy storage elements: current, voltage, power and energy in inductors and capacitors, inductors and capacitors in series and parallel. Ideal operational amplifiers and applications: inverting and noninverting amplifiers, summing amplifiers, current sources, integrators. EBN 780 Non-linear control 780 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 EBO 780 Optimal control 780 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Introductory control course such as EBB 320 Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 113
- 120. Engineering 2014 Module content: Optimal control of dynamic systems: continuous time systems, the Euler Lagrange equations, minimum time problems, the Pontryagin maximum principle; feasible control: computation of control input strategies for nonlinear systems such that the given control specifications are satisfied; feedback control of dynamic systems: dynamic programming for continuous time and discrete time nonlinear systems; applications in manufacturing systems; parametrisations of nonlinear/intelligent controller structures and applications of feasible control; linear systems: linear optimal control, linear optimal observers; application of feasible control in the computation of linear optimal output feedback controllers such that the design specifications are satisfied including: robustness against parameter variations, disturbance rejection, command following, frequency domain specifications. EBT 410 Automation 410 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EBB 320 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Plant automation issues. The steps taken to establish controllers for industrial processes. Static and dynamic properties of sensors and actuators. Obtaining models from process data. Plant automation platforms. Model-bases PID and internal model control. Turning and troubleshoot control loops. Unconstrained single-input-single- output model predictive control. Economic evaluation of automation systems. ECW 710 Wireless telephony 710 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Semester: Year course through CE@UP. The Centre for Radio and Digital Communications (CRDC), within the Department of Electrical, Electronic and Computer engineering, University of Pretoria in collaboration with Motorola has developed a unique Certificate Course in Wireless Telephony (CCWT). With the emergence of 2.5G and 3G technologies and the convergence between IT and Cellular technologies, training engineers for these developments in crucial. This programme offers the person with certain common telecommunication principles and training in fundamental mobile principles to a specific system generation. The practical/laboratory component attempts to firmly embed these “cutting edge” wireless communications learning outcomes. EDC 310 Digital communication 310 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ELI 220 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Basic Signals Theory, Transform theory (Fourier, Laplace and Z-transform) and Linear Systems. Overview of stochastic processes: Stationarity and ergodicity. Noise and 114
- 121. Engineering 2014 channel models. Transmission effects. Definition of information and coding of analog information sources. Shannon’s Channel Capacity Theorem. Introduction to channel (error) detection and correction coding: Block and Convolutional coding. Maximum- likelihood sequence decoding: The Viterbi algorithm. Analysis of digital modulation techniques in AWGN. Optimal Receiver design. Nyquist and Partial-Response systems. Power Spectral Density (PSD) of random data signals. Digital Transmission through band-limited channels: ISI, Nyquist criteria and equalizers. Data communication standards and protocols. The focus will be on applications in the computer and network environments. EDF 320 Power electronics 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ELX 311, ELI 220GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Semiconductor components: Power diodes, silicon-controlled-rectifiers, bipolar transistors, power mosfets, IGBTs, emerging devices. Ancillary issues: Heat sinks, snubbers, gate drive circuits. Converter topologies: AC-DC converters, DC-DC converters; Applications: Sizing of converter components, isolated high-frequency power supplies. EED 780 Power electronics 780 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Undergraduate level Power electronics Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Power semiconductors - basic structure, I-V characteristic physics of device operation, switching characteristics, SOA; passive components; converter topologies - AC-DC rectifiers, DC-DC converters, DC-AC inverters, AC-AC converters and resonant converters; Dynamics and control - state space models, feedback control design; Ancillary issues - gate and base drives, snubber circuits and clamps, thermal modelling and heatsinking; Applications - electric utility applications, isolated switch-mode power supplies, optimising of the utility interface with power electronic systems. EEO 732 Electro-optics 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Telecommunications ETK 320 and Microwaves and antennas EMZ 320 or BEng (Electronic Engineering) Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: The module covers the different parts of photonic systems, such as an optical telecommunication system. The contents include: laser sources (laser principles, semiconductor lasers), modulators (electro-optic, magneto-optic, acousto-optic), media (free space propagation, Gaussian beams, optical fibre) and detectors (photo- conductive, photo-voltaic). 115
- 122. Engineering 2014 EER 891 Dissertation 891 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 EES 424 Specialisation 424 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ERS 220 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Semiconductor physics: materials, doping, carrier drift and diffusion. Device physics. Integrated circuit (IC) fabrication technology. IC layout design. Digital IC design: MOS inverters; static, transfer and dynamic logic gates; sequential gates; design topics: high speed, low power, clock and power distribution. Computer-aided design of integrated circuits. VHDL Hierarchy Revisited. Specialist topics are included for specific niche areas. EES 732 Energy management 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Energy management theory, energy policy and strategic planning, load factor, diversity factor, load profiles, disaggregated load profiles, load duration plots, scatter plots, co- incident maximum demand, after-diversity maximum demand, seasonal swing, energy auditing, electricity pricing theory, electricity tariffs, energy norms, energy process modelling, demand-side management. EEV 732 Power distribution engineering 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Utility source, medium voltage distribution, balanced and unbalanced fault conditions and selection of protective equipment: First cycle fault current calculations, contact parting symmetrical current calculations, power circuit breaker selection. Shunt capacitors: Selection, transients. Motors and motor starting, power quality issues: dips, harmonics, unbalance and flicker. EEY 890 Dissertation: Micro-electronic engineering 890 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 EFO 732 Optical communications 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 116
- 123. Engineering 2014 Language of tuition: English Credits: 32 Module content: This course presents optical networks from a practical perspective. Strong emphasis is placed on contemporary topics such as fibre theory, components, transmission systems and networks. Operational matters such as survivability, management and deployment considerations are also addressed. A substantial practical component will include optical time-domain reflectometry and familiarisation. EFR 716 Interferometry 716 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 16 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Credits: 16 (must be combined with Introduction to the science of measurement to form a 32 credit module) Theory: Michelson interferometer, Mach-Zehnder interferometer, Shack-Hartmann interferometer, Fabry-Perot interferometer, introduction to polarisation interferometry, introduction to interference microscopy, introduction to optical thin films. Practical: alignment of optical flats, evaluation of optical surfaces, interpretation of interferograms obtained from a Fisba interferometer, interpretation of Newton fringes, application of a wedge interferometer to determine the thickness of a thin film. EHN 410 e-Business and network security 410 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Commerce via the Internet, electronic payment systems, virtual organisations and electronic business. Introduction to data security, system security, network security, user considerations, firewalls, encryption, access control and social engineering. EIB 890 Dissertation: Bioengineering 890 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 EIC 990 Thesis: Biosystems 990 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 EIN 732 Introduction to research 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 16 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 32 Module content: The aim of this module is to teach students to critically evaluate research literature, including conference papers and journal articles, in order to determine the current state of knowledge in a particular specialist area. It will also provide students with the 117
- 124. Engineering 2014 principles of research to enable them to conduct research and prepare an original project in their particular specialist area. EIN 890 Dissertation: Electronic engineering 890 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 EIN 990 Thesis: Electronic engineering 990 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 EIR 211 Electrical engineering 211 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EBN 111 or EBN 122 and WTW 161 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Circuit principles; sinusoidal voltage and currents, RMS-values, phasors, complex impedance, power, three-phase circuits, transients. Digital systems. Electronics: Diodes, Amplifiers, BJT’s, FET’s as switch and implementation of logic circuits. Electricity: transformers; electrical machines – (DC and AC), equivalent circuits, speed control, power generation, small-signal analysis and distribution – electrical energy sources, transmission and protection, power and energy metering and tariffs, power factor correction, lightning and surges. EIR 221 Electrical engineering 221 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EBN 111 or EBN 122 and WTW 161 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Circuit principles; sinusoidal voltage and currents, RMS-values, phasors, complex impedance, power, three-phase circuits, transients. Digital systems. Electronics: Diodes, Amplifiers, BJT’s, FET’s as switch and implementation of logic circuits. Electricity: transformers; electrical machines – (DC and AC), equivalent circuits, speed control, power generation, small-signal analysis and distribution – electrical energy sources, transmission and protection, power and energy metering and tariffs, power factor correction, lightning and surges. EIR 890 Dissertation: Electrical engineering 890 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 EIR 990 Thesis: Electrical engineering 990 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 118
- 125. Engineering 2014 EIW 121 Information technology practice 121 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 36 opw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: *Attendance module only This module is offered at the end of the first year of study. The duration is at least two weeks during which the students receive practical training in computers and computer networks. The module may for practical reasons be offered in a different time slot (e.g. at the beginning of the next year of study). EIW 221 Information technology practice 221 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 36 opw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: *Attendance module only This module is offered at the end of the second year of study. The duration is at least two weeks during which the students receive practical training in computers and computer networks. The module may for practical reasons be offered in a different time slot (e.g. at the beginning of the next year of study). EIW 320 Information technology practice 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EIW 221 Contact time: 36 opw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: *Attendance module only This module is offered at the end of the third year of study. The duration is at least two weeks during which the students receive practical training in computers and computer networks. The module may for practical reasons be offered in a different time slot (e.g. at the beginning of the next year of study). EJJ 210 Professional and technical communication 210 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 2 lpw 2 opw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Communicate effectively, both orally and in writing, with engineering audiences and the community at large. Written communication as evidenced by: uses appropriate structure, use of modern or electronic communication methods; style and language for purpose and audience; uses effective graphical support; applies methods of providing information for use by others involved in engineering activity; meets the requirements of the target audience. Effective oral communication as evidenced by appropriate structure, style and language; appropriate visual materials; delivers fluently; meets the requirements of the intended audience. Audiences range from engineering peers, management and lay persons, using appropriate academic or professional discourse. 119
- 126. Engineering 2014 Typed reports range from short (300-1 000 word plus tables diagrams) to long (10 000- 15 000 words plus tables, diagrams, references and appendices), covering material at exit level. Methods of providing information include the conventional methods of the discipline, for example engineering drawings, as well as subject-specific methods. EKK 320 Power system components 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EIR 211 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Single and three-phase basic concepts, Transformers: the ideal transformer, equivalent circuit, single and three-phase transformers, auto-transformers, tap changing transformers. Synchronous machines: equivalent circuit, real and reactive power control, two-axis machine model. Transmission lines, Underground Cables, Capacitors, Reactors, Single and three-phase induction motors, Load modelling. EKK 410 Power system analysis 410 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EKK 320 Contact time: 1 ppw 1 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Power flow: bus admittance matrix, bus impedance matrix, Gauss Seidal and Newton Raphson methods. Fault analysis: balanced fault analysis, symmetrical components, unbalanced fault analysis. Power system protection: definite time, invese-definite- minimum-time (IDMT), introduction to over-current and earth fault protection, distribution system protection, transmission system protection, reticulation system protection. Sizing of protection devices. High voltage control: over-voltages, transients. EKS 732 Wireless sensor networks 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Computer networks ERN 780 Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: WSN consist of individual nodes interacting with their environment by sensing or controlling physical parameters; these nodes have to collaborate (using wireless communication) to fulfil their tasks. The course can be structured in two parts: architectures covering single node and network architectures, and communication protocols focusing on algorithms and protocols relevant to wireless sensor networks. The latter include the physical layer, MAC protocols, link-layer, naming and addressing, time synchronisation, localisation and positioning, topology control, routing protocols, data-centric and content-based networking, transport layer an QoS, and advanced application support (e.g. security). ELB 780 Electronic warfare 780 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 120
- 127. Engineering 2014 Language of tuition: English Credits: 32 Module content: The following aspects of radar systems will be considered: Different types of radar including search radar, tracking radar, Synthetic Aperture Radar (SAR). The radar range equation. Radar Cross Section (RCS) and target characteristics such as scintillation and glint. Doppler processing and other coherent and non coherent integration techniques. Range and Doppler ambiguities and high, medium and low PRF operation. Target detection including Constant False Alarm Rate (CFAR) processing. Pulse compression. Target tracking, including tracking filters and angular tracking systems such as mono pulse. Environmental effects such as atmospheric attenuation and multipath. The radar frequency bands and their characteristics. High Range Resolution (HRR) techniques. The following aspects of communications systems will be considered: HF, VHF/UHF, satellite and other communications links. Modulation schemes used for communications. Resistance to interference and noise. System architectures and link establishment procedures. The following aspects of EW will be considered: Electronic Support (ES): Signal detection. Parameter estimation including Direction Finding (DF)/Angle of Arrival (AoA) estimation and PRI tracking. Emitter classification. Electronic Attack (EA): Vulnerabilities of radar and communications systems. Non-coherent (noise) jamming. Coherent jamming with Digital Radio Frequency Memory (DRFM) systems. High Power Microwave (HPM) and Electromagnetic Pulse (EMP). Electronic Protection (EP): The relationship between good system design and EP. Low Probability of Detection (LPD) and Low Probability of Intercept (LPI) techniques. ELI 220 Linear systems 220 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EIR 211 GS/221 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Frequency domain analysis of linear time-invariant systems. Laplace, Fourier and Z- transforms applied to periodic, aperiodic and sampled signals; exponential and trigonometric Fourier series. Nyquist sampling theorem, transfer functions, poles and zeros, bandwidth and rise time, frequency response, impulse response, Bode diagrams, natural frequency, natural and forced response. Instability and oscillations. Computer simulation. ELO 320 Electronic engineering design 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EMK 310 GS Contact time: 1 tpw 2 lpw 2 ppw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Electronic transducers. Circuit board layout: power circuit techniques, low noise techniques, high frequency techniques. Intellectual property law in South Africa. Design and implement a group project: technical specifications and interface specifications, systems engineering, industry standards, architecture and engineering judgement, material procurement, documentation and configuration management, man/machine interfaces, packaging technology, ergonomics and aesthetics, complete design and construction of a system (including electromagnetic compatibility), design for 121
- 128. Engineering 2014 manufacturing and maintainability, integration, production facilities and techniques, logistics. ELV 732 Solid-state lighting 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Photometry (quantities, units and definitions), light and vision (photopic, scotopic and mesopic), solid-state light sources, LED and OLED sources (luminous efficacy, rated life, thermal dependence, etc.), drive and control electronics for SSL (linear and on- linear dimming, thermal and light feed-back control, luminaire fundamentals and design, lighting design (CAD), specific lighting applications (task and ambient, indoor and outdoor, safety and security, automotive), SSL measurements (photometric, colorimetric, electrical and thermal). Cost-effective energy efficiency: principles and life cycle cost calculations. International standards and testing. ELX 311 Electrical machines 311 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EIR 211/221 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Magnetic circuits: flux, flux density, reluctance, hysteresis, MMF.Magnetic Energy, Conversion: Process, field energy, mechanical force in electromagnetic systems. Transformers: Types of transformers, per unit system, voltage regulation and efficiency, three phase circuit analysis. Principles of machines: Torque, speed, efficiency and heat loss, circuit models. Machines: Power transformers, DC motors, induction motors. EMA 780 Antenna theory 780 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Microwaves and antennas EMZ 320 or equivalent Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Types of antennas and radiation mechanisms, parameters of antennas, radiation integrals, near and far field radiation, duality theorem, wire antennas, antenna arrays, mutual coupling and mutual impedance, surface equivalence theorem, reaction theorem, moment methods in antenna analysis, travelling wave antennas, microstrip antennas, horn antennas, physical optics, reflector antennas, antenna synthesis. EMB 732 Multivariable control systems 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Introductory control course such as EBB 320 Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 122
- 129. Engineering 2014 Module content: Introduction to linear dynamic systems: Modes, stability, controllability, observability, multivariable poles and zeros, state-space and transfer function descriptions. Singular values and singular value decomposition. Feedback performance specifications in the frequency domain. Synthesis via state space methods. Optimal control techniques, model predictive control. EME 310 Electromagnetic compatibility 310 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction - electromagnetic spectrum, parameters of digital signals, circuit theory vs. microwave techniques; Transmission lines - lumped element model, transmission line equations, wave propagation, lossless lines, input impedance, short and open circuited and λ/4 lines, power flow, transients, S-parameters; Electrodynamic fields - plane waves, propagation in dielectrics and conductors, shields, Lenz’s law, Faraday’s law, Maxwell’s equations, transformers, storage fields vs. radiation fields, near and far fields, mechanisms of radiation; Static electric and magnetic fields – sources of fields, voltage, electrostatic induction, capacitance, electric and magnetic dipoles, permittivity, permeability, conductivity, magnetic materials, etc.; Non-ideal components – non-ideal resistor, - inductor, - capacitor, - wires, high-frequency measurements; Electromagnetic compatibility – spectrum of digital signals, interference, PCB layout, PCB shielding, grounding methods, power supply decoupling, ground loops, differential and common mode radiation, cable shielding. EME 732 Analogue electronic design 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Analogue electronic design EME 732 (E5), 3rd year Electronics or equivalent or permission from the lecturer Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: The integrated circuit (IC) or “chip” is the motor of the present electronic revolution. The ever-increasing impact of electronics is driven mainly by large-scale ICs such as processor and memory chips. The electronic circuit techniques used in these chips can only be understood on a deep level by a study of classical analogue electronics aimed at integrated circuit design for fabrication in CMOS, bipolar and BiCMOS processes. In addition, analog circuit techniques perform an essential role in the interfaces between the “real world” and digital systems. Examples are: voltage references, amplifiers, filters, level-converters, buffers. Important topics in this respect are feedback and stability theory as specialized for electronic circuits. The course includes: IC fabrication technology, models for IC transistors, transistor current sources and amplifiers, output stages, operational amplifiers, frequency response and stability of feedback amplifiers, nonlinear and computational circuits. EMK 310 Microprocessors 310 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ERS 220 GS, EIR 211/221 GS Contact time: 1 ppw 1 tpw 3 lpw 123
- 130. Engineering 2014 Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Hardware based introduction to system designing microprocessors. General microprocessor architecture assembly language and limited C embedded code development, with specific focus on a RISC (Microchip PIC 18) and MIPS (Microchip PIC 32) type processor, memory interfacing and address decoding, microprocessor input/output and interfacing, general programming concepts, general microprocessor system design principles, current trends and new processors exposure to development boards and integrated development environments. EMK 732 Communication electronics 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Introduction to radio communication systems, small signal amplifiers, multistage amplifiers, differential amplifiers, network noise, intermodulation distortion, noise factor and sensitivity, frequency selective networks, impedance matching, high frequency amplifiers, broadbanding techniques, AGC, oscillators, phase-locked loops, PLL applications, frequency synthesizers, power amplifiers, modulators and demodulators, frequency mixers. EMM 780 Microwave theory 780 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Microwaves and antennas EMZ 320 or equivalent Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Review of EM theory and transmission lines, analysis of transmission lines and waveguides, microwave network analysis, impedance matching, power dividers, couplers and hybrids, microwave filters. EMR 101 Introduction to laboratory measurements and computer simulations 101 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 4 Module content: This module is presented at the end of the first semester during the recess period and lasts for one week. This module serves as an introduction to measurement techniques and basic principles of a laboratory for electrical, electronic and computer engineering students. It also provides basic training in a computer simulation environment (Matlab, including Simulink) in the computer laboratories. The importance and complementary nature of simulations and accurate experimental measurements is emphasized in the module. EMS 310 Modulation systems 310 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ELI 220 Contact time: 1 ppw 1 tpw 3 lpw 124
- 131. Engineering 2014 Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Spectral analysis using the Fourier and Z-transforms. Transform identities. Convolution and correlation. Linear system theory. Analog and hybrid modulation systems: AM, PM, FM, PAM, PCM, Delta-modulation, PWM. Carrier synchronisation. Communication channels and transmission effects. Sampled Systems. Source digitisation (D/A conversion), quantisation noise. Introduction to information theory and source coding. Formatting and line codes. Spectral characteristics of random data signals. Introduction to digital modulation. Binary modulation techniques: PSK, FSK and ASK. Symbol synchronisation. PLL theory. Matched filter concepts. Analysis of digital modulation systems in AWGN. Simulation and practical implementation of simple digital communication building blocks and subsystems. The focus will be on analog modulation techniques as applied to radio communication systems. EMZ 310 Electromagnetism 310 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: WTW 238 GS, WTW 263 GS, EIR 211/221 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction - Waves and phasors, spectrum, complex numbers; Transmission Lines - Lumped element model, transmission line equations, wave propagation, lossless line, input impedance, short and open circuited, λ/4, etc.; power flow, Smith Chart, matching, transients; Vector Analysis - Basic laws, orthogonal coordinate systems, trans- formations, gradient, divergence, curl, Laplacian; Electrostatics - Maxwell’s equations, charge and current, laws of Coulomb and Gauss, scalar potential, properties of materials, conductors, dielectrics, boundary conditions, capacitance, electrostatic potential; Magnetostatics - Force and torque, Biot-Savart law, parallel conductors, Maxwell magnetostatcs, vector magnetic potential, magnetic properties, boundary conditions, inductance, magnetic energy. EMZ 320 Microwaves and antennas 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EMZ 310 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Maxwell - Faraday, time var field, transformer, stc, displacement, boundary cond, continuity, retarded potentials; Plane Wave Propagation - Timeharmonic fields, plane wave lossless media, polarization, lossy media, good conductor, power density; Wave reflection and Transmission - Normal incidence, snell, fibre optics, oblique incidence, reflection and transmission, Wave guides; Radiation and antennas - Short dipole, characteristics of ant’s, halfwave dipole, long dipole, eff area, Friis, Apertures, Arrays, Scanning; Sat Comm Syst and Radar Syst - Sat Comm, links, antenna beams, radar sensors, Doppler monopulse. 125
- 132. Engineering 2014 ENE 310 Analogue electronics 310 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ELI 220 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Amplifier concepts: gain, input impedance, output impedance, bandwidth, cascaded stages. Amplifier power dissipation and power efficiency. Operational amplifiers: non- ideal, limitations, low power, programmable. Diode operational circuits: Logarithmic amplifiers, peak detector, clamp, absolute value, voltage regulators. Feedback and stability in amplifiers. Operational circuits: Instrumentation amplifiers, multipliers, oscillators, filters, translinear circuits, and sampling electronics. ENE 410 Advanced electronics 410 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ENE 310 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Bipolar and Field Effect Transistor (FET) amplifier design: bias and frequency response of small signal loaded single stage, multistage, differential stage, and feedback amplifiers. Amplifier figure of merit parameters, including total harmonic distortion. Large signal power amplifiers. Communication electronics: RF component modelling, two-port models for RF networks, matching networks, small signal narrowband RF amplifiers, RF oscillators. ENO 732 Energy optimisation 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: In this module, a brief introduction about energy systems, energy system modelling and optimisation, and Matlab applications in energy optimisation problems are given. Practical industrial (as well as residential) energy management problems such as the load shifting for geysers, conveyor belts and pumping systems in terms of time-of-use tariff and/or maximum demand charge are covered. ENR 420 Energy systems 420 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: This module consists of four parts: Energy system basics, solar energy systems, energy system modelling and optimisation, and advanced applications of energy systems. The first part (energy system basics) will include basic power and energy calculation, electricity tariffs, energy efficiency and the energy audit. The third part, energy system modelling and optimisation includes the general modelling processes and optimisation basics, linear programming and Matlab applications in energy optimisation. The last part 126
- 133. Engineering 2014 on advanced applications of energy systems will be dynamically updated to cater for the national needs and international trends in energy efficiency and the topics covered can be energy management for any one or more of the commercial, industrial, residential or transport energy systems. EOD 732 Optical design 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Review of thin lenses, image formation and first-order properties of imaging systems, optical transfer functions, aberration theory, imaging systems: telescopes, microscopes, etc., optical design methodology. EOP 732 Detection and estimation 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Theory of bayesian inference ETB 732 Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Binary hypotheses, M hypothesis, decision criteria, performance. Estimation theory: Random parameters, Bayes estimation, multiple parameter estimation. Composite hypotheses. The general Gaussian problem. Performance bounds and approximations. Representations of random processes. Detection of signals-estimation of signal parameters, including detection in non-white noise, sufficient statistics. Signals with unwanted parameters, the composite hypothesis problem. EPE 321 Software engineering 321 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: COS 212 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Software engineering deals with the application of engineering principles to develop and maintain high-quality software that is reliable and that works efficiently. Software engineering includes defining software requirements and performing software design, software construction, software testing, and software maintenance tasks. The module exposes students to various methodologies in the different stages of the software life cycle, the problems of group work, and software configuration management with versioning systems such as CVS. The student is exposed to object modelling techniques and languages such as UML, as well as advanced debugging and testing techniques. EPR 400 Project 400 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EWE 320/ELO 320, Finalists only Contact time: 1 lpw Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 64 127
- 134. Engineering 2014 Module content: This module entails the individual completion of an engineering project from concept to delivery. The student must demonstrate independent mastery of an engineering project. The module focuses on the formulation of an engineering problem, the development of appropriate technical specifications, project planning and management and then completion of a technical project of a given nature, scope and complexity. The nature of projects is either mainly design (design, synthesis and testing) with a smaller component of investigation (experimental work and data analysis), or, alternatively, mainly investigation with a smaller component of design. As final step in the project, the student evaluates the final outcome of the design or investigation against the specifications and he/she also evaluates the impact of the project (social, legal, safety and environmental). Oral and written technical communication is evaluated as an important part of the module. EPR 402 Project 402 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ERD 320 Finalists only Contact time: 1 lpw Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 64 Module content: This module entails the individual completion of an engineering project from concept to delivery. The student must demonstrate independent mastery of an engineering project. The module focuses on the formulation of an engineering problem, the development of appropriate technical specifications, project planning and management and then completion of a technical project of a given nature, scope and complexity. The nature of projects is either mainly design (design, synthesis and testing) with a smaller component of investigation (experimental work and data analysis), or, alternatively, mainly investigation with a smaller component of design. As final step in the project, the student evaluates the final outcome of the design or investigation against the specifications and he/she also evaluates the impact of the project (social, legal, safety and environmental). Oral and written technical communication is evaluated as an important part of the module. EPR 890 Dissertation 890 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 EPT 732 Research project: Theory 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 32 Module content: This module will cover the essential theoretical background of the student’s proposed MEng topic and include inter alia the following: (i) Field definition and descriptions (ii) In-depth study into background and theory relevant to the problem to be addressed (iii) Problem definition and description (iv) Mathematical simulations of the problem 128
- 135. Engineering 2014 EPT 733 Research project: Design and laboratory 733 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 32 Module content: This module will include extensive laboratory experiments to test the principles and possible solutions of the proposed M Eng research project and will include inter alia the following. These will include hardware and/or software experiments: (i) Introduction to instrumentation and measuring techniques in general and specifically as applied in the field of research. (ii) Structured laboratory work to introduce the specific problem investigated for the research undertaken. (iii) Structured laboratory work to test the proposed solution for the problem addressed. (iv) Confirmation experiments. EPW 200 Practical wiring 200 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 36 opw Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 4 Module content: *Attendance module only This module is presented during one of the recess periods during the second year. The duration is one week. During this period the student will become acquainted with relevant regulations and legislation and basic aspects of wiring practice. For practical reasons this module may be presented during another time slot, such as the beginning of the third year. EPY 423 Practical training and report 423 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Four weeks practice-orientated experience at any institution of the student’s choice (preferably in electrical, electronic or computer engineering). The student must acquire experience in the working environment and more specifically work ethics, ecology, economy, punctuality, knowledge of human nature, etc. One week after the commencement of the second semester the student must submit a report on the aspects of his/her work experience as determined by the Head of the Department. ERC 732 New generation networks 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Computer Networks ERN780 or BEng (Computer Engineering) UP or equivalent. Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 129
- 136. Engineering 2014 Module content: The module in Next Generation Networks will cover evolution of communications networks towards multiservice networks and convergence. Topics be covered include the current PSTN architecture, convergence of enabling technologies, NGN architectures and APIs, softswitches, and modelling and simulation of multiservice networks. The main objective of the course is to prepare students for advanced research in next generation communications networks. ERD 320 Computer engineering design 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EMK 310 GS Contact time: 1 tpw 2 lpw 2 ppw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Electronic transducers. Circuit board layout: power circuit techniques, low noise techniques, high frequency techniques. Intellectual property law in South Africa. Design and implement a group project: technical specifications and interface specifications, systems engineering, Industry standards, architecture and engineering judgement, material procurement, documentation and configuration management, man/machine interfaces, packaging technology, ergonomics and aesthetics, complete design and construction of a system (including electromagnetic compatibility), design for manufacturing and maintainability, integration, production facilities and techniques, logistics. ERD 716 Introductory radiometry and photometry 716 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 16 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Credits: 16 (must be combined with Introduction to the Science of measurement to form a 32 credit module) Introduction to laboratory equipment, solar cell, imaging radiometry, spectral radiometry, atmospheric transmittance, wavelength calibration of a monochromator, photometric measurements, measurement of colour. ERI 890 Dissertation: Computer engineering 890 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 ERI 990 Thesis: Computer engineering 990 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Year Language of tuition: English Credits: 360 ERN 780 Computer networks 780 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 130
- 137. Engineering 2014 Module content: Review of computer networks infrastructure: The review will cover elementary concepts in computer networks; covering data communications, wide area networks, and local area networks. Networking protocols: This section will explore both the architectural principles and mechanisms required for the exchange of data among computers, workstations, servers, and other data processing devices. Much of the material in this part relates to the TCP/IP protocol suite. Recent developments and state-of-art issues will also be focused upon. Applications, service models and convergence of networks: This section will look at the application layer and explore various service models in the context of convergence. Students will be introduced to various Next Generation Networks technologies and issues. Modelling and simulation: This section will cover research issues in computer networks. Students will be introduced to modelling, simulation techniques and tools. ERP 420 Specialisation 420 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Specific niche areas from computer engineering are addressed. ERS 220 Digital systems 220 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to digital circuit design, digital representations of numbers, device electronics in digital circuits, representation and simplification of logic functions, components of combinational circuits, analysis and design of combinational circuits, components of sequential circuits, analysis and design of sequential circuits, programmable components for combinatorial and sequential logic. ERT 732 Advanced topics of energy research 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: The module focuses on the research training on supply side, energy transmission, and demand side. Some related research papers and our finished projects will be taught. Energy optimisation techniques will be trained throughout the module. The teaching material also includes some of our newest research projects so that students are getting involved in most advanced research progresses. The expected learning outcomes are: (i) ability to identify if a problem is important to be investigated; (ii) ability to search references for research problems; (iii) ability to use energy management tools to model a research problem; (iv) ability to identify suitable optimization algorithms for an optimization problem arising from an energy management mathematical model; (v) ability to write research reports. 131
- 138. Engineering 2014 ESC 320 Stochastic communications systems 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: WTW 258, WTW 256, WTW 238 and EMS 310 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Review of signal theory. Introduction to stochastic processes: stationarity and ergodicity. Noise models. Channel models and transmission effects. Comparison of analogue and digital modulation systems in noise. Signal space concepts and geometric representation of signals. Statistical communication theory: channel capacity theorem. Design and realisation of binary and multi-level digital modulation systems. Spectral efficiency. Optimal receiver design: matched filter (MF) and correlation-type receiver structures. Nyquist and partial-response (PR) systems. Digital transmission through bandlimited AWGN channels: inter-symbol-interference (ISI). Introduction to linear estimation: equaliser algorithms and design. Introduction to channel (error correction) coding: Symbol-by-symbol versus maximum likelihood sequence estimation (MLSE) techniques. Block and convolutional codes. The focus will be on applications in the cellular and mobile communication fields where stochastic processes such as noise and channel effects are of prime importance. ESD 732 Electro-optical systems design 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Introduction to electro-optical system design, optical radiometry and photometry, atmospheric effects, advanced radiometry, signatures and camouflage, performance analysis, electro-optical system analysis, spectral band considerations. ESP 300 DSP programming 300 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EPW 200 Contact time: 36 opw Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 4 Module content: This module will deal only with the practical aspects of DSP applications: Universal applications of DSP (Space, medical, commercial, telecommunications, military, industrial and scientific); ADC and DAC; Discrete Fourier-Transform (DFT); Fast Fourier-Transform (FFT); z-Transform; Correlation and Convolution; Digital filter design; FIR and IIR filters; Adaptive digital filters; Computer architecture for DSP; Analysis of finite wordlength effects; Data, audio and video processing and compression. Simulation (MATLAB) and real-time implementation of selected signal processing algorithms on DSP hardware. Programming and mapping of DSP algorithms onto DSP hardware. ESP 411 DSP programming and application 411 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: ESC 320GS or EDC 310GS Contact time: 1 ppw 1 tpw 3 lpw 132
- 139. Engineering 2014 Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Fourier-Transform: revise the Discrete Fourier-Transform (DFT); Fast Fourier-Transform (FFT). Digital filters; cyclic convolution; overlap-and-add as well as overlap-and-save methods; design of FIR- and IIR-filters (incorporating the effect of finite word lengths). Implementation: computer architecture and DSP processors; Mapping of DSP algorithms onto DSP hardware. Projects: simulation (in C) and real-time implementation of selected signal processing algorithms on DSP hardware. ESR 732 Digital radio techniques 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Digital communications ETD732 Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Analog vs digital radio techniques, review of baseband and bandpass sampling concepts, overview of DSP-principles, Z-Transform and digital filter design, digital modulation techniques and performance analysis, radio link power analysis and design, generic radio configurations, low noise amplifier and radio front-end design, high-speed A/D and D/A components and design, automatic gain (power) control, direct versus superheterodine downconversion methods, IF-sampling techniques, digital radio receiver design, analog vs digital (carrier and symbol) synchronisation methods, doppler tracking, analysis and design of diversity techniques, multiple-input/multiple output (multi antenna element) systems, space-time coding, modular embedded system design and rapid prototyping (RF, CMOS and FPGA implementation techniques and technologies), computer-aided design software, tools and techniques. ETA 732 Adaptive systems 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Digital communications ETD 732 Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Adaptive systems ETA732 covers the fundamentals of adaptive systems within the context of adaptive signal processing. The basic linear filtering problem with associated models and filter structures is introduced. Furthermore, the topics of stationary processes and models, spectrum analysis, eigen analysis, Wiener filters, linear prediction, Kalman filters, stochastic gradient methods and least squares methods are covered. Blind adaptive methods are presented within the context of the blind deconvolution problem. Lattice filter methods are covered as an extention to the basic topics of this course. Adaptive systems ETA 732 will supply the student with valuable tools for the solution of statistical detection and estimation problems in the diverse fields of communications, control, radar, sonar, seismology and biomedical engineering. ETD 732 Digital communications 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 133
- 140. Engineering 2014 Module content: Digital Communications ETD 732 is a first semester graduate course in Electronic Engineering, presented by the Signal Processing and Telecommunications Group, in collaboration with the Centre for Radio and Digital Communication (CRDC). The content of the course is as follows: Introduction to digital communications, digital communications applications and services. Review of: probability and stochastic processes, source coding, characterisation of communication signals and systems and optimum receivers for the AWGN channel. Advanced synchronisation systems: Carrier and symbol recovery. Shannon’s channel capacity theorem and introduction to coding. Signal design for band-limited channels. Digital modulation techniques. Communication through band-limited linear filter channels. Introduction to adaptive equalisation. Spread spectrum signals for digital communications. Simulation of digital communication systems. Digital realisation of digital communication subsystems. Digital communication laboratory. ETE 780 Electrical drives 780 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Undergraduate level Power electronics and Electric machines. Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Power semiconductor devices and power electronic converters for drive applications. Theory of three-phase induction motor and synchronous motor machines. Adjustable speed induction motor drives: open-loop and closed-loop control, scalar and vector control, transient analysis of induction motor drives and introduction to vector/field- oriented control. Adjustable speed synchronous motor drives: Open-loop and closed- loop control, self-controlled permanent magnet synchronous motor drives. Introduction to spiral vector theory and analysis. ETH 780 Information security 780 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Number theory: prime numbers, congruencies, modular arithmetic, Euclid’s algorithm, Fermat’s theorem, Euler’s theorem, Euler’s phi-function. Block ciphers: Feistel cipher, DES, AES. Public key cryptography: RSA, Diffie-Hellman, digital signatures. Hash functions: MD 5, SHA-1, MAC, HMAC. Protocols: identification, authentication, key exchange, X.509. PGP, S/MIME, IPSec, SSL, VPN. Authentication protocols, key distribution, key management, random number generation. ETK 732 Coding theory 732 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: Digital communications ETD 732 Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: The course ETK 780 Coding theory addresses the analysis and design of block, convolutional and concatenated coding schemes for mobile fading channels. 134
- 141. Engineering 2014 Information theory concepts, such as channel capacity and cutoff rates are addressed. Galois fields and mathematical operations are investigated. The construction of binary FIR and IIR convolutional codes, and non-binary dual-k convolutional codes are considered, followed by an in-depth discussion on the classic Viterbi algorithm. Binary block codes considered in this course include cyclic, Hamming and binary BCH block codes. Classic block code decoding algorithms, such as ML, syndrome and Meggit decoders are investigated. Non-binary Reed-Solomon block codes, as well as the Berlekamp-Massey decoding algorithm are presented. The Viterbi decoding of linear block codes, using BCJR trellises are investigated. The concept of coding for fading channels are considered, with the focus on aspects such as interleaving and employing channel state information in channel decoders. Classic concatenated coding schemes are considered. Iteratively decoded concatenated coding schemes, including iteratively decoded parallel, serial and hybrid concatenated coding and coded modulation are investigated. This includes an in-depth study of iteratively decoded concatenated coding scheme building blocks, such as puncturers, interleavers, recursive systematic convolutional codes and MAP decoders. Several promising fields of channel coding currently receiving much interest, such as multilevel coding, space-time coding and bit- interleaved coded modulation, are also considered. ETP 732 Topics in photonics 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: The purpose of the Topics in Photonics course is to create the opportunity for experts to give lectures on specialised topics in the field of photonics, thus providing students with the opportunity to capitalise on the specialised knowledge of experts that are not permanently affiliated to the University. ETR 732 Mobile communication 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Introduction to wireless, cellular, digital PCS mobile radio communication. Radio propagation and cellular engineering concepts. Digital MODulation-DEModulation (MODEM) techniques (cellular modulation standards). Error control coding for fading channels. Access technologies (FDMA, TDMA, CDMA, OFDMA, SDMA and hybrids). Spread-spectrum systems and concepts. Diversity techniques for mobile wireless radio systems. Cellular and wireless systems engineering (mobile cellular design). Adaptive equalisers for fading channels. ETT 732 Telecommunication systems engineering 732 Academic organisation: Electrical, Electronic and Computer Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Telecommunication systems engineering ETT 732 is a first semester graduate course in Electronic Engineering, presented by the Signals and Telecommunications Group. This 135
- 142. Engineering 2014 module provides an Introduction to telecommunication concepts, telecommunication systems, virtual private networks (VPN), advanced intelligent networks (AIN), local number portability (LNP), computer-to-telephony integration (CTI), signalling system 7 (SS7), CTI technologies and application, ISDN, frame relay, ATM, ATM and frame relay internetworking, data over power lines, xDSL, microwave and radio-based systems, local multipoint distribution services (LMDS), specialized mobile radio (SMR), cellular communication, GSM, personal communication services (PCS), wireless data communication (Mobile IP), satellite communication (Networking, LEO), Sonet and SDH, wave division multiplexing (WDM), the internet (TCP/IP, VoIP, networking, management). EWE 320 Electrical engineering design 320 Academic organisation: Electrical, Electronic and Computer Engineering Prerequisite: EIR 211/221 GS Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to system level design; the system design process; design for operational feasibility; power transformer design; power cable design; power capacitor design; protection system design; introduction to electrical design software; design project. GMI 210 Mineralogy 210 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 2 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Crystallography and internal order in minerals (space groups, unit cells, X-ray diffraction data). Bonding, mineral chemistry and solid solution (types of solid solution, calculation of mineral formulae and cation valency). Subsolidus reactions and defects in minerals (thermodynamic basis, defects, importance of subsolidus reactions). Classification and crystal structures of minerals. Mineralogical instrumentation and analysis. Major rock types and their classification. Mineralogical aspects of minerals processing. IAM 801 Engineering asset management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IBB 780 Asset Management 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: "Asset Management" may be defined as a life cycle process for creating, establishing, maintaining, operating, rehabilitating and divesting an asset in an optimal or balanced manner to satisfy the constraints imposed by economy, ergonomics, technical integrity and business performance. Within this definition, physical assets include equipment, infrastructure, and people. The 'holistic' view implied here recognises the wider range of disciplines required for strategic decisions and tactical management of physical assets. 136
- 143. Engineering 2014 Strategy and tactics depend on the asset, whereas people processes underpin the effective management of an asset. The overall objective for the physical Asset Management module is to provide an integrated understanding of the complimentary disciplines applicable to the management of engineered assets. The module will emphasise the synergy between specialist and cross-disciplinary skills and their respective roles with respect to the management of physical assets. The overall outcome for the learner will be awareness of the collaboration required and application off cross-disciplinary skills in technical, engineering, finance logistics, human communication, and other functions to achieve effective management of physical assets. IBD 780 Decision analysis and risk management 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IBI 801 Reliability engineering 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IEE 780 Technological entrepreneurship 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IGB 801 Engineering services management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IGB 802 Advanced engineering services management 802 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IGB 898 Mini-dissertation 898 Academic organisation: Engineering and Technology Management Period of presentation: Year Language of tuition: English Credits: 64 IGB 990 Thesis: Engineering management 990 Academic organisation: Engineering and Technology Management Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 137
- 144. Engineering 2014 IGL 703 Engineering geology 703 Academic organization: Geology Contact time: 20 contact hours Period of presentation: Year Language of tuition: English Credits: 16 Module content: Introduction to geology, SA stratigraphy and engineering geology, introduction to rock engineering, engineering geology in urban and regional development, dams, slopes and tunnels. IGL 704 Engineering geology 704 Academic organization: Geology Contact time: 10 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 IHR 801 Project human resource management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IIB 801 Maintenance management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IIM 801 Marketing management 801 Academic organisation: Engineering and Technology Management Contact time: 12 discussion classes Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 IIX 780 Engineering logistics 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IIX 801 Engineering logistics 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IKG 881 Technology commercialisation 881 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 138
- 145. Engineering 2014 IKK 780 Quality management 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 IKK 801 Quality management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IKN 780 Engineering economics 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 ILB 884 Information management 884 Academic organisation: Informatics Contact time: 14 lpw 2 wbppw 22 opw 6 dpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 ILC 803 Legal aspects of project management 803 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 ILE 780 Life cycle engineering 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 ILE 802 Life cycle management of SHE 802 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IMC 780 Maintenance management 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IMP 801 Project management practice 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 139
- 146. Engineering 2014 INI 781 Research methodology 781 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 INI 800 Research methodology 800 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 INV 780 Organisation and innovation 780 Academic organisation: Engineering and Technology Management Contact time: 16 lpw 22 opw Period of presentation: Semester 2 Language of tuition: English Credits: 16 IOE 801 New ventures and entrepreneurship 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 IPF 802 Project financial and cost management 802 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IPI 410 Engineering professionalism 410 Academic organisation: Engineering and Technology Management Contact time: 1 opw 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Requirements to maintain continued competence and to keep abreast of up-to date tools and techniques. ECSA code of conduct, Continuing Professional Development, ECSA outcomes, ECSA process and reasons for registration as CEng and PrEng. Displays understanding of the system of professional development. Accepts responsibility for own actions. Displays judgment in decision making during problem solving and design. Limits decision making to area of current competence. Reason about and make judgment on ethical aspects in case study context. Discerns boundaries of competence in problem solving and design. Case studies typical of engineering practice situations in which the graduate is likely to participate. IPJ 801 Project procurement management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 140
- 147. Engineering 2014 IPK 780 Project management 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IPK 803 Project management 803 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IPK 990 Thesis: Project management 990 Academic organisation: Engineering and Technology Management Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 IPM 801 Introduction to project management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IPP 801 Production and operations management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IQM 801 Project quality management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 IRI 801 Decision analysis and risk management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 IRM 801 Project risk management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 ISC 898 Mini-dissertation 898 Academic organisation: Engineering and Technology Management Period of presentation: Year Language of tuition: English Credits: 64 141
- 148. Engineering 2014 ISE 780 Systems engineering 780 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 ISE 801 Systems engineering and management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 ISE 802 Project systems engineering 802 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 ISM 801 Strategic management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 ISM 804 Strategic project management 804 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 ITB 801 Technology management 801 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 ITB 802 Technology management 802 Academic organisation: Engineering and Technology Management Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 ITB 890 Dissertation: Technology management 890 Academic organisation: Engineering and Technology Management Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 ITB 895 Dissertation 895 Academic organisation: Engineering and Technology Management Period of presentation: Year Language of tuition: English Credits: 128 142
- 149. Engineering 2014 ITB 990 Thesis: Technology management 990 Academic organisation: Engineering and Technology Management Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 IVV 781 Operations management 781 Academic organisation: Engineering and Technology Management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 JCP 203 Community-based project 203 Academic organisation: Informatics Contact time: 1 lpw Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 8 Module content: This module is integrated into all undergraduate academic programmes offered by the Faculty. Main objectives: execution of a community project aimed at achieving a beneficial impact on a section of society; awareness of personal, social and cultural values and an understanding of social issues; and development of life skills. Assessment: project proposal, written progress reports, peer assessment, assessment by community, presentation, report presented in the form of a blog. JPO 110 Professional orientation 110 Academic organisation: EBIT Dean's Office Prerequisite: Pass JPO 110. Conditional entry into JPO 120: JPO 110 mark between 45% and 49% Pass JPO 110 and JPO 120: Final combined mark for JPO 110 and JPO 120 at least 50% Contact time: 4 ppw 6 tpw Foundation Course Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: A project-based approach is followed towards the development of skills needed for success in engineering. Skills include communication, information technology, technology, academic and life skills. The modules are presented in English. JPO 111 Additional Chemistry 1 111 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 1 Language of tuition: Both Afrikaans and English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and chemical reasoning skills required by CHM 171/172. JPO 112 Additional electricity and electronics 112 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 1 Language of tuition: English Credits: 8 143
- 150. Engineering 2014 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by EBN 111/122. JPO 113 Additional graphical communication 113 Academic organisation: School of Engineering Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Background knowledge, conceptual understanding, drawing skills and reasoning skills required by MGC 110. JPO 114 Additional programming 1 114 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by COS 131. JPO 116 Additional mathematics 1 116 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and mathematical reasoning skills required by WTW 158. JPO 120 Professional orientation 120 Academic organisation: EBIT Dean's Office Prerequisite: Pass JPO 110. Conditional entry into JPO 120: JPO 110 mark between 45% and 49% Pass JPO 110 and JPO 120: Final combined mark for JPO 110 and JPO 120 at least 50% Contact time: 4 ppw 6 tpw Foundation Course Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: A project-based approach is followed towards the development of skills needed for success in engineering. Skills include communication, information technology, technology, academic and life skills. JPO 121 Additional Chemistry 2 121 Academic organisation: School of Engineering Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 2 Language of tuition: English Credits: 8 144
- 151. Engineering 2014 Module content: Background knowledge, problem-solving skills, conceptual understanding and chemical reasoning skills required by CHM 181 JPO 122 Additional Physics 122 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and physic reasoning skills required by FSK 116/176. JPO 123 Additional materials science 123 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 1 and 2 Language of tuition: Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by NMC 113/123 JPO 124 Additional programming 2 124 Academic organisation: School of Engineering Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by COS 110. JPO 125 Additional mechanics 125 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 2 Language of tuition: Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by SWK 122. JPO 126 Additional mathematics 2 126 Academic organisation: EBIT Dean's Office Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and mathematical reasoning skills required by WTW 161 and WTW 168. JPO 127 Additional computers 127 Academic organisation: School of Engineering Contact time: 1 lpw 3 tpw Foundation Course Period of presentation: Semester 2 145
- 152. Engineering 2014 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by COS 222 JPO 152 Additional Physics 152 Academic organisation: School of Engineering Contact time: 1 lpw 3 tpw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by FSK116/176. JPO 161 Additional Chemistry 1 161 Academic organisation: School of Engineering Contact time: 1 lpw 3 tpw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Background knowledge, problem-solving skills, conceptual understanding and reasoning skills required by CHM 171/172. KBS 803 Construction management 803 Academic organisation: Engineering and Technology management Contact time: 10 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 KBS 804 Construction management 804 Academic organisation: Engineering and Technology management Contact time: 20 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 KBS 805 Construction management 805 Academic organisation: Engineering and Technology management Contact time: 20 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 MAH 780 Fluid-structure interaction 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Design of structures subjected to fluid flow, i.e., high-rise buildings, chimney stacks, tube in heat exchangers, overhead power-line bundles, bridge piers, risers, pipe lines under sea, stays, masts, chemical-reaction towers, offshore platforms and aircraft components. 146
- 153. Engineering 2014 MAN 420 Porous flow 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Flow through porous media is relevant to applications such as internal combustion engines, thermal insulation engineering, electronics cooling, filtration, water movement in geothermal reservoirs, heat pipes, underground spreading of chemical waste, nuclear waste repository, geothermal engineering, grain storage, enhanced recovery of petroleum reservoirs and biological science. Introduction to the physical models used in the study of fluid flow and heat transfer in porous materials. Understanding of the transport mechanisms. MAN 780 Porous flow 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Transport through porous media has raised considerable attention in recent decades due to its relevance in a wide range of applications such as vehicle engines, thermal insulation engineering, electronics cooling, filtration, water movement in geothermal reservoirs, heat pipes, underground spreading of chemical waste, nuclear waste repository, geothermal engineering, grain storage, enhanced recovery of petroleum reservoirs and biological science. This module gives an introduction to the physical models used in the study of fluid flow and heat transfer in porous materials, and will give an understanding of the transport mechanism. MAY 780 Aircraft turbomachinery 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: History of the gas turbine, cycles and engine design, gas turbine cycles types, military and civil engines, advanced cycles, review 2D design, 3D design of turbomachines, wind turbine design, secondary flows, loss mechanisms, loss mitigation methods, cooling/heat transfer, cascades, rotating machines, intrusive and un-intrusive techniques, full scale testing, standards. MBA 780 Solar energy 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: In this module the different solar-thermal systems will be introduced and analysed with the heat transfer and thermodynamics principles that apply. The main focus will include; sun-earth geometrical relations, solar radiation, energy requirements in buildings, energy storage, heating and cooling processes, bulk solar thermal power generation systems, life cycle costing and large scale plant specifics and quantification. 147
- 154. Engineering 2014 MBB 410 Control systems 410 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MVR 320 GS Contact time: 2 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to control systems. Modelling of dynamic systems. Transfer functions. Block diagrams and block diagram algebra. Linearisation of non-linear systems. Disturbance signals. Steady-state accuracy. Control systems characteristics. Analysis of control systems using Laplace transformations. Root loci. Bode diagrams. Design of compensators using bode diagram and root locus design techniques. Controls laboratory. MBB 780 Control Systems 780 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: Working knowledge of MATLAB/OCTAVE Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction to state space methods, full state feedback design, disturbances and tracking systems, linear observers, compensator design by the separation principle, linear quadratic optimum control, Kalman filter, linear quadratic Gaussian compensator. MBT 780 Topology and shape optimisation 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: The topology optimisation method solves the basic engineering problem of distributing a limited amount of material in a design space. Material distribution methods, based on the use of mathematical programming and Numerical Schemes are used to determine the optimum architecture of a system and is used to identify possible shape and lay- outs of material. Applications of this optimisation method include optimisation of structural members, but can also be extended to flow and heat transfer optimisation. MCM 780 Composite materials 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Fundamental concepts of composite materials; manufacturing methods; design criteria of laminated composite materials; determining mechanical properties of composite materials: anisotropic elasticity and laminate theory, beams and columns of composite materials, plates and panels, transverse shear deformation effects, twisting and stretching shear coupling, composite shells; hygrothermal effects; strength and failure theories. 148
- 155. Engineering 2014 MEE 780 Finite element methods 780 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: A working knowledge of MATLAB/OCTAVE or FORTRAN77 Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Stress and the differential equilibrium equation. Isoparametric formulation. Numerical integration. Reduced integration. Convergence, stability and accuracy. The Patch test. Membrane elements: assumed stress mixed interpolations. 3-D elements. Error estimates and mesh refinement. Sensitivity analysis. MEE 781 Advanced finite element methods 781 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MEE 780 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Non-linear statics: Overview of non-linear effects: geometric, material and boundary conditions. Continuum mechanics: tensors, indicial notation, deformation gradients, stress and strain measures, transformations and rotations, stress-strain relationships, constitutive models. Principles of virtual work. Solution methods: direct iteration, Newton methods, incremental/iterative procedures. Lagrange engineering strains. Large displacement finite element analysis of continua: total Lagrangian formulation. Small strain plasticity: Additive decomposition, flow rule, hardening laws, continuum and consistent tangents. MEG 421 Mechatronics 421 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Sensors: limit switches, encoders, thermocouples, strain gauges, CCD cameras, various sensors. Actuators: electric motors, pneumatic and hydraulic actuators, shape memory alloys. Signal conditioning: component interconnection, amplifiers, analogue filters, modulators and demodulators, analogue-digital conversion, sample-and-hold circuitry, multiplexers, software and hardware implementation of digital filters and Wheatstone bridge. Control: H-Bridge and PWM motor control, stepper motors, non- linear control of hydraulic and pneumatic actuators, PLCs, SCADA systems, industrial Fieldbus, micro-processor control. MEG 780 Mechatronics 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 13 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Sensors: mechanical and optical limit switches, encoders, thermocouples, strain gauges, CCD cameras, IR sensors, piezo-electric sensors, capacitive sensors, torque sensors, tactile sensors, gyroscope and ultrasonic sensors. Actuators: DC motors, 149
- 156. Engineering 2014 stepper motors, AC motors, pneumatic actuators, hydraulic actuators, memory shape alloys. Signal conditioning: component interconnection, amplifiers, analogue filters, modulators and demodulators, analogue-digital conversion, sample-and-hold circuitry, multiplexers, software and hardware implementation of digital filters and Wheatstone bridge. Control: H-Bridge motor control, PWM motor control, control of stepper motors, non-linear control of hydraulic and pneumatic actuators, PLCs, SCADA systems, industrial Fieldbus, micro-processor control. MEV 781 Vibration-based condition monitoring 781 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: Working knowledge of MATLAB/OCTAVE Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Vibration measurement: conventional and optical technique, digital signal processing in vibrations, vibration monitoring: diagnostics and prognostics, artificial intelligence in vibration monitoring, human vibration. MGC 110 Graphical communication 110 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 3 lpw 3 tpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Freehand sketching covering the following: perspective, isometric and orthographic drawings. Drawing conventions, graphical techniques and assembly drawings. Evaluation of drawings and error detection. True lengths of lines, projections and intersections. Practical applications of these techniques. Introduction to computer-aided drawings, including dimensioning, crosshatching and detailing. Introduction to basic manufacturing processes including primary (casting, forging and extrusion) and secondary (drilling, turning, milling, grinding, broaching and sawing) manufacturing procedures. MHM 420 Heat and mass transfer 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Convectiocorrelations; convection, evaporation and boiling; thermal radiation. Heat exchangers: types, regenerators and design. Mass transfer: Fick’s Law, mass diffusion, mass convection, simultaneous heat and mass transfer, porous catalysts. High mass transfer rate theory. Mass exchangers. MHM 780 Advanced heat and mass transfer 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 150
- 157. Engineering 2014 Module content: Convection correlations: high speed flows, boundary layers, similarity, conservation equations, scale analysis. Thermal radiation: physics, exchange between surfaces, solar, directional characteristics, spectral characteristics, radiation through gasses. Convection, evaporation and boiling: film condensation, film evaporation, pool boiling, forced-convection boiling and condensation, flow regime maps, phase change at low pressures, heatpipes. Heat exchangers: types, regenerators, heat exchanger design. Mass transfer: Fick’s Law, mass diffusion, mass convection, simultaneous heat and mass transfer, porous catalysts. High mass transfer rate theory. Mass exchangers. MIA 320 Impact of engineering activity and group work 320 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 opw 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Two exit learning outcomes (ELO) of ECSA are addressed and each must be passed in the same semester. ELO7: Demonstrate critical awareness of the impact of engineering activity on the social, industrial and physical environment. The history of engineering globally and in South Africa. Most important engineering projects globally and in South Africa. The impact of technology on society. Occupational and public health and safety. Occupational Health and Safety Act. Impacts on the physical environment. The personal, social, cultural values and requirements of those affected by engineering activity. The combination of social, workplace (industrial) and physical environmental factors are appropriate to the discipline of the qualification. ELO8: Demonstrate competence to work effectively on a small project as an individual, in teams and in multidisciplinary environments. Identifies and focuses on objectives. Works strategically. Executes tasks effectively. Delivers completed work on time. Effective team work: Makes individual contribution to team activity; performs critical functions; enhances work of fellow team members; benefits from support of team members; communicates effectively with team members; delivers completed work on time. Multidisciplinary work by the following: Acquires a working knowledge of co-workers’ discipline; uses a systems engineering approach; communicates across disciplinary boundaries. Report and presentation on team project. Tasks require co-operation across at least one disciplinary boundary. Students acquire a working knowledge of co-workers discipline. Students communicate between disciplinary boundaries. MIC 780 Condition-based maintenance 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Theory and practical applications of condition based maintenance techniques. Pitfalls of the various condition based maintenance techniques. Acoustic emission, wear debris monitoring, oil analysis, thermography and non-destructive testing. MII 420 Maintenance engineering 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 151
- 158. Engineering 2014 Module content: Introduction: Definition and objectives, statistical concepts. Mathematics of failure: Reliability concepts, fitting distribution to failure data. Maintenance management: Investment decisions, maintenance profit impact. Maintenance structure: Preventive, time based, condition based, corrective, design out. Data analysis: Renewable, repairable systems, Laplace trend test, analysis methodology. Optimizing maintenance strategies: Replacement/overhaul age, inspection frequencies, capital replacement, simulation. Reliability-Centred Maintenance (RCM). Maintenance systems: Components, structure, computer methods. Tribology: Friction laws, lubrication theory, contamination control. Maintenance Practice: Systems approach, management approach, modelling. MII 781 Reliability-based maintenance 781 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MIR 781 Reliability engineering 781 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Component reliability: Weibull analysis, Limitations of Weibull analysis – when not to use it. System reliability and availability: reliability/availability modelling, the availability block diagram (ABD), Cut sets, capacity constraints, m-out-of-n systems and storage capacity, Fault trees, Failure modes, Effects and criticality analysis (FMECA). Failure and repair rate data: Reliability engineering’s red herring: “We don’t have the data”, Some data banks that are in fact useful, Data synthesis: the method of paired comparisons, Paper on The use of NERC-GADS data in determining standards for system design, Case study in and exercise in data synthesis. MIN 990 Thesis: Metallurgical engineering 990 Academic organisation: Materials Science and Metallurgical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 MIP 780 Maintenance practice 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Failure characteristics and analysis. Maintenance economics – Budgeting and cost control. Life cycle partnering and maintenance contracting. Legal aspects and case study. Performance measurement and benchmarking. Maintenance programming – Network analysis. Variability analysis. Maintenance strategy, plan, and protocol design – a new look at RCM. Maintenance tactic selection techniques. Introduction to condition-based maintenance. Tribology and contamination control presented with case studies. Maintenance Maturity Indexing and Variable Relationships development. MIP 781 Maintenance practice 781 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MIP 780 Maintenance practice 780 (recommended) Contact time: 21 contact hours per semester Period of presentation: Semester 2 152
- 159. Engineering 2014 Language of tuition: English Credits: 16 Module content: Maintenance process modelling and configuration management. Maintenance audit systems. Systems thinking and complexity analysis as applied to the maintenance environment. Risk analysis. “Fit” analysis. Management information systems. CMMS and implementation. Maintenance Finance and Cost types. Project selection techniques. Employee competence analysis and motivation of maintenance workers. Work priority modelling. MIP 782 Maintenance logistics 782 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction to Logistics, RAM (Reliability, Maintainability, and Availability), Measures of Logistics, Inventory Systems, Systems Engineering and Supportability Analysis: Systems Engineering Process, Supportability Analysis, Aspects of Logistical Design: Logistics in the Design and Development Phase, Just-in-Time Systems, Facility Layout, Job Design and Work Measurement, Logistics from the Development to the Retirement Phase: Logistics in the Production/Construction Phase, Logistics in the Utilisation and Support Phase, Planning and Scheduling: Forecasting, Planning, Maintenance Scheduling, Project Management, Theory of Constraints, Logistics Management: Quality Management, Supply Chain Management, Logistics Management. MIP 783 Maintenance operations 783 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Understanding the Maintenance Function: Maintenance Models, Maintenance Profit Impact, Maintenance Reliability Centredness, Strategic Fundamentals, Building a Business Case for Maintenance, Maintenance Management Systems: Philosophies, System Structure, Database Structure, Maintenance Administration, Work/Cost/Materials Control, Maintenance Cost Management: Maintenance Cost Strategies, Maintenance Budgeting, Maintenance Cost Analysis, Total Productive Maintenance: History, Benefits, Structure, Implementation, Strategic Thinking in Maintenance: Principles, The role of a Maintenance Policy, Measurement, Quality in Maintenance: Quality Principles, Total Quality Management, Maintenance Application, Maintenance Risk: Risk Calculation, Macro Risk Management, Micro Risk Management, World Class Maintenance: Definitions, Methods to achieve WCM. MIR 781 Reliability engineering 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction to probabilistic distributions, computation of system reliability, building reliability models and optimisation of system reliability; Fault Tree Analysis; Failure Modes, Effects and Criticality Analysis (FMECA), Monte Carlo Simulation; probability- based design. 153
- 160. Engineering 2014 MIR 890 Dissertation: Mechanical engineering 890 Academic organisation: Mechanical and Aeronautical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 MIR 891 Dissertation 891 Academic organisation: Mechanical and Aeronautical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 MIR 990 Thesis: Mechanical engineering 990 Academic organisation: Mechanical and Aeronautical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 MIR 998 Thesis: Mechanics 998 Academic organisation: Mechanical and Aeronautical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 MIT 780 Tribology 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 10 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Friction – Theory and laws of friction, friction behaviour of different materials. Lubrication and theory, hydrodynamic lubrication, elastohydrodynamic lubrication, boundary lubrication. Lubricants – wear – wear theory, wear mechanisms, particle properties. Surface modification and coverings, filtration, choice of filtration limits. Design and wear – determining wear rates, role of operational parameters, choice, role and effect of material choice, lubrication techniques. Tribological aspects of: bearing design, gear design, design of sliding elements. MJJ 210 Professional and technical communication 210 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 2 lpw 2 opw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Communicate effectively, both orally and in writing, with engineering audiences and the community at large. Written communication as evidenced by: uses appropriate structure, use of modern or electronic communication methods; style and language for purpose and audience; uses effective graphical support; applies methods of providing information for use by others involved in engineering activity; meets the requirements of the target audience. Effective oral communication as evidenced by appropriate structure, style and language; appropriate visual materials; delivers fluently; meets the requirements of the intended audience. Audiences range from engineering peers, management and lay persons, using appropriate academic or professional discourse. Typed reports range from short (300-1 000 word plus tables diagrams) to long (10 000- 15 000 words plus tables, diagrams, references and appendices), covering material at exit level. Methods of providing information include the conventional methods of the 154
- 161. Engineering 2014 discipline, for example engineering drawings, as well as subject-specific methods. Plagiarism policies and their implications. MKI 420 Nuclear engineering 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 dpw 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Basic nuclear physics: definitions and concepts (nuclear reaction, binding energy, cross-sections, moderator, reflector, etc.). Basic reactor physics: diffusion equation and boundary equations, group-diffusion methods, reactor kinetics. Reactor types: pressurised water reactors, boiling water reactors, gas-cooled reactors. Nuclear fuel cycle (including waste disposal). Reactor materials: fuels, moderators, coolants, reflectors, structures, systems or components. Reactor safety: biological effects of radiation, radiation shielding, principles of nuclear plant safety, also with reference to meteorology. Accidents. MKM 321 Continuum and computational structural mechanics 321 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: (MSY 310) Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to continuum mechanics. The continuum concept. Essential mathematical background. Einstein's summation convention. Kinematics of deformation and the strain tensor. Lagrangian and Eulerian descriptions. The stress tensor and equilibrium equations. Hooke's law for isotropic media. Boundary Value Problem formulation. Application of continuum mechanics to linear elasticity. Weak form of the Boundary Value Problem. Finite element method in structural mechanics. Applicability and limitations of the finite element method. Critical interpretation of results from commercial software. MKM 411 Computational fluid dynamics 411 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MTV 310 Contact time: 1 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction to continuum mechanics, continuity equation, momentum equation, Navier- Stokes equation, energy equation, boundary conditions in thermal fluid systems, finite difference method, introduction to finite volume method (FVM), FVM for diffusion problems, FVM for convection-diffusion problems, introduction to pressure-velocity coupling in FVM. SIMPLE algorithm, selecting and assessing the applicability and limitations of the method, properly applying the method with commercial software, critically testing and assessing the end-results. MLD 780 Aerodynamics 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 155
- 162. Engineering 2014 Language of tuition: English Credits: 16 Module content: Panel methods, Green's identity, different 2-D panel methods, airfoil design and analysis, 3-D vortex systems, vortex lattice methods for 3-D potential flow, boundary layer methods, theory of boundary layers, some finite difference methods, separation, computer methods, compressible potential flow, Mach waves and shock waves, Prandtl Glauert equations, subsonic, supersonic and transonic flow on thin airfoils, finite difference methods applied to small perturbation equation. MLG 780 Gas dynamics 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Fundamentals of compressible flow, one dimensional flow, oblique shock and expansion waves, quasi-one-dimensional flow, differential conservation equations for invicid flows, unsteady wave motion, linearised flow, conical flow, 3D flow, transonic flow, hypersonic flow. MLR 780 Air conditioning and refrigeration 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Comfort and indoor air quality. Psychometrics. System types and selection. Cooling and heating load calculations: conduction, radiation, convection, internal loads and thermal storage. Design of air handling unit, ducts, plant and reticulation. Control systems. Introduction to integrated system simulation. MLT 780 Aeronautical structures 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Review of the stress, displacement and thermal analysis of structures. Structural analysis for static and dynamic loads: aerodynamic, pressure, landing and thermal. A study of the characteristics of flight vehicle materials and the design of fuselages/wings with reference to component manufacturing techniques. MLV 420 Aeronautics 420 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MTV 310 Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to aerodynamics and aeronautics. Fundamental physical quantities of flowing gas. Equations of state. Anatomy of an airplane. Atmospheriology. Basic aerodynamics. Elementary compressible flow. The Kutta-Joukowski Theorem. 156
- 163. Engineering 2014 Introduction to viscous flow. Laminar and Turbulent Boundary Layers. Skin friction. Transition Flow Separation. Airfoil nomenclature. Lift, drag and moment coefficients. Pressure coefficients. Airfoil data. Wing properties. Circulation, downwash, and induced drag. Span efficiency. Stall. High-lift devices. Drag. Propeller theory. Elements of airplane and flight performance. Range, endurance and payload. Principles of static stability and control. MLV 780 Flight mechanics 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Drag: friction, pressure, induced, interference, cooling, trim, drag estimation and reduction, piston engines, propellers, gas turbines, turbojet, turboprop and turbofan engines, propfan engines, aircraft performance, take off, climb, level flight, range, flight and manoeuvre envelopes, landing, energy methods, static stability and control: stick fixed, stick free, lateral stability and control, dihedral effect, coupling, dynamic longitudinal stability, short period oscillations, phugoid oscillations, dynamic damping, flight characteristics. MLW 780 Aircraft design 780 Academic organisation: Mechanical and Aeronautical Engineering Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Conceptual aircraft design, the design process, sizing, airfoil and geometry considerations, thrust and wing loading, configuration layout and loft, crew and passenger considerations, propulsion, landing gear, aerodynamics, structures, weights, stability and control, performance, cost analysis, trade off studies, design proposals. MOI 781 Structural control 781 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MBB 780 Control systems 780 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Application of control techniques in order to actively control the dynamics of structures like beams and plates; pole placement technique, PID control, optimal control, feed- back control and feed-forward control; using tools like SIMULINK that can be used to simulate active control. MOO 420 Optimum design 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to elements of computer-aided design. Formulation of the optimum design problem. Concepts used in optimum design. Linear and integer programming methods. Numerical methods used for unconstrained and constrained optimum design. Model reduction techniques. Application to interactive and practical design optimisation. 157
- 164. Engineering 2014 MOO 780 Optimum design 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to design and elements of computer aided design. Optimum design problem formulation. Optimum design concepts. Linear programming methods. Integer programming. Numerical methods for unconstrained and constrained optimum design. Model reduction. Interactive and practical design optimisation. MOW 217 Manufacturing and design 217 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MGC 110 and SWK 122 Contact time: 3 lpw 4 tpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to design, economic implication, choice of materials, systems and safety factors, specifications, life cycle concepts. Friction, wear, thin film lubrication, plain bearings - theory and mounting, Rolling elements bearings, mounting of bearings, seals and applications. Surface finish, machining symbols, tolerances, limits and fits, Fastening methods. Shaft couplings, cam and crank shafts. Solid modelling. Introduction to strength of materials. Normal and shear stress. Shear force and bending moment diagrams. Transformation of stress/mohr circle. Hookes law and Poisson's ratio. Failure theories, Torsion and bending of beams. Buckling. MOW 227 Machine design 227 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MOW 217 Contact time: 3 lpw 4 tpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Machine elements to be covered includes: Clutches and brakes, gear drives, chain drives, belt drives, governors, screw drives, flywheels, hooke joints, mechanisms. The theory of machines as well as design aspects will be covered. The design of castings. The following strength of material aspects to be covered in the module: Stress concentrations. Static calculation of shafts. Fatigue. Bolted connections, Weld design. MOW 312 Machine design 312 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MOW 227 Contact time: 3 lpw 3 tpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: The following sections of the Occupational Health and Safety Act and codes will be covered: Pressure vessels, design of ropes and lifting systems. The design of gears and gear systems, springs and cams. The strength calculations including contact stresses as well general design will be covered. Tribology including lubrication and hydrodynamic bearings Ergonomics, Costing of design and related projects including testing as part of the design process. Welding processes. 158
- 165. Engineering 2014 MOW 323 Machine design 323 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: (MOW 312) Contact time: 3 lpw 5 tpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Systems engineering applied within design like functional analysis, maintenance concept. Development of a small product. This part of the module is done in group context and the deliverable is a prototype of the product as well as a complete report. Steel structures, applications and codes also incorporating finite element analysis. MOX 410 Design project 410 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MOW 312 GS and MOW 323 GS Contact time: 8 tpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: A comprehensive design in order to cover all the design aspects of functionality, analysis, ability to integrate, manufacturability and maintainability. Cost and reliability are included as inclusive factors. MOX 780 Design 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: The objective of the module is to enable the engineer to plan and control design and development projects. System engineering. All aspects, from the concept phase to phasing out of the projects as well as supporting theory are covered. Technology forecasting: explanation and application. Project viability studies: explanation and application. Applicable practicals and assignments are used to equip the student to apply the theory. Student’s conducting a techno-economic study is used to integrate the different aspects of the subject. MOX 781 Specialised design 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module allows the Head of the Department of Mechanical and Aeronautical Engineering to arrange a short course on a specialized nature in mechanical or aeronautical engineering, typically (but not limited to) a course presented by a visiting academic. The total volume of work that is to be invested in this module by an average student must be 160 hours. The body of knowledge studied must be of a specialized and advanced nature, at the level of the other postgraduate modules offered by the Department. 159
- 166. Engineering 2014 MOX 782 Specialised design 782 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module allows the Head of the Department of Mechanical and Aeronautical Engineering to arrange a short course on a specialized nature in mechanical or aeronautical engineering, typically (but not limited to) a course presented by a visiting academic. The total volume of work that is to be invested in this module by an average student must be 160 hours. The body of knowledge studied must be of a specialized and advanced nature, at the level of the other postgraduate modules offered by the Department. MPR 213 Programming and information technology 213 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 4 lpw 4 ppw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 18 Module content: Advanced spreadsheet applications: Named ranges, linear algebra, solution of systems of equations, regression, interpolation, optimisation and table manipulation. Basic structured programming: Looping, branching, subroutines, iteration, reading and writing data files. Development, coding and debugging of simple programs in a high level programming language. Programming principles are illustrated via mathematical concepts such as limits, differentiation, integration and linear algebra. Structured programming by making use of functions and available toolboxes. Basic graphical output (plotting is also covered). Different information resources, searching and management of information. Use of databases. Development of webpages. Hardware interaction and control of equipment and systems. MPY 315 Practical training 315 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Prescribed practical training in industry during or at end of second year. Aim is exposure to engineering equipment and processes, working environment of craftsmen and personnel relations. Duration at least six weeks. Perform case study on personnel management and submit together with a satisfactory report on the practical training, to the Faculty Administration within one week of registration. Attend two (2) industry visits in the first semester and two (2) industry visits in the second semester. Attend at least six (6) guest lectures through the year. MPY 415 Practical training 415 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 160
- 167. Engineering 2014 Module content: During or at the end of the third year of study, students in Mechanical Engineering undergo prescribed practical training in the industry. The purpose is the execution of small projects on engineering assistant level with exposure to the various relevant functions in the organisation. The duration is at least six weeks. A case study on occupational health and safety must be done in this period and submitted to the department together with a satisfactory report on the practical training within one week of registration. Students must also attend two (2) industry visits in the first semester and two (2) industry visits in the second semester as well as attend at least six (6) guest lectures through the year. MSA 780 Smart materials 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 10 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 MSC 412 Research project 412 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: Finalists only Contact time: 8 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: The module involves the management of the execution of a project that produces knowledge and understanding of a phenomenon, conclusions and a recommended course of action. The project is undertaken under the supervision of a staff member with the student ultimately taking responsibility for the management of and execution of the project. The student should be able to demonstrate competence in designing and conducting investigations and experiments and adherence to well defined time-lines and work breakdown structures. An acceptable process consists of but is not restricted to: (a) planning and conducting of investigations and experiments; (b) conducting of a literature search and critically evaluating material. The student should be able to demonstrate competence in engaging in independent learning through well-developed skills by: (a) reflecting on own learning and determining learning requirements and strategies; (b) sourcing and evaluating information; (c) determining learning requirements and strategies; (d) accessing, comprehending and applying knowledge acquired outside formal instruction; (e) critically challenging assumptions and embracing new thinking as well as communicating progress on a regular basis. MSC 422 Research project 422 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: Finalists only, MSC 412 Contact time: 12 opw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 24 Module content: Module content: The module involves the management of the execution of a project that produces knowledge and understanding of a phenomenon, conclusions and a recommended course of action. The project is undertaken under the supervision of a staff member with the student ultimately taking responsibility for the management of and execution of the project. This module follows onto MSC 412 and deals with the same 161
- 168. Engineering 2014 topic in the same year. The student should be able to demonstrate competence in designing and conducting investigations and experiments and adherence to well defined time-lines and work breakdown structures. An acceptable process consists of but is not restricted to: (a) understanding of the stated problem, (b) developing a work breakdown structure, (c) performing the necessary analyses; (d) selecting and using appropriate equipment or software; (e) construction and instrumentation of an experimental set-up; (f) taking measurements; (g) analysing, interpreting and deriving information from data; (h) drawing conclusions based on evidence; (i) communicating the purpose, process and outcomes in a technical report, presentation and poster. MSD 210 Dynamics 210 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: FSK 116 or FSK 176 and SWK 122 and WTW 256 # Contact time: 2 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Kinetics of systems of particles, Newton’s 2nd law generalised for a system of particles, rate of change of momentum and angular momentum relations, work-energy relations, conservation laws, steady mass flow. Plane kinematics of rigid bodies, rotation, translation, general 2D motion, relative motion analysis. Moments and products of inertia. Plane kinetics of rigid bodies, equations of motion, rotation, translation, general 2D motion, work-energy relations. Vibration and time response. MSE 780 Theory of elasticity 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Mechanics of elastic deformable bodies, based on the fundamental concepts of modern continuum mechanics: kinematics, balance laws, constitutive equations; classical small- deformation theory; formulation of boundary-value problems of linear elastostatics; plane problem of elastostatics; variational formulations, minimum principles. MSF 780 Fracture mechanics 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Historical development; Linear Elastic Fracture Mechanics (LEFM): Stress concentrations and singularities, stress intensity factor, stability of crack propagation; Elasto-plastic fracture mechanics: crack tip plasticity, small scale yielding, measurement of Kic, J-integral; Fatigue crack growth: Paris Law; life prediction; combined mode fracture, strain energy density methods. MSM 780 Numerical thermoflow 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 162
- 169. Engineering 2014 Module content: Fluid Mechanics refresher (governing equations, boundary conditions, application of inviscid, laminar and turbulent flow). Methods of weighted residuals (finite element, finite volume and difference methods). Mesh generation and boundary conditions: Types of mesh structured and unstructured mesh generation and application (inviscid flow, heat conduction etc.). Heat conductions: Governing equations, discretisation, finite approximation, solution methods (Gauss-Seidel, Tri-diagonal matrix algorithm) etc. This module is suited to postgraduate students doing research in thermofluids and who wants to use available CFD codes or who wants to write their own codes to solve fluid mechanics, heat and mass transfer problems. MSM 781 Numerical thermoflow 781 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MSM 780 Numerical thermoflow 780 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: The Efficient Solvers: Background, muligrid theory and detailed description of the algorithm. Finite Volume method: Understand the governing equations, general form of the transport equations, Gauss's theorem and the finite volume discretisation. Iterative solution algorithm: Pressure-velocity coupling, types of grids, unsteady flows, multiple phases. Finite Volume Discretisation: Diffusion term, convection term and source term for steady flows. Convection-diffusion problems: Boundary conditions, higher order discretisation, accuracy / stability. Solution Algorithm for Pressure-Velocity coupling: SIMPLE, SIMPLER, SIMPLEC and PISO. Laminar, transitional and turbulent flow: Background and theory. Turbulence modelling and examples: Definition of turbulence, turbulence modelling approaches, turbulence models ( zero-equation models, one equation, two equation, Reynolds Stress Model (RSM), Large Eddy Simulation, wall function approach), turbulence modelling guidelines. Recent CS developments: Current state of the art in turbulence modelling etc. Viscous boundary meshes: Background and objectives, internal and external flow, turbulence modelling considerations. MSS 781 Independent study 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 MSS 782 Independent study 782 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module allows a student to study a certain body of knowledge in mechanical or aeronautical engineering, as specified by a lecturer in the Department of Mechanical and Aeronautical Engineering, on an individual basis, under the supervision of that lecturer. The total volume of work that is to be invested in this module by an average student must be 160 hours. The body of knowledge studied must be of an advanced nature, at the level of the other postgraduate modules offered by the Department. Normal requirements for assessment that include the use of an external examiner apply to this module also. 163
- 170. Engineering 2014 MSV 780 Fatigue 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Fatigue principles addressing both elasticity and plasticity; notch effects; variable amplitude loading conditions; multi-axial fatigue and weld fatigue. MSX 780 Fluid mechanics 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Mathematical preliminaries: historical overview, scalar, vector and tensor algebra (in context of partial differential equations), Green's lemma and the Divergence theorem, Eularian/Lagrangian representations, derivative of a function, Reynolds transport theorem. Governing equations: viscous compressible and incompressible flow, derivation of conservation of mass, derivation of conservation of momentum, boundary conditions, mathematical characteristics, non-dimensionalisation. Viscous compressible and incompressible flow: derivation of conservation of mass, derivation of conservation of momentum, boundary conditions, mathematical characteristics, non- dimensionalisation. MSX 781 Advanced fluid mechanics 781 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MSX 780 Fluid mechanics 780 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Exact solutions: potential flow, Couette flow, Poiseuille flow and combined Couette- Poiseuille flow, laminar boundary layers (similarity solutions for flat plate flow). Stability of laminar flows: introduction, linearised stability, transition to turbulence, approximate prediction of transition. Turbulent flow: Reynolds averaged equations, two-dimensional turbulent-boundary-layer equations, velocity profiles, turbulent flow in ducts, flat plate flow, turbulence modelling. MSY 310 Structural mechanics 310 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MOW 217, WTW 256 Contact time: 1 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Asymmetrical bending. Energy methods: elastic strain energy, virtual work, bending deflection of beams. Buckling: characteristics for real struts, eccentric loading, initial curvature, combined loading. Experimental strain measurement: rosette strain, types of strain guages and application. Yield criteria for ductile and brittle materials; stress concentration. Application of equilibrium and strain-displacement relationships: beams and thick-walled cylinder. Linear elastic fracture mechanics, stress intensity factor and 164
- 171. Engineering 2014 modes of crack tip deformation. Fatigue: stress cycles, Paris equation, damage, “rainflow” counting and weld fatigue. MSY 732 Structural mechanics 732 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 42 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 MSY 781 Specialised structural mechanics 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module allows the Head of the Department of Mechanical and Aeronautical Engineering to arrange a short course on a specialized nature in mechanical or aeronautical engineering, typically (but not limited to) a course presented by a visiting academic. The total volume of work that is to be invested in this module by an average student must be 160 hours. The body of knowledge studied must be of a specialized and advanced nature, at the level of the other postgraduate modules offered by the Department. MSY 782 Specialised structural mechanics 782 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module allows the Head of the Department of Mechanical and Aeronautical Engineering to arrange a short course on a specialized nature in mechanical or aeronautical engineering, typically (but not limited to) a course presented by a visiting academic. The total volume of work that is to be invested in this module by an average student must be 160 hours. The body of knowledge studied must be of a specialized and advanced nature, at the level of the other postgraduate modules offered by the Department. MSY 783 Experimental structural dynamics 783 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: A working knowledge of MATLAB/OCTAVE Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Spatial, modal and response models of structures, frequency response functions and the relationships between spatial, modal and response models for single degree of freedom systems and multi-degree of freedom systems, modal analysis, operational modal analysis, updating finite element models. 165
- 172. Engineering 2014 MTV 310 Thermofluids 310 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction: Liquids and gases, pressure, viscosity, temperature, heat. Introduction to Navier-Stokes and continuity equations. Definitions and properties of fluids, fluid statics, fluid dynamics, Bernoulli equations. Flow measurements. Dimensional analysis: force, drag, Reynolds number, force coefficient, power. Flow in pipes and channels: friction coefficients and Reynolds number, pressure drop; laminar, turbulent and transitional flow. Flow over bodies: drag and lift. Experimental techniques in fluid mechanics. Introduction to basic thermodynamic heat transfer concepts: conduction (steady state and transient heat conduction), extended surfaces, applications. MTV 410 Thermofluids 410 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Navier-Stokes and continuity equations. Euler equations, momentum equations. Conduction in two dimensions. Similarity and dimensional analysis. Convective heat transfer: forced convection (external and internal), natural convection. Boiling and condensation. Thermal radiation. Heat exchangers: classification, Parallel flow and counterflow heat exchangers; double-pass, multi-pass and cross-flow heat exchangers; LMTD method, Effectiveness-NTU method, selection of heat exchangers. Experimental techniques in heat transfer. MTV 420 Thermal and fluid machines 420 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MTV 310, (MTX 311) Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: (i) Thermodynamics: Introductory thermodynamics with reference to power cycles. Energy systems and views, transformation of energy. Nuclear power. (ii) Steam generators: Work fluids, fire-tube boilers, water-pipe boilers, heat exchange boilers, power nuclear reactors. Feedwater. Industrial uses of steam. (iii) Combustion technique: Types of fuels – oil, coal, gas; their combustion methods. Ash and its properties. Air pollution. (iv) Steam engines: Turbo machine theory; types of turbines – properties and uses. Blades, rotors, sealing, balancing. Parallel operation of turbo generators in a power network. (v) Internal combustion engines: Spark ignition and compression ignition. Applications. (i) Classification: kinetic and positive displacement pumps and compressors. Incompressible and compressible flow. Pump, compressor and fan theory. (ii) Equipment: functioning, properties, characteristics and use of well-known pumps and compressors. (iii) Applications: specific speed, cavitation, water hammer. Pump connections: pipe system connections. Pumping of solids. Air-pressure systems. 166
- 173. Engineering 2014 (iv) Turbo machines: turbo machine theory. Impulse and reaction turbines. Analytical analysis. Characteristics: applications; integration of hydroturbines with power systems. MTV 732 Thermoflow 732 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 42 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 MTV 780 Specialised thermoflow 780 Academic organisation: Mechanical and Aeronautical Engineering Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module allows the Head of the Department of Mechanical and Aeronautical Engineering to arrange a short course on a specialized nature in mechanical or aeronautical engineering, typically (but not limited to) a course presented by a visiting academic. The total volume of work that is to be invested in this module by an average student must be 160 hours. The body of knowledge studied must be of a specialized and advanced nature, at the level of the other postgraduate modules offered by the Department. MTV 781 Specialised thermoflow 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: This module allows the Head of the Department of Mechanical and Aeronautical Engineering to arrange a short course on a specialized nature in mechanical or aeronautical engineering, typically (but not limited to) a course presented by a visiting academic. The total volume of work that is to be invested in this module by an average student must be 160 hours. The body of knowledge studied must be of a specialized and advanced nature, at the level of the other postgraduate modules offered by the Department. MTX 221 Thermodynamics 221 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: FSK 116 or FSK 176 Contact time: 1 ppw 1 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Double Medium Credits: 16 Module content: Application overview. Concepts: system, control volume, property, state, process, cycles, mass, volume, density, pressure, pure substances, property tables, ideal gases. Work and heat. Internal energy, enthalpy, specific heat capacity. First Law of Thermodynamics for system and control volume. Conservation of mass. Processes: Adiabatic, isentropic, compressible and incompressible gases. Second Law of Thermodynamics for system and control volume. Entropy and enthalpy. Third Law of Thermodynamics. Introduction to vapour power, cooling and gas cycles. Experimental techniques in thermodynamics. 167
- 174. Engineering 2014 MTX 311 Thermodynamics 311 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MTX 221 Contact time: 1 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Third Law of Thermodynamics, availability and useful work. Ideal and real gases. Compressible flow: conservation laws, characteristics of compressible flow, normal shock waves, nozzles and diffusers. Power cycles: classification, internal combustion engine cycles (Otto and Diesel), vapour power cycles (Brayton, Rankine), refrigeration cycles (Reversed Carnot cycle, Reversed Brayton cycle, ammonia absorption cycle) and heat pump cycles. Mixtures of gases: perfect gas mixture, water/air mixtures and processes (psychrometry). Heating and cooling load calculations, basic refrigeration and air-conditioning systems. Combustion: fuels, air-fuel ratios, heat of formation, combustion in internal combustion engines. MTX 781 Advanced thermodynamics and energy systems 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: Fundamental concepts of thermodynamics, total flow exergy, restricted dead state and unconstrained equilibrium state, heat transfer, fluid flow and chemical irreversibilities, thermodynamic optimisation, irreversibility distribution ratio, lost exergy, application of entropy generation minimisation (EGM) technique to the fundamentals of power generation, solar power, wind power, and low temperature refrigeration. MUA 782 Reactor coolant flow and heat transfer 782 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MUA 783 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Design of reactor coolant system, heat sources in reactor systems, heat transmission principles, heat transmission in systems with internal sources, temperature distribution along path of reactor coolant flow, heat transfer characteristics of fluids, heat transfer to boiling liquids, heat transfer characteristics of gasses. MUA 783 Reactor engineering science 783 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Atomic structure, nuclear energy and nuclear forces, nuclear fission, nuclear reactions and radiation, energy removal, nuclear reactor systems, radiation protection, radiation shielding, meteorology, reactor safety analysis. 168
- 175. Engineering 2014 MUA 784 Reactor physics 784 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MUA 783 Reactor engineering science 783# Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Probability concepts and nuclear cross sections, multiplication factor and neutron flux, slowing-down process in the infinite medium, diffusion theory the homogeneous one- velocity reactor, Fermi age theory: the homogeneous multi-velocity reactor, transport theory, reflected reactors, reactor kinetics, heterogeneous reactors, control-rod theory. MUA 785 Reactor materials engineering 785 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MUA 783 Reactor engineering science 783# Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Overview of the functions of the various classes of nuclear materials, elastic deformation, yielding and use of texture in nuclear components, atomic processes in plastic deformation and radiation damage, strength of engineering materials. MUA 786 Reactor materials engineering 786 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MUA 785 Reactor materials engineering 785 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Creep deformation, fracture processes and metallurgical fracture mechanics, fatigue fracture in nuclear materials, fabrication processes of nuclear materials. MUA 787 Reactor stress analysis 787 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: MUA 783 Reactor engineering science 783 Contact time: 21 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: General considerations, simple tension, bending in straight beams, torsion, plane stress and strain, strain energy, experimental stress analysis, rotational symmetry, stresses in flat plates, thermal stresses, beams on elastic foundations, buckling, design considerations. MUU 420 Fossil fuel power stations 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: This module contains a comprehensive study of all mechanical systems and processes of a fossil fuel power station. Analysis of steam cycles, combined cycle power 169
- 176. Engineering 2014 generation, fuels and combustion, the draught group, steam generators and turbines, condenser, feedwater and circulating water systems, coal and ash handling, compressor plant, water treatment, the importance of HVAC, control and instrumentation, control philosophies and environmental considerations. MUU 781 Fossil fuel power stations 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 13 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: This module contains a comprehensive study of all mechanical systems and processes of a fossil fuel power station. The module will include the analysis of steam cycles, combined cycle power generation, fuels and combustion, combustion mechanisms, combustion equipment and firing methods, the draught group, steam generators, steam turbines, condenser, feed water and circulating water systems, coal handling, ash handling, compressor plant, water treatment, the importance of HVAC, control and instrumentation, control philosophies and environmental considerations. MVE 420 Vehicle engineering 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Tyres: Construction, forces and moments, side force generation, rolling resistance, dynamic characteristics, tractive effort, slip, soft soil characteristics. Vehicle performance: equations of motion, supply and demand, forces acting on the vehicle, prediction of top speed, acceleration, braking, gradient ability and fuel consumption. Vehicle suspension systems: suspension concepts, kinematics, dynamic characteristics. Ride comfort: springs, dampers, suspension models, human response to vibration. Handling: steering systems, low-speed handling, steady-state handling, dynamic handling, under/oversteer, handling tests. MVI 780 Vehicle dynamics 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Tyres: Characteristics and tyre models used in simulation of ride comfort and handling. Road inputs: Classification of roads. Road profiles. Road roughness. Suspension components: springs, dampers. Controllable suspension systems. Modelling aspects. Human reaction: Human response to vibration. Driver models. Human reaction times. Vertical vehicle dynamics (ride comfort): Vibration levels in a vehicle. Simulation of ride comfort. Effect of seat characteristics on vibration levels. Test and evaluation procedures. Lateral vehicle dynamics (handling): Simulation of steady state and dynamic handling. Rollover propensity. Test procedures. Computer applications: Application of computer codes in the analysis of vehicle dynamics. 170
- 177. Engineering 2014 MVM 780 Fluid machines 780 Academic organisation: Mechanical and Aeronautical Engineering Period of presentation: Semester 1 Language of tuition: English Credits: 8 MVR 320 Vibration and noise 320 Academic organisation: Mechanical and Aeronautical Engineering Prerequisite: (MSD 210) Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Introduction to vibration: basic concepts, classification, modelling elements. Single degree of freedom systems: undamped and damped free vibration, undamped and damped harmonic motion, non-periodic excitation, numerical integration. Multidegree of freedom systems: discretisation, eigenproblem, co-ordinate coupling. Vibration control: balancing, isolation, absorbers. Vibration and sound measurement: signal analysis, modal testing, vibration monitoring. Continuum systems: string, bar, rod. Sound and noise: metrics, measurement, legislation. MVS 311 Manufacturing systems 311 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw 3 tpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Basic knowledge of conventional manufacturing processes like casting, forming, machining and joining. Modern manufacturing of plastic products, powder metallurgy, micro-electronic manufacturing and non-traditional machining. Quality control by work- holding devices, measurement, inspection and testing and determination of process capability. Manufacturing automation, rapid prototyping and free form fabrication. Manufacturing systems design concepts like Jobshop, Flowshop, Leanshop with linked cells, Projectshop and continuous processing. MWN 420 Numerical methods 420 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Solution of systems of linear algebraic equations. Both iterative and direct methods are treated. Solutions are applied to both small and large scale systems. Solutions of systems of nonlinear equations. Eigenvalue problems. Numerical approximation strategies. Numerical integration and differentiation. Numerical solutions to initial-value problems for ordinary differential equations, boundary-value problems for ordinary differential equations and partial-differential equations. MWN 780 Numerical methods 780 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 171
- 178. Engineering 2014 Module content: Solving systems of linear algebraic equations using direct and iterative methods from small to large scale systems. Numerical solutions of nonlinear systems of equations. Solving eigenvalue problems. Numerical approximation strategies. Numerical differentiation. Numerical Integration. Numerical solutions to initial-value problems for ordinary differential equations. Numerical solutions to boundary-value problems for ordinary differential equations. Numerical solutions to partial-differential equations. MWX 781 Nano and micro heat transfer 781 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 21 contact hours per semester Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 16 Module content: The applications of transport processes pose new challenges in emerging areas like electronic cooling, Micro-Electro-Mechanical Systems (MEMS) and micro biological sciences. This involves devices where heat, species and fluid flows are involved within very small dimensions. Topics covered: Statistical thermodynamics, quantum mechanics, thermal properties of molecules, kinetic theory, micro/nanofluidics; thermal transport in solid micro/nanostructures, electron and phonon scattering, size effects, quantum conductance, electronic band theory, tunneling, nonequilibrium heat conduction, analysis of solid state devices such as thermoelectric refrigeration and optoelectronics; nanoscale thermal radiation and radiative properties of nanomaterials, radiation temperature and entropy, surface electromagnetic waves, near-field radiation for energy conversion devices. MYI 990 Thesis: Mining engineering 990 Academic organisation: Mining Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 MYL 990 Thesis: Mining 990 Academic organisation: Mining Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 NEC 310 Electrochemistry 310 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 3 lpw 3 ppw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Kinetics and thermodynamics of electrochemical reactions of metallurgical importance. Use of equilibrium diagrams to identify possible reactions products. Use of polarisation diagrams to describe reaction kinetics. Application of these principles to metallurgical examples, including corrosion, leaching and electrometallurgy. Influence of substrate composition, electrolyte composition, impurities, reaction products and agitation on kinetics. NEL 700 Electrometallurgy 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year 172
- 179. Engineering 2014 Language of tuition: English Credits: 32 Module content: At the end of the module, students should be able to conceptualise and design new electrometallurgical processes and improve the operation of existing processes through an understanding of the basic principles of the thermodynamics and kinetics of electrochemistry, measurement techniques used in electrochemistry, and considering the principles of electrochemical reactor design, different electrode and cell configurations, role of additives to electrolytes, role of impurities in the electrowinning process, the steps involved in electrocrystallization processes and present practices used for the electrowinning of metals such as copper, nickel, cobalt, zinc, manganese and gold. NEX 320 Excursions 320 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NMP 310) Contact time: 1 lpw 6 ppw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Attendance of and participation in excursions to metallurgical operations, including a five-day excursion tour during the last full week of the mid-year recess, and six half-day visits during the semester. Assessment is based on written reports and oral presentations. The plant visits include hydrometallurgical, pyrometallurgical, minerals processing and materials processing plants. NFE 700 Fabrication engineering 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: This module looks at quality assurance and control in welded fabrication and manufacture, and introduces various standards and codes of manufacture used in the welding industry. Measurement, control and recording in welding, the principle of fitness for purpose, as well as health and safety issues are addressed. Control of residual stresses and distortion during welding, non-destructive testing, repair welding, and the economics of welding are considered. This module also examines plant facilities, welding jigs and fixtures. Special emphasis is placed on the design and implementation of welding procedure specifications, procedure qualification records and quality control plans. A number of case studies are examined. NFM 700 Physical metallurgy 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: The module deals with the basic understanding of phase transformations in alloys, and its relationship with microstructure and mechanical properties of alloys. Included are transformation processes such as solidification; nucleation, growth and coarsening of precipitates; the use of carbides and intermetallic compounds in steels; static and dynamic re-crystallisation; grain growth and the use of grain boundary engineering; the 173
- 180. Engineering 2014 martensite, bainite and pearlite transformations; thermomechanical processing and some elements of quantitative metallography. The course is practice orientated; the current best fundamental understanding of these transformation processes covered, and its role in engineering application demonstrated. The course is fully documented on CD-ROM from the latest literature and is largely intended for that research student who is embarking on a physical metallurgical research project. NFM 701 Basic physical metallurgy 701 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: This module serves as a bridge into full post graduate studies in physical and mechanical metallurgy for students who do not have a formal first degree in these subjects. The following topics are covered in this module: phases in alloys, diffusion, solidification, the precipitation of second phases in alloys and the recrystallisation and grain growth of single phase alloys, aluminium and its alloys, copper and its alloys, nickel base alloys, the iron-carbon phase diagram, the heat treatment of steels, dislocations and the deformation of metals, engineering strength of metals and alloys, creep deformation, introduction to fracture mechanics and fatigue and failure analysis. This module will, therefore, enable the student to understand the fundamentals that govern alloy design, heat treatment, physical and mechanical properties and behaviour of materials during heat treatment and under stress and will enable the correct selection of alloys for a particular use, the prescription of heat treatments and further mechanical processing of these alloys to achieve the required metallurgical and mechanical properties. NHB 700 Heat treatment 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: The emphasis is on the practice of the heat treatment of steels, covering the following topics: introduction and fundamental aspects of the Fe-C system; alloying elements; tempering of martensite; pearlite and bainite formation, hardenability; annealing, normalizing, hardening and tempering; stress relieving, use of CCT and TTT diagrams, HSLA steels, tool steels; stainless steels, heat treatment furnaces and their atmospheres, induction hardening, carburisation, nitriding, mechanical testing, non- destructive examination and heat treatment, hydrogen embrittlement, temper embrittlement, quantitative metallography for quality control, heat treatment for fracture toughness and heat treatment case studies. The course is partly available on CD-ROM with up-to-date references to the latest literature. NHM 322 Hydrometallurgy 322 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NPT 220) and (NEC 310) Contact time: 3 lpw 3 ppw Period of presentation: Semester 2 Language of tuition: English Credits: 16 174
- 181. Engineering 2014 Module content: Merits of hydrometallurgy relative to other extraction methods. Unit processes in hydrometallurgy. Chemical principles of hydrometallurgy. Chemistry of important metals and lixiviants. Application of chemical principles to: leaching; purification and upgrading of leach solutions (precipitation, solvent extraction, ion exchange, activated carbon); product recovery from solution (precipitation, reduction). Relevant analytical methods. NHM 412 Hydrometallurgy 412 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NHM 322) Contact time: 2 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Extraction routes and the extractive metallurgy of metals such as gold, copper, zinc, manganese, nickel, cobalt, uranium and the platinum group elements, from ores and secondary sources. Application of thermodynamics and reaction kinetics (including laboratory kinetic data) in understanding and optimisation of extraction routes, and sizing of reactors. Environmental impact of processing routes. NHM 700 Hydrometallurgy 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: The aim with this course is to enable the students to understand the design and operation of hydrometallurgical processes for the beneficiation of minerals and metals. The theoretical basis of the solution chemistry underlying hydrometallurgical processes, the purification and concentration options available, and the metal recovery processes such as precipitation, hydrogen reduction, and electrowinning are reviewed. This is then followed by the consideration of the engineering aspects and the technical application of hydrometallurgical processes for a number of ores relevant to South Africa. NHM 701 Basic extractive metallurgy 701 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: This module covers the fundamental principles of hydrometallurgy and minerals processing. In the minerals processing part of the module, students are given perspective on the scope of and functions in mineral processing, different unit operations and processing options for different deposits. Themes are comminution, classification, concentration, and solid-liquid separation. In the hydrometallurgy portion the merits and limitations of hydrometallurgy when compared with other metallurgical processes (e.g. pyrometallurgy) are considered; and different feed materials for hydrometallurgical processes; different unit processes in hydrometallurgy; fundamental thermodynamic and kinetic concepts as used in leaching; different leach reactors and their applications; solution purification and metal recovery processes; selecting a suitable flowsheet for a given feed material to produce a final metal product are discussed. 175
- 182. Engineering 2014 NIN 890 Dissertation 890 Academic organisation: Materials Science and Metallurgical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 NIN 891 Dissertation 891 Academic organisation: Materials Science and Metallurgical Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 NJJ 210 Professional and technical communication 210 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Communicate effectively, both orally and in writing, with engineering audiences and the community at large. Written communication as evidenced by: uses appropriate structure, use of modern or electronic communication methods; style and language for purpose and audience; uses effective graphical support; applies methods of providing information for use by others involved in engineering activity; meets the requirements of the target audience. Effective oral communication as evidenced by appropriate structure, style and language; appropriate visual materials; delivers fluently; meets the requirements of the intended audience. Audiences range from engineering peers, management and lay persons, using appropriate academic or professional discourse. Typed reports range from short (300-1 000 word plus tables diagrams) to long (10 000- 15 000 words plus tables, diagrams, references and appendices), covering material at exit level. Methods of providing information include the conventional methods of the discipline, for example engineering drawings, as well as subject-specific methods. NKR 700 Corrosion 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: The aim with this course is to facilitate the development of the students in corrosion engineering by considering the electrochemical fundamentals of corrosion processes as well as their experimental and practical implications for corrosion diagnosis and control. The practical manifestations of the broad types of corrosion are reviewed and the skills of the students to utilise corrosion control methodologies such as chemical and electrochemical control, protective coatings and material selection to control corrosion are developed. NLO 700 Literature survey 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 32 Module content: The refereed literature on a specific topic (normally related to subsequent research towards a master's degree) is studied and summarised in a written report. The important 176
- 183. Engineering 2014 skills are finding appropriate papers, reading and comprehending these, and using the information in the paper to construct your own view on the research topic. There are no formal contact sessions. The written survey must be submitted at the end of October, with an oral presentation of 20-30 minutes in the week following submission of the survey. NMC 113 Materials science 113 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 1 ppw 1 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to materials: the family of materials, atomic structure and types of bonding, crystal types and space arrangement of atoms, directions and planes in crystals, defects in crystals, diffusion in solids. Mechanical properties of materials: stress and strain, mechanical testing (strength, ductility, hardness, toughness, fatigue, creep), plastic deformation, solid-solution hardening, recrystallisation. Polymeric materials: polymerisation and industrial methods, types of polymeric materials and their properties. Corrosion of metals: mechanisms and types of corrosion, corrosion rates, corrosion control. The heat treatment of steel: Fe-C phase diagram, equilibrium cooling, hardening and tempering of steel, stainless steel. Composite materials: Introduction, fibre reinforced polymeric composites, concrete, asphalt, wood. NMC 123 Materials science 123 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 1 ppw 1 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to materials: the family of materials, atomic structure and types of bonding, crystal types and space arrangement of atoms, directions and planes in crystals, defects in crystals, diffusion in solids. Mechanical properties of materials: stress and strain, mechanical testing (strength, ductility, hardness, toughness, fatigue, creep), plastic deformation, solid-solution hardening, recrystallisation. Polymeric materials: polymerisation and industrial methods, types of polymeric materials and their properties. Corrosion of metals: mechanisms and types of corrosion, corrosion rates, corrosion control. The heat treatment of steel: Fe-C phase diagram, equilibrium cooling, hardening and tempering of steel, stainless steel. Composite materials: Introduction, fibre reinforced polymeric composites, concrete, asphalt, wood. NMC 223 Materials science 223 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: NMC 113 or NMC 123 Contact time: 2 ppw 4 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Phase diagrams, phases and solid solutions. The heat treatment of steel (phase equilibria, the diffusion-controlled and martensitic transformations of austenite, hardening and tempering, hardenability, the application of IT and CCT diagrams, heat treatments). Steel types and classification. Cast irons (white, grey, malleable and spherical graphite irons). Stainless steels (ferritic, martensitic, austenitic and duplex types). 177
- 184. Engineering 2014 NMC 313 Materials science 313 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NMC 223) Contact time: 3 lpw 3 ppw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Binary and ternary phase diagrams. Diffusion in alloys (steady-state and nonsteady- state, solid solutions, grain boundaries, homogenisation). Solidification (pure metals and alloys; ingots, castings and welds; segregation, porosity and eutectic solidification). Metallographic and analytical techniques (diffraction, electron microscopy). Precipitation and solid-solution strengthening (principles, and applications to aluminium, magnesium, copper and nickel-base alloys). NMM 320 Mechanical metallurgy 320 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NMC 223) Contact time: 3 lpw 4 ppw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Dislocations and deformation (defects in crystalline materials, movement and elastic energy of dislocations, different crystal lattices, origin of and strengthening by dislocations). Strength of engineering materials (tensile testing, plastic deformation of single crystals and polycrystalline materials, hardness, residual stress). Creep deformation (primary and secondary creep, stress and temperature dependence, creep rupture). Introduction to fracture mechanics (Griffith criterion, stress intensity, fracture toughness, fatigue). Failure analysis. Hot and cold rolling of metals. NMM 700 Mechanical metallurgy 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: We cover the interaction between the internal structure of metals – on the atomic and microscopic scales – and their mechanical properties. Practically important topics such as elastic and plastic stress analysis, dislocations and deformation, room and high temperature deformation processes, mechanical property/microstructure relationships for low and medium Carbon steels and for micro-alloyed and HSLA steels, fatigue processes, stress corrosion cracking, creep deformation processes and fracture mechanics are covered in depth, and illustrated with case studies. The course is largely available on CD-ROM with references to the latest literature. NMP 310 Minerals processing 310 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 3 lpw 4 ppw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Minerals processing in perspective (economic importance, economic nature of mineral deposits, mineral properties and analysis, mineral processing functions). Liberation 178
- 185. Engineering 2014 analysis (importance and measurement of liberation; particle size analysis). Comminution (theories and principles, crushers, grinding mills). Screening and classification (industrial screening, cyclones). Concentration processes (gravity concentration, dense medium concentration). Froth flotation. NMP 411 Minerals processing 411 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NMP 310) Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: The sizing, application and efficiency determination of the most commonly used unit operations covering crushing, screening, classification, milling, gravity concentration, dense medium separation, magnetic separation and thickening. NMP 700 Minerals processing 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: Principles and advanced theory of comminution, classification and density separation are covered. NMP 701 Applied theory of sampling for minerals processing 701 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: This module covers both the theory and practice of sampling, primarily with respect to the minerals processing industry. As sampling is statistical in nature, basic statistics relevant to sampling theory will be considered. The module will then focus on the theory of sampling with specific reference to managing large and small scale variability. The effect of interpolation errors, periodic errors and increment weighting errors will be considered under large scale variability. Under small scale variability the determination and management of various errors that result in small scale variability will be covered, as well as the compilation of sampling protocols that can minimise these errors. The module will also examine the evaluation of dry and wet sampling equipment with respect to the different bias generators, as well as the implementation of sampling protocols in practice. Ore types covered during the course include coal, iron ore, gold and platinum. NNR 700 Nuclear reactor materials 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 10 lpw Period of presentation: Year Language of tuition: English Credits: 32 Module content: In this module the mechanical behaviour of metals and alloys at room and high temperature is addressed but with special emphasis on nuclear materials used in 179
- 186. Engineering 2014 commercial power reactors. In particular these materials’ behaviour under deformation, creep, fracture, fatigue and also corrosion in irradiation conditions for in-core materials as well as their behaviour under the unique environmental conditions for out-of-core materials is covered. NOP 421 Process design 421 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NMP 411) Contact time: 1 lpw 1 tpw Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Philosophy of design and the design process; phases of plant design and their interrelationships. Principles of project planning and management. Unit and process design, simulation, economic evaluation and optimising as applicable to the metallurgical industry. Execution of a process design project, submission of a report, oral presentations and construction of a scale model. NPA 700 Metallurgical analysis 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 24 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: The aim is to solve metallurgical problems with the aid of hi-tech analytical techniques. These different analytical techniques are given in modular form and the respective metallurgical area of specialisation will dictate the combination of three techniques to suit the requirements of the research student. Specialisation areas like Physical Metallurgy, Welding Metallurgy, Hydro Metallurgy, Pyro Metallurgy and Minerals Processing are covered and any other combination can be requested by the study leaders after consultation with the course leader. The techniques included are TEM, SEM, Auger Spectroscopy (AES), X-ray Photo-electron Spectroscopy (XPS), Glow Discharge Optical emission Spectroscopy (GDOES), X-ray Diffraction (XRD), X-ray fluorescence (XRF), Gleeble hot working simulations and Dilatometry. Lectures cover the theory of these techniques in depth and the theory is illustrated with industrial case studies. NPB 412 Process metallurgy and control 412 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NPM 321) Contact time: 1 tpw 2 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Elements of metallurgical process control (principles, selection of proportional-integral controller, identification of controlled and manipulated variables and disturbances). Transient and steady-state heat transfer in metallurgy (formation of freeze layers, heating and cooling of components). Principles of reaction kinetics in pyrometallurgy (types and identification of rate-determining steps, quantification of overall reaction rate). 180
- 187. Engineering 2014 NPM 321 Pyrometallurgy 321 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NPT 220) Contact time: 2 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Overview of pyrometallurgical process routes, types of reactions, and reactor designs. Review of relevant thermodynamic principles (equilibrium constants, Henrian and Raoultian activities and activity coefficients). Slag basicity and viscosity. Energy and reductants. Overview of pyrometallurgical separation principles (vapour-phase, solid- state and liquid-liquid routes). Examples of pyrometallurgical separation processes (ironmaking and steelmaking, sulphide smelting and converting, ferroalloys). NPM 700 Pyrometallurgy 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: We aim to provide you with practice in using fundamental principles to analyse pyrometallurgical processes – to be able to go from understanding to process improvement. To this end, the necessary fundamentals of reaction equilibria (including activity descriptions), reaction kinetics, and mass and energy balances are reviewed. Practical examples illustrate the use of these principles. In the final block, we analyse a number of practical processes in more detail. Throughout, the emphasis is on quantification, and at least half of the contact time is devoted to computer-based calculations. NPM 701 Basic pyrometallurgy 701 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: In this module you will develop the skills required to analyse the equilibria of pyrometallurgical processes. Solving such a problem requires skills in thermodynamic analysis, and knowledge of the typical processes (and the conditions within these processes) which are used to extract and refine metals like iron (steel), copper, titanium, chromium, manganese, and aluminium. The aim is to enable you to analyse a current or proposed process with regards to feasibility, and to propose processing conditions (e.g. temperature, slag composition) which will achieve the required equilibrium state. This also applies to refractory systems, where the primary aim will be to evaluate whether a given refractory material is suitable for a given application, or the impact of certain impurities on the refractory material. NPT 220 Process thermodynamics 220 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (CHM 171) or (CHM 172) Contact time: 2 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 181
- 188. Engineering 2014 Module content: The first, second and third laws of thermodynamics, enthalpy and heat capacity. The criteria for equilibrium, Gibbs free energy, chemical potential, partial molar Gibbs free energy, activity, activity coefficient and the equilibrium constant. Solution thermodynamics of ideal and non-ideal solutions, as well as solution models. Ellingham, Kellogg and Pourbaix diagrams. The thermodynamic principles are applied to metallurgical processes. Applications also include stoichiometry and mass balance problems, as well as the calculation of energy balances. NPW 411 Metals processing 411 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NMC 313), (NMM 320) Contact time: 2 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Introduction to welding and joining processes. Welding of carbon steels, stainless steels, aluminium and aluminium alloys. Development and qualification of welding procedure specifications. Liquid metal processing (casting processes, solidification of castings and mould design). Deformation processing (forging, extrusion and rolling), sheet metal processing and surface processing. The identification and prevention of defects. NPY 316 Industrial training 316 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: *Attendance module only During or at the end of the second year of study, students in Metallurgical Engineering undergo at least six weeks of prescribed training in industry. A satisfactory report on the practical training must be submitted to the Faculty Administration within one week of registration. In exceptional circumstances the prescribed minimum period can be reduced, as approved by the Dean. NPY 416 Industrial training 416 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: *Attendance module only During or at the end of the third year of study, students in Metallurgical Engineering undergo at least six weeks of prescribed training in the industry. A satisfactory report on the practical training must be submitted to the department within one week of registration. In exceptional circumstances the prescribed minimum period can be reduced, as approved by the Chairman of the School of Engineering. NSC 412 Literature survey 412 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: NEX 320 Contact time: 1 tpw 182
- 189. Engineering 2014 Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Literature search (using electronic databases of publications, formulating search strategies). Hypothesis formulation and preliminary experimental planning (identifying research question and stating hypothesis, proposing critical experiments, evaluating feasibility of possible experimental approaches). Literature survey (critical evaluation of published information, synthesising available information into a coherent argument, written and oral reporting). Final experimental planning (formulation of experiments with attention to calibration, uncertainty, reliability and safety). NSC 422 Project 422 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: NSC 411 or NSC 412 Contact time: 1 tpw Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Execution of a research project: experimentation (with attention to safety, reliability, calibration and reproducibility); analysis of results to yield data (with statistical analysis of uncertainty); interpretation of data (to test the stated hypothesis); written reporting of results (with updated literature survey, description of experimental approach, data obtained, conclusions, and scientific and industrial implications); oral and poster presentations. NSF 700 Froth flotation 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: Fundamentals of sulphide and coal flotation are covered, including the chemistry of sulphide mineral flotation; natural and induced hydrophobicity; physical and chemical interactions in coal flotation; review of sulphydryl and oxydryl collectors and their absorption mechanisms; the role of activators/depressants and pH regulators as well as an investigation of frothers and froth stability, with reference to recent industrial developments. Aspects of flotation practice are addressed: Experimental methods for laboratory and plant trials; basic and complex flotation circuits with examples from recent developments; control in flotation plants: reagents/conditioning. Finally, relevant interfacial surface chemistry is covered: the role of water in flotation; mechanisms and thermodynamics of collector activity. NSW 700 Welding metallurgy 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: This module examines the basic physical metallurgy and heat treatment of various metals and alloys, and the application of various mechanical testing techniques, microstructural analysis and corrosion testing to characterise metals and alloys. The structure and properties of welds in carbon steels, stainless steels, cast irons, copper 183
- 190. Engineering 2014 and copper alloys, nickel and nickel alloys, aluminium and aluminium alloys and other materials (Ti, Mg, Ta and Zr) are discussed. Defects are discussed and various techniques to avoid the formation of these defects in welds are considered. NVM 321 Refractory materials 321 Academic organisation: Materials Science and Metallurgical Engineering Prerequisite: (NPT 220) and NPM 321 # Contact time: 1 tpw 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Classification, requirements and properties of refractory materials. Manufacturing principles. Specification and testing of refractory materials. The main refractory systems, i.e silica, aluminosilicates, alumina, magnesia, magnesia-chrome, magnesia- carbon, doloma, zircon, zirconia, silicon carbide and graphite, and their applications. Principles of ternary phase diagrams and their application in refractory systems, and interactions between slag, metal and refractory materials. NVM 700 Refractory materials 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: The objective is to convey a fundamental understanding of the principles that are involved in the manufacture, selection and use of refractories. Relevant thermodynamic principles are reviewed, with emphasis on the thermodynamic properties of oxide materials, metals and slags, and how these affect refractory performance. Phase diagram use in refractory selection and prediction of slag-metal-refractory interactions is covered. A section on manufacture covers the types of raw materials, design and formulation, handling, manufacturing routes, and quality control (including practical mineralogy). Finally, design properties of refractories for the ferrous, cement, aluminium, copper, platinum and ferro-alloy industries are reviewed. NWM 780 Mathematical modelling of metallurgical processes and materials 780 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 Contact hours Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 32 Module content: This module covers both the theory and practice of mathematical modelling applied to metallurgical processes and materials. The module applies the theory mastered in prior learning such as mathematics, physics, thermodynamics, fluid mechnanics, heat transfer, etc. to create mathematical representations of processes and materials. A range of modelling techniques is addressed in the module, such as solution models of solid and liquid mixtures, mass and energy balances, steady state process models, dynamic process models, heat transfer models, computational fluid dynamics models, multiphysics models and technical-economic models. The created models are then applied to solve problems encountered in research and industry. 184
- 191. Engineering 2014 NWP 700 Welding processes 700 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: This module examines arc physics, electrotechnics as applied to weld power sources, and power source design. The fundamental principles, applications, consumables and process variables of various arc welding processes, oxy-gas welding techniques, resistance welding processes, power beam processes and solid-state welding techniques are considered. Brazing and soldering, cutting, surfacing and metal spraying techniques are discussed. The module also looks at the welding of plastics, ceramics and composites, and at the mechanisation and use of robotics in the welding and joining industries. Practical training is included in this module. NWP 701 Design of welded structures 701 Academic organisation: Materials Science and Metallurgical Engineering Contact time: 48 contact hours per semester Period of presentation: Year Language of tuition: English Credits: 32 Module content: This module examines welded joint design, the basics of weld design and the role of fracture mechanics in joint design. The behaviour of welded structures under different types of loading are considered, with special focus on the design of welded structures with predominantly static loading and the design of dynamically loaded welded structures. The design of welded pressure equipment, aluminium alloy structures and reinforcing-steel welded joints is considered. PEE 410 Mine environmental control engineering 410 Academic organisation: Mining Engineering Prerequisite: MTV 310, Finalists only Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Mine ventilation methods; primary and secondary ventilation methods, ventilation strategies for coal and hard rock mining environments including base metal mines. Mine development ventilation methods, mine air control, different types of fans including fan performances and air dilution calculations. Refrigeration: Elementary refrigeration principles, including concepts and methods, chilled water systems, including cooling distribution methods. Elementary mine ventilation planning, basic planning parameters and elementary mine ventilation economics and the impact of incorrect design and applications on safety and health. Mine gases, their origin and gas/coal dust explosions. Aspects of the Mine Health and Safety act are also dealt with. PFZ 780 Financial mine valuation 780 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 2 Language of tuition: English Credits: 16 185
- 192. Engineering 2014 PHS 781 Slope stability 781 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 2 Language of tuition: English Credits: 16 PJJ 210 Professional and technical communication 210 Academic organisation: Mining Engineering Contact time: 2 lpw 2 opw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Communicate effectively, both orally and in writing, with engineering audiences and the community at large. Written communication as evidenced by: uses appropriate structure, use of modern or electronic communication methods; style and language for purpose and audience; uses effective graphical support; applies methods of providing information for use by others involved in engineering activity; meets the requirements of the target audience. Effective oral communication as evidenced by appropriate structure, style and language; appropriate visual materials; delivers fluently; meets the requirements of the intended audience. Audiences range from engineering peers, management and lay persons, using appropriate academic or professional discourse. Typed reports range from short (300-1 000 word plus tables diagrams) to long (10 000- 15 000 words plus tables, diagrams, references and appendices), covering material at exit level. Methods of providing information include the conventional methods of the discipline, for example engineering drawings, as well as subject-specific methods. PKB 701 Basic environmental engineering 701 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Year Language of tuition: English Credits: 16 PKB 711 Airflow and fans 711 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 2 Language of tuition: English Credits: 16 PKB 712 Heat and refrigeration 712 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 1 Language of tuition: English Credits: 16 PME 320 Mineral economics 320 Academic organisation: Mining Engineering Contact time: 1 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: The objective is for the student to understand fundamental economic theory pertaining to the mineral and mining industry and its overall effects on the broader South African 186
- 193. Engineering 2014 economy. The student will be able to interpret and understand company annual results. The student should be able to understand and apply the SAMREC/SAMVAL code during the evaluation and classification of resources and reserves. The student should understand the effect of supply and demand pertaining to the mineral and mining industry (micro and macro economic factors). To understand the unique aspects related to marketing of minerals with reference to the cyclic nature of the industry. Apply economic and engineering reasoning to specific problems in the minerals and mining industry so as to analyse and interpret the opportunities and threats facing this industry. To understand and apply the fundamentals of technical mine valuation, including mineral rights, prospecting methods, sampling, mass and mineral content of ore as well as management and control factors. The latter include controlling and managing of widths, stoping width versus tramming and milling width, ore dilution, mine call factor and cut-off grade. PMY 311 Surface mining and geotechnics 311 Academic organisation: Mining Engineering Contact time: 2 tpw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Surface mining methods: Introduction, classification of ore reserves and terminology. Earth moving: Loading shovels and methods, haulage trucks, productivity and tires, introduction to bucket wheel excavators, conveyor systems and in-pit crushers, in-pit crushing-conveying system, application of draglines and terminology. Introduction to mine planning, mine development phases, block modelling, methods of sequencing, stripping ratios and breakeven ratios. Introduction to mining environment, rehabilitation and closure, integrated environmental management, environmental impact studies, water management and rehabilitation planning and costing. Geotechnics include understanding discontinuities in rock mass, stereo nets, cohesion and friction. Rock behaviour pertaining to excavations, understanding plane, circular and wedge failures, Rock slope safety factors. Slope stabilisation, neutral line theory, effects of water in a slope, monitoring of slopes and instruments available for slope stability monitoring, Risk concepts pertaining to slopes and a case study is discussed. Aspects of the Mine Health and Safety Act are also dealt with. PMY 320 Mining 320 Academic organisation: Mining Engineering Prerequisite: PMY 311 Contact time: 2 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Mining 320 provides an overview of mining by covering the following subject-matter: history of mining in South Africa, underground mining systems, and a brief overview of mine environmental control and mine strata control. Then the module covers general mine layouts, mine plan reading, mine surveying, electricity supply, transport systems, water management systems, and mine fires. This feat is achieved through the study of various mining methods and case studies. PMY 410 Mining 410 Academic organisation: Mining Engineering Prerequisite: PMY 320, Finalists only Contact time: 1 tpw 2 ppw 3 lpw 187
- 194. Engineering 2014 Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Specific mining techniques. Shafts: Types, methods and equipment for sinking; economic considerations. Tunneling: Design, development techniques and equipment. Design and construction of large excavation. Design, construction, reinforcing and repair of ore passes. Fires in gold and coal mines: Causes, prevention, detection, combating and insurance. Flooding: Water sources, results, dangers, sealing and control. PMY 423 Mine risk management - health and safety 423 Academic organisation: Mining Engineering Prerequisite: Finalists only Contact time: 1 dpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Selected topics in Risk and safety management: Methodology and techniques of risk identification, risk assessment, and mitigation principles. Competence based safety: Human error model, risk perception, risk competency. Safety Leadership: Transactional leadership and transformational leadership. Safety and Mineral Statistical Structures and Codes: SAMREC, SAMRASS, SIMRAC codes, functions and duties. PMY 701 Underground mining methods 701 Academic organisation: Mining Engineering Contact time: 10 lpw Period of presentation: Year Language of tuition: English Credits: 32 Module content: PMY 701 provides an overview of mining by covering the following subject matter: history of mining in South Africa, surface-mining methods, underground mining methods, and a brief overview of mine environmental control and mine strata control. Then the module covers general mine layouts, mine plan reading, mine surveying, electricity supply, transport systems, water management systems, and mine fires. Specific mining techniques. Shafts: Types, methods and equipment for sinking; economic considerations. Tunneling: Design, development techniques and equipment. Design and construction of large excavation. Design, construction, reinforcing and repair of ore passes. Fires in gold and coal mines: Causes, prevention, detection, combating and insurance. Flooding: Water sources, results, dangers, sealing and control. PMY 703 Surface-mining 703 Academic organisation: Mining Engineering Contact time: 10 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Mining methods for open pits and strip mine operations. Basic mine planning, scheduling and economic cut-off limits with regards to waste stripping and ore grade. Continuous and discontinuous operations: Selection and management of truck-based loading and transport systems. Selection and management of conveyor-based loading and transport systems. Dragline selection, operation, management and strip mining 188
- 195. Engineering 2014 practices. Slope stability in surface mines, plane, wedge and circular/non-circular failures. PMZ 422 Mine design 422 Academic organisation: Mining Engineering Prerequisite: PMY 410, PSZ 410, PEE 410. PNB 400, Finalists only Contact time: 4 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 42 Module content: Students are required to design a mine at the conceptual business case level. Students are given a surface plan and borehole data from which they have to design a mine in teams of 3 – 5 students. They have access to a mining engineer in industry to assist with advice. The design has to incorporate a market analysis, layout design, working method, surface layout, environmental impacts and financial analysis. The design is submitted in book form and each team member has to do a presentation of the design. PMZ 780 Advanced design: Mining 780 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 2 Language of tuition: English Credits: 16 PNB 300 Industrial excursions 300 Academic organisation: Mining Engineering Contact time: 3 ppw Period of presentation: Year Language of tuition: English Credits: 8 Module content: The mining industry requires that students are exposed to the mining industry by visiting a collection of mines with the purpose of familiarising them with current trends in mining practice and mining methods. This module hopes to provide a “snapshot” of the mining industry as it is at the time of the tour. This tour requires attendance and participation in five one-day visits to mines. The excursions are organised during the first semester of the third year, and take place during the July recess at the end of the semester. Students are expected to submit a group report on the visits during the second semester. PNB 400 Industrial excursions 400 Academic organisation: Mining Engineering Prerequisite: PNB 300, Finalists only Contact time: 3 ppw Period of presentation: Year Language of tuition: English Credits: 8 Module content: Attendance of and participation in industrial excursions organised during the year, including a ten-day excursion tour at the end of the first semester. Submission of reports and assignments as required. 189
- 196. Engineering 2014 POY 783 Open-pit mining 783 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 2 Language of tuition: English Credits: 16 PPY 220 Experiential training 220 Academic organisation: Mining Engineering Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: The student needs to undergo practical mine training for a period of at least 6 weeks to be exposed to the mining environment, a report on this vacation work will be expected as per department guideline, in English only. PPY 320 Experiential training 320 Academic organisation: Mining Engineering Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: The mining industry requires students to become exposed to mining by working on mines during the December recess period at the end of the second academic year. The student is required to work for a minimum period of six weeks on a mine, and then compile a report on the work completed for submission at a prescribed date in the first semester of the third academic year. PPY 418 Practical training 418 Academic organisation: Mining Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: *Attendance module only Mining students must undergo at least six weeks prescribed practical training at a mine at the end of the third year of study. A satisfactory report on such work must be submitted to the department within one week after registration. PRX 321 Explosives engineering 321 Academic organisation: Mining Engineering Prerequisite: MTX 221 Contact time: 2 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Explosive engineering: The importance of improved safety standards, cost effectiveness and productivity has driven technical mining personnel to examine all facets of their operations. Increasingly, it has been realized that an efficient drilling and blasting program will impact positively throughout the mining operation, from loading to maintenance, hauling to crushing, ground support to scaling and grade control to recover with an invariable increase in the overall profitability through technical advanced projects. Through the safe, efficient and innovative use of explosives for rock breaking the mining engineer will make a positive contribution to the overall mining operation. 190
- 197. Engineering 2014 Due to the nature of the topics discussed in this module, a number of case studies are used to emphasise the safe handling, application and destruction of explosives. The Mine Health and Safety Act is dealt with and the Explosives Act receives specific attention. PRX 701 Explosives engineering 701 Academic organisation: Mining Engineering Contact time: 10 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: History of explosives, types of explosives: primary and secondary explosives, thermodynamics of detonation, strength of explosives. Methods and techniques, explosive initiating systems, application of explosives in rock breaking; the effects of geology and drilling. Surface and underground blasting, controlled blasting, vibration control, air blast. Ethics and regulatory compliance. Equipment and calculations. PRX 785 Advanced explosive engineering 785 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Types of commercial explosives. Properties of explosives. Explosive initiating systems, application of explosives in rock breaking; Surface and underground blast designs and specialised blast designs; the effects of geology on blast results. Fragmentation, blasting and environmental control. Blast assessment. Ethics and regulatory compliance. Safety in blasting. PSC 321 Introduction to project 321 Academic organisation: Mining Engineering Contact time: 1 tpw 2 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Reporting technical information: typical report structure, literature survey, data presentation (tables, graphs, diagrams), referencing, presenting results, conclusions, and recommendations. Identification of a suitable subject for the Final Year Project. Planning of project execution. PSC 411 Project 411 Academic organisation: Mining Engineering Prerequisite: PSC 321, Finalists only Contact time: 1 tpw Period of presentation: Semester 2 Language of tuition: English Credits: 10 Module content: The project involves the execution of an analytical and/or experimental research project under guidance of a lecturer. During the second semester of the third year of study students must select a suitable research topic, to be approved by the head of department. Data for the approved project will be collected during the practical training period during the summer recess at the end of the third year of study. A comprehensive 191
- 198. Engineering 2014 and detailed project report must be compiled and submitted for evaluation at a prescribed date in the first semester of the fourth year. The student must also prepare a presentation of the project for an oral examination at the end of the semester. PSS 700 Guided special studies 700 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Year Language of tuition: English Credits: 32 PSZ 410 Strata control 410 Academic organisation: Mining Engineering Prerequisite: SWK 210, PMY 320, Finalists only Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Three dimensional stress and strain tensors and linear elasticity. The state of stress in the earth’s crust. Rock material and rock mass failure criteria. The response of the rock mass to underground excavations, energy release rate and excess shear stress. Mining induced seismicity, rock bursts and measures to minimise mining induced seismicity so as to improve SHE. Elementary mine layout design, pillar design and underground excavation support and their effects on SHE. Stress analysis of mining layouts and mine layout optimisation. PSZ 703 Basic rock mechanics 703 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 1 Language of tuition: English Credits: 16 PSZ 786 Strata control: Hard-rock mining 786 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 2 Language of tuition: English Credits: 16 PSZ 788 Strata control: Collieries 788 Academic organisation: Mining Engineering Contact time: Self study Period of presentation: Semester 2 Language of tuition: English Credits: 16 PWP 121 Workshop practice 121 Academic organisation: Mining Engineering Contact time: 1 opw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: *Attendance modules only The modules are presented during the first year of study and, subject to departmental arrangements, can be attended either during July or December holiday periods. The 192
- 199. Engineering 2014 duration will be a minimum of two weeks, during which time the student will receive training in a mine as well as a mine workshop. Training will include the following maintenance aspects: rotary and percussion drills, transport equipment, hoists and hoist ropes, electrical motors, conveyor belts and pumps. A satisfactory report must be submitted within two weeks after the commencement of lectures of the following semester. PYI 890 Dissertation: Mining engineering 890 Academic organisation: Mining Engineering Period of presentation: Year Language of tuition: English Credits: 128 PYI 891 Dissertation 891 Academic organisation: Mining Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 SBM 321 Civil building materials 321 Academic organisation: Civil Engineering Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: The behaviour, properties and application of cement and concrete products, structural steel, fibre reinforcing, polimers, masonry work and bituminuous materials. SBZ 221 Civil engineering measurement techniques 221 Academic organisation: Civil Engineering Contact time: 1 ppw 2 lpw 3 tpw Period of presentation: Semester 2 Language of tuition: English Credits: 8 Module content: Measurement instruments and measurement techniques used in engineering applications. Theory of the Wheatstone bridge and the application of strain gauges to measurement instruments. Accuracy, precision, resolution, hysteresis and linearity. Load cells, pressure sensors, displacement transducers, stress cells and inclinometers. Adjustment and use of plane table, level, compass and theodite. Elementary site survey and levelling. Definition of survey. Coordinate systems and bearing. Method of determining levels. Tachometry. SBZ 420 Civil engineering construction management 420 Academic organisation: Civil Engineering Prerequisite: (SVC 412) Contact time: 1 ppw 1 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 Module content: Planning, needs assessment and performance indicators for contracts. Civil Engineering Project: client, consultant and contractors expectations and responsibilities. Tender process, construction process, application of OHS Act and Mine, Health and Safety Act, conditions of contract and claims, insurances, engineering economics, programming, costing, 1509001: quality management systems, life cycle concepts, maintenance cycle, maintenance management. 193
- 200. Engineering 2014 SCA 420 Computer applications in civil engineering 420 Academic organisation: Civil Engineering Prerequisites: (SHC 410) (SIN 411) (SIN 413) (SGM 323) (SVC 412) Contact time: 2 ppw 2 tpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: In this module commercially available computer packages will be used to develop models based on Finite Elements, Finite Differences and other approaches. Limitations and simple checks to ensure consistency of commonly used design software packages will be illustrated. Basic principles and techniques will be discussed and the effect of aspects such as meshing, element choice, boundary conditions and material properties will be investigated. Applications within the various fields of Civil Engineering will be considered. Results obtained from models will be compared to actual experimental results. This module will contain groupwork and multi-disciplinary problems will be solved. SDO 420 Detailed design 420 Academic organisation: Civil Engineering Prerequisite: (SHC 410), (SIN 411), (SIN 413), (SGM 323), (SVC 412) Contact time: 1 ppw 1 tpw 5 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 24 Module content: The module focuses on design applications. The student is exposed to the application of the classic disciplines of structures, geotechnical, hydraulics and transportation in detail design. Supervisors select the most valuable application in each discipline. Typical examples include the following: • Structures: Multi storey buildings with reinforced concrete frames and slabs • Hydraulics: Pump lines and stations • Geotechnical: Slimes dams • Transportation: Traffic impact studies, pavement design and analysis The applications selected for each discipline may vary from year to year. SEV 421 Environmental geotechnology 421 Academic organisation: Civil Engineering Contact time: 1 ppw 1 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Regulatory framework, site investigation, site restoration, and waste disposal. Site characterization methods. Waste types and properties. Subsurface contaminant transport. Multiphase fluid flow. Design of waste containment and waste disposal systems. Review of remedial alternatives with emphasis on in situ technologies. Case histories. Integrated environmental management processes. Environmental legislation in South Africa. Environmental impact, environmental auditing and risk analysis. ISO 140000: what it entails and how it is applied. Community participation. SGC 793 Pavement design 793 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year 194
- 201. Engineering 2014 Language of tuition: English Credits: 24 Module content: Design philosophy in First and Third World environments; characterising and use of pavement materials; drainage; systems approach to layout, geometric and pavement design; stresses and strains in pavements; mechanistic design methods and elasto- plastic behaviour; economic analysis; designing pavements for streets, gravel and paved roads, runways, and industrial areas. Report writing. SGC 794 Concrete technology 794 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Properties of concrete and concrete mixes. Characteristics of Portland cement and supplementary cementitious materials. Aggregates, admixtures and practical design of mixes. Manufacture, curing and testing, including non-destructive methods. Statistical approach to quality control. Time-dependent behaviour and durability of concrete. The principles for appropriate selection of materials and techniques for repair, maintenance and strengthening of civil engineering structures. Investigation and diagnosis. Corrosion of reinforcement. Alkali-aggregate reaction, sulphate attack. Physical degradation. Repair materials. Protective systems. Systems for repair. SGC 797 Road rehabilitation technology 797 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Development of road management systems and application to existing street and road networks. Evaluation of, and measurements on existing facilities. Maintenance management. Recycling of materials. Design methods for upgrading, re-construction and strengthening of the existing road infrastructure. Prerequisite: Pavement Design SGC 793. SGI 890 Dissertation 890 Academic organisation: Civil Engineering Period of presentation: Year Language of tuition: English Credits: 128 SGM 210 Geomaterials and processes 210 Academic organisation: Civil Engineering Contact time: 4 lpw 3 ppw Period of presentation: Semester 1 Language of tuition: Both Afrikaans and English Credits: 16 Module content: Solar system; Earth structure and systems; plate tectonics; classification and contextual setting of rocks and minerals; rock cycle. Internal and external geological processes; landscape formation; influences of geological environment on mankind. Geological time and the Earth’s history through time. Practicals involving identification and description of crystals, minerals and rocks. 195
- 202. Engineering 2014 SGM 221 Pavement materials and design 221 Academic organisation: Civil Engineering Prerequisite: SGM 210 GS Contact time: 1 tpw 2 lpw 2 ppw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Geological origin. Soil tests and classification systems. Compaction, stabilisation. Bitumen and tar. Introduction to pavements. Overview of road building materials. Pavement design principles and methods. SGM 311 Soil mechanics 311 Academic organisation: Civil Engineering Prerequisite: (SWK 210) Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to soil mechanics. Introduction to clay mineralogy. Mass, volume relationships and phases of soil. Groundwater flow and permeability. Effective stress principles. Suction pressures in saturated as well as partially saturated soil. The Mohr circle and stresses at a point. The Mohr-Coulomb strength theory and the stress-strain properties of soil. The Boussinesq theory. Consolidation theory and soil settlement. SGM 323 Geotechnical engineering 323 Academic organisation: Civil Engineering Prerequisite: (SGM 311) Contact time: 1 ppw 2 dpw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Application of consolidation theory. Bearing capacity of soil and foundation design, Terzaghi and general methods. Horizontal stresses in soil and design of retaining structures, Rankine and Couloumb’s methods. Slope stability including Bishop’s method of slices. Introduction to site investigation. SGM 785 Basic soil mechanics 785 Academic organisation: Civil Engineering Contact time: 20 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Introduction to soil mechanics, classification of soil characteristics, seepage and permeability, stress and strain in saturated and partially saturated soils, Mohr’s circle applications. SGM 787 Basic pavements and transportation 787 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 196
- 203. Engineering 2014 Module content: Pavements: The geological cycle and origin of road building materials, soil testing and classification systems, compaction, stabilization, bitumen, introduction to pavements, principles of pavement design and management. Transportation: Introduction to traffic analysis techniques, capacity and level of service concepts, traffic signal design, road geometric design, transport demand models and road safety engineering. SGS 780 Advanced geotechnical design 780 Academic organisation: Civil Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 8 SGS 787 Analytical soil mechanics 787 Academic organisation: Civil Engineering Contact time: 20 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Solution of confined and unconfined seepage problems using the methods of fragments, finite differences and finite elements. Numerical solutions of consolidation problems and secondary compression. Slope stability analysis methods. The point estimate method. Monte Carlo simulation. SGS 788 Theoretical soil mechanics 788 Academic organisation: Civil Engineering Contact time: 20 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Introduction to critical state soil mechanics. Stress and strain invariants. Stress paths. State boundary surfaces including Roscoe and Hvorslev surfaces. Cam clay model. Application of geotechnical constitutive models in finite element analysis. SGS 789 Specialised geotechnical testing 789 Academic organisation: Civil Engineering Contact time: 32 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Test procedures and interpretation of; Standard Penetration Test (SPT), Cone Penetration Test (CPT), Piezocone (CPTU) and seismic methods. Theory, application and interpretation of advanced geotechnical laboratory tests. Laboratory Instrumentation and calibration. Stress and strain conditions for laboratory tests. Triaxial stress space, stress paths. Triaxial tests, direct shear tests, oedometer test and Rowe cell test. SHC 310 Hydraulics 310 Academic organisation: Civil Engineering Prerequisite: (SWK 210) Contact time: 1 dpw 1 ppw 4 lpw 197
- 204. Engineering 2014 Period of presentation: Semester 1 Language of tuition: Double Medium Credits: 16 Module content: Fluid properties and fundamental principles of applied hydrostatic, hydrostatic forces on bodies, buoyancy and stability of bodies. Kinematics, flow rate measurement and velocity determination. Pipe flow and real fluids. Basic principles of water purification and water treatment. SHC 321 Hydraulics 321 Academic organisation: Civil Engineering Prerequisite: (SHC 310) Contact time: 1 ppw 1 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Double Medium Credits: 16 Module content: Pipe network analyses and municipal services. Components of water distribution networks. Pump selection and water hammer analyses. Free surface flows and model analyses. SHC 410 Hydraulics 410 Academic organisation: Civil Engineering Prerequisite: (SHC 310), SHC 321GS Contact time: 1 ppw 1 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Sediment transportation, hydraulic structures, bridges and culvert hydraulics, stormwater handling. Hydrology, flood hydrology, creation of runoff records and the simulation of surface water resources, creation of stochastic sequences and the reliability analysis of surface water resources. SHC 792 Flood hydrology 792 Academic organisation: Civil Engineering Contact time: 32 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: This course entails the calculation of design flows for different return periods, using the statistical, deterministic – and empirical methods. Dambreak analysis is included in this course as well as channel and level pool routing. SHC 793 Hydraulic design 793 Academic organisation: Civil Engineering Contact time: 32 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: This course covers the hydraulic aspects associated with the design of hydraulic structures for dams, road drainage, and other conveyance systems. The hydraulic considerations for the selection and design of energy dissipation structures are assessed in this course. 198
- 205. Engineering 2014 SHC 794 Free surface flow 794 Academic organisation: Civil Engineering Contact time: 32 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: This course entails the calculation of design flows for different return periods, using the statistical, deterministic – and empirical methods. Dambreak analysis is included in this course as well as channel and level pool routing. SHC 795 Pipe flow 795 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: The focus in this course will be on the practical aspects of pipeline design. The theoretical background to pipeline hydraulics will be covered and practical examples will be assessed. The following specific aspects such as pipeline hydraulics included dynamic pressures, pipeline component selection and design, pipeline installation and the testing and operation of pipelines will be covered in this course. SHC 796 Water resource analysis and management 796 Academic organisation: Civil Engineering Contact time: 32 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: In this course students will be familiarized with the background and procedures used in the creation of flow records and the use of the WRSM2005 model. Surface water systems will be analysed and gross yields will be determined. In the second part of the course the theory and procedures required for the yield determination of surface water resources will be discussed. SHC 797 Basic statistical methods 797 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Basic mathematical methods. Algebra. Matrices and matrix algebra. Series expansions. Differentiation and integration. Probability theory. Graphic analysis. Discrete and continuous probability distributions. Moments and expectation. Statistical sampling and experimental design. Parameter estimation. Confidence intervals. Hypothesis testing. Regression analysis. SHC 798 Applied statistical methods and optimisation 798 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 199
- 206. Engineering 2014 Module content: The course will apply some of the basics theories and methodologies in statistics and operations research to solve common civil engineering problems. The course seeks to demonstrate the use and application in the civil engineering field. Each of the applications seeks to determine how best to design and operate a system, usually under conditions requiring the allocation of scarce resources. Emphasis will be on the applications of these methods in common civil engineering practice. Some of the applications will include; optimum network design, maximum flow problem, project scheduling, queuing theory, Markov chain applications, etc. SHC 886 Advanced hydrology 886 Academic organisation: Civil Engineering Contact time: 10 lpw Period of presentation: Semester 1 or Semester 2 Language of tuition: English Credits: 32 SHW 785 Pump systems 785 Academic organisation: Civil Engineering Contact time: 32 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 SHW 788 Basic hydraulics 788 Academic organisation: Civil Engineering Contact time: 28 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: This course covers the basic hydraulic principles and their application. Themes covered include: fluid characteristics, fluid kinematics, pipe flow, pipe networks, introduction to pumps and pump stations, free surface flow, flow measurement, hydraulic assessment of hydraulic structures, storm water drainage and culvert systems and flood hydrology. SIB 310 Timber design 310 Academic organisation: Civil Engineering Prerequisite: SIN 223 GS Contact time: 1 tpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Self-weight, imposed and wind loads. Principles of limit-states design. Timber as a structural material, design of tension, compression and bending members (laterally braced and unbraced), beam columns, trusses and bracing. SIC 790 Basic structural analysis 790 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Virtual work and influence lines, analysis of statically indeterminate structures (two and three-dimensional), slope-deflection, superposition, stiffness and flexibility methods, matrix and computer methods, plastic analysis of portal frames. 200
- 207. Engineering 2014 SIC 793 Basic structural design 793 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: This course comprises two sections: reinforced concrete design and structural steel design. Reinforced concrete design covers the design of beams; behaviour and design of slabs; design of slender columns and columns subjected to bi-axial bending; design of simple and combined footings; staircase design; and an introduction to prestressed concrete. Structural steel design covers the characteristics of steel; design of structural steel members including elements in bending, and bending combined with tension and compression; design of portal frames; composite construction and the bending resistance of composite sections; and plastic design. SIE 310 Civil engineering economics 310 Academic organisation: Civil Engineering Contact time: 2 lpw 2 opw Period of presentation: Semester 1 Language of tuition: English Credits: 8 Module content: Introduction to engineering economics: Basic guidelines, assessment of alternative investment possibilities. Equal annual cash flow, current value, internal rate of return, cost benefit relationship. Economic evaluation of projects: Influence of depreciation on the economics of projects, determination of income tax implications of decisions, economic analysis of multiple alternatives, the influence of inflation on the economics of projects, application of the theory of probability for economics studies, economic studies on the replacement of equipment. SIK 780 Numerical methods for Civil Engineers 780 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: In this course, numerical procedures for solving complex engineering systems with the aid of linear equations, eigenvalue procedures, numerical integration, finite differences analyses, finite elements review, Fourier transformation and optimization will be reviewed and discussed. Some underlying theory for these numerical algorithms will be demonstrated and applicable and relevant problems associated with the use of these algorithms in the field of Civil Engineering will be covered. SIN 223 Structural analysis 223 Academic organisation: Civil Engineering Prerequisite: WTW 161, WTW 168 and SWK 210 Contact time: 1 tpw 2 ppw 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 201
- 208. Engineering 2014 Module content: Statically indeterminate beams. Euler buckling of columns with different boundary conditions. Virtual work. Analysis of statically indeterminate structures using the methods of super-position, slope-deflection and moment distribution (with sway and support displacement). SIN 311 Structural analysis 311 Academic organisation: Civil Engineering Prerequisite: SIN 223 Contact time: 1 ppw 1 tpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Analysis of symmetrical structures using slope-deflection equations or moment- distribution; three dimensional structures and grillages; plastic analysis of frames; matrix methods; influence lines. SIN 323 Steel design 323 Academic organisation: Civil Engineering Prerequisite: SIN 311 GS Contact time: 1 ppw 1 tpw 2 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Stability of beams. Material properties. Analysis and limit states design of tension, compression and flexural members, and beam-columns. Design of trusses, simple framed structures and connections. SIN 324 Reinforced concrete design 324 Academic organisation: Civil Engineering Prerequisite: SIN 311 GS Contact time: 1 ppw 1 tpw 2 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Properties of reinforced concrete. Principles of limit states design. Analysis and design of sections in flexure and in compression combined with flexure. Design for shear and torsion. Bond and anchorage. Serviceability requirements: Detailing and span-effective depth ratios. Design of footings and short columns. SIN 411 Steel design 411 Academic organisation: Civil Engineering Prerequisite: (SIN 323) Contact time: 1 ppw 1 tpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Analysis and design composite steel beam and concrete slab construction, Moment connections, Elastic and plastic design of portal, industrial and building structures. 202
- 209. Engineering 2014 SIN 413 Reinforced concrete design 413 Academic organisation: Civil Engineering Prerequisite: (SIN 324) Contact time: 1 ppw 1 tpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Behaviour and design of beams, slabs (solid, ribbed and waffle slabs, flat plates and flat slabs), columns (slender columns and biaxial bending), footings (simple and combined footings) and stairs. Introduction to the design of prestressed concrete flexural members. SIN 776 Steel design 776 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Introduction to structural reliability, tension elements, buckling of plates in compression elements, compression elements, beams and plate girders, plastic analysis and design of structures and structural elements, connections, composite design and steel-framed structures. SIN 777 Structural mechanics 777 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Continuum mechanics. Classical and numerical (finite difference and finite element) solutions for plane and plate structures. Plasticity and failure criteria. Elastic stability. Non-linear analysis. SIN 778 Reinforced concrete design 778 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Material properties. Behaviour and analysis of reinforced concrete members for flexure, axial loads, flexure plus axial load and shear. Cracking and deflection (short- and long- term) of flexural members. Plasticity in flexural members. Braced and unbraced slender columns. SIN 779 Timber design 779 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Timber properties, grading, treatment, structural form, element design and bracing of structures. Analysis of I-beams, composite beams, frames and connections. Research project. 203
- 210. Engineering 2014 SIN 790 Structural analysis 790 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Stiffness and flexibility methods for plane, grid and three-dimensional structures.In- plane stability of beam-columns and frames; effective lengths and lateral torsional instability of beams. Dynamics: free and forced, undamped and damped framed systems and mass matrices and natural frequencies. SIN 791 Pre-stressed concrete design 791 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Material properties; prestressing systems; flexural design; losses; effects of continuity; shear; deflections; anchorage; cracking; prestressed concrete slabs and detailing. SIN 890 Dissertation: Structural engineering 890 Academic organisation: Civil Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 SIR 780 Finite element applications in Civil Engineering 780 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: This course covers general finite element theory; discretization aspects related to geometry, nodes and numbering, element type and shape; interpolation functions; formulation of element characteristic matrices and vectors for elasticity problems; assembly and solution of the finite element equations; modelling procedures and results processing. More advanced applications of finite elements such as non-linear static elasticity, buckling, dynamics and transient thermal problems will be covered. In terms of the application of the Finite Element method, the student will choose a specific field (e.g. structures, geotechnical, transportation or water/hydrology) to apply the theory that was covered in the course to solve typical Civil Engineering problems. SIR 990 Thesis: Civil engineering 990 Academic organisation: Civil Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 360 SJJ 210 Professional and technical communication 210 Academic organisation: Civil Engineering Contact time: 2 lpw 2 opw Period of presentation: Semester 1 Language of tuition: English Credits: 8 204
- 211. Engineering 2014 Module content: Communicate effectively, both orally and in writing, with engineering audiences and the community at large. Written communication as evidenced by: uses appropriate structure, use of modern or electronic communication methods; style and language for purpose and audience; uses effective graphical support; applies methods of providing information for use by others involved in engineering activity; meets the requirements of the target audience. Effective oral communication as evidenced by appropriate structure, style and language; appropriate visual materials; delivers fluently; meets the requirements of the intended audience. Audiences range from engineering peers, management and lay persons, using appropriate academic or professional discourse. Typed reports range from short (300-1 000 word plus tables diagrams) to long (10 000- 15 000 words plus tables, diagrams, references and appendices), covering material at exit level. Methods of providing information include the conventional methods of the discipline, for example engineering drawings, as well as subject-specific methods. SPY 410 Practical training 410 Academic organisation: Civil Engineering Contact time: 1 opw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: *Attendance module only During or at the end of the third year of study, students in civil engineering undergo at least 6 weeks of prescribed training in the industry. A satisfactory report on the practical training must be submitted to the Student Administration within one week of registration. SSC 412 Research project 412 Academic organisation: Civil Engineering Prerequisite: (SHC 321) (SIN 323) (SIN 324) (SGM 323) (SBM 321) (SVC 323) Contact time: 2 tpw 6 ppw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 24 Module content: In the first semester, two full days of the week must be used by final-year students for the execution of an analytical and/or experimental research project. SSI 790 Infrastructure management 790 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: This module will cover the following topics: Asset Management principles, Maintenance Management principles, Maintenance strategies and philosophies, Condition based Maintenance, Reliability Centred Maintenance (RCM), Resource Management, Maintenance Management Systems, Total Productive Maintenance (TPM) and Risk Management. Maintenance management of the following disciplines will be studied in detail: Road infrastructure, Railway infrastructure, Airport infrastructure, Buildings and other structures, Water resources and water supply. 205
- 212. Engineering 2014 SSI 882 Guided special studies 882 Academic organisation: Civil Engineering Contact time: 10 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 32 SST 890 Dissertation 890 Academic organisation: Civil Engineering Period of presentation: Year Language of tuition: English Credits: 128 SVC 323 Transportation engineering 323 Academic organisation: Civil Engineering Prerequisite: BES 220 Contact time: 2 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to transportation engineering; vehicle performance and motion; traffic analysis techniques; traffic data collection; capacity and level of service analysis; railway engineering; airport capacity; geometric road design; cross-section, horizontal and vertical alignment; urban streets; layout considerations and intersection design; traffic control; traffic safety. SVC 412 Infrastructure planning 412 Academic organisation: Civil Engineering Prerequisite: SIE 310/BIE 310 Contact time: 2 ppw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to the basic concepts of urban and regional planning. The planning process, policy and institutional framework in which planning functions in SA. The interaction and co-operation of land and space, economy, politics and social aspects related to space in decision making. Interventions for sustainable development planning and design; definitions and rationale for land-use management and the strategic integrated development planning process. Infrastructure system evaluation, risk assessment, feasibility and decision analysis. Life cycle costing of infrastructure. Demand and supply analysis. Demand forecasting models. SVC 789 Transportation planning 789 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Introduction to transport planning processes and institutions in S.A. Introduction to contemporary issues in land use/transport planning (including in urban transport; rural transport; air transport; energy and environment). Social, economic, and political impacts and dependencies of transport. Project evaluation, discounting, inflation, engineering economic studies. Benefit - cost analysis. Risk and sensitivity analysis. Social accounting for transport projects. 206
- 213. Engineering 2014 SVC 790 Transportation studies 790 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Basic transportation relationships, land use, data collection and surveys. Four step transportation model, trip generation, trip distribution, modal split, trip assignment, advanced modelling approaches. Introduction to discrete choice models, econometrics, and stated preference analysis. Role of transport modelling in developmental context. SVC 791 Transportation special 791 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Basic transportation relationships, land use, data collection and surveys. Four step transportation model, trip generation, trip distribution, modal split, trip assignment, advanced modelling approaches. Introduction to discrete choice models, econometrics, and stated preference analysis. Role of transport modelling in developmental context. SVC 792 Traffic engineering 792 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Part 1: Traffic flow theory: Traffic and vehicle characteristics. Traffic flow studies. Traffic interactions. Traffic flow analysis and queuing theory. Traffic flow models. Traffic control theory. Part 2: Traffic studies and facility design: Transportation and land use. Traffic impact studies. Site planning and design. Determination of demand. Traffic control investigations. Intersection design. Internal circulation. Parking areas. SVI 890 Dissertation 890 Academic organisation: Civil Engineering Period of presentation: Year Language of tuition: English Credits: 128 SVV 788 Multimodal transport 788 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: The role of public transport in cities; theory and principles of public transport network design, scheduling and operations; terminals; public transport modes; costs, fares and subsidies; contemporary issues and approaches to public transport restructuring and formalisation in South Africa, including Bus Rapid Transit (BRT). Planning and designing for non-motorised transport, including pedestrians, bicyclists, and animal- drawn transport. 207
- 214. Engineering 2014 SVV 791 Geometric design and safety 791 Academic organisation: Civil Engineering Contact time: 40 Contact hours Period of presentation: Year Language of tuition: English Credits: 24 Module content: Rural/Peri-urban road networks: transportation policy, standards and safety, environmental quality, capacity, design, interchanges. Urban street networks: functional classes, town planning considerations, capacities, environment, safety, standards design, evaluation of road networks. Traffic safety in global and national content, Road Safety Engineering and the assessment and interpretation of accident information, reactive and proactive identification of remedial measures, traffic safety strategies: 3E model and Haddon matrix. SWK 122 Mechanics 122 Academic organisation: Civil Engineering Prerequisite: WTW 158 Contact time: 2 tpw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Equivalent force systems, resultants. Newton's laws, units. Forces acting on particles. Rigid bodies: principle of transmissibility, resultant of parallel forces. Vector moments and scalar moments. Relationship between scalar- and vector moments. Couples. Equivalent force systems on rigid bodies. Resultants of forces on rigid bodies. Equilibrium in two and three dimensions. Hooke's law. Trusses and frameworks. Centroids and second moments of area. Beams: distributed forces, shear force, bending moment, method of sections, relationship between load, shear force and bending moment. SWK 210 Strength of materials 210 Academic organisation: Civil Engineering Prerequisite: SWK 122, WTW 168 Contact time: 2 tpw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Stresses, strains and the mechanical properties of materials: Normal stress and shear stress, tension and compression, equilibrium in shear, factor of safety, design, shear strain, stress/strain diagram, Hooke’s Law, Poisson’s Ratio and the shear stress/strain diagram. Axial loads: Elastic deformation, displacements, statically determinate and indeterminate structures and thermal effects. Torsion: Torsion of circular bars and power transmission bending of straight members and composite beams. Transverse shear: Shear in straight members and shear flow. Combined loads: Thin walled pressure vessels and stresses as a result of combined loads. Stress transformation: Plane stress transformation, principle stresses, maximum values and stress variation in prismatic beams. Strain transformation: Plane strain transformation, principle strains, maximum values, strain gauges and rosettes and the relationship between E, G and υ. Design of beams from section characteristics. Deflection of beams: The elastic curve, integration method, Macaulay’s method and superposition. 208
- 215. Engineering 2014 SWK 211 Statics 211 Academic organisation: Civil Engineering Prerequisite: SWK 122 Contact time: 1 ppw 2 lpw 3 tpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: Centroids: centroids of lines, surfaces and volumes. Constraints and statical determinancy. Space trusses. Bending moments and cables: distributed loads, parabolic and uniform cables. Liquid statics: buoyancy. Elasticity: stress-strain, stiffness, elastic moduli relations, torsion. Deflection of beams: deriviation of differential equations, bending stresses. Friction: friction surfaces, wedges, screws, belt, bearings and rolling resistance. Work and energy, virtual work. Vibration. SWP 121 Workshop practice 121 Academic organisation: Civil Engineering Contact time: 1 opw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 6 Module content: *Attendance module only The module is offered at the end of the first year of study and lasts at least eight days during which the students receive training in the following workshops: formwork, scaffolding, masonry, welding and structural steel. WAI 780 Industrial waste engineering 780 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Identification of source materials, physical and chemical properties of waste. Release and transport mechanisms from source to air, groundwater, soil. Primary pathways of contaminants including sorption, volatilisation, biotic and abiotic transformations. Toxicology: absorption, distribution, biochemical transformation, and secretion of chemicals. Acute and chronic toxicity quantification and evaluation of risk. Hazard identification, exposure assessment, toxicity assessment and risk characterisation. Minimum requirements for the handling, classification and disposal of hazardous waste. Minimum requirements for waste disposal by landfill. Minimum requirements for water monitoring at waste management facilities. Recycling and resource management. Waste prevention, minimisation and optimisation. Focus on design aspects WAI 787 Industrial waste engineering 787 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 2 Language of tuition: English Credits: 32 Module content: Identification of source materials, physical and chemical properties of waste. Release and transport mechanisms from source to air, groundwater, soil. Primary pathways of contaminants including sorption, volatilisation, biotic and abiotic transformations. Toxicology: absorption, distribution, biochemical transformation, and secretion of 209
- 216. Engineering 2014 chemicals. Acute and chronic toxicity quantification and evaluation of risk. Hazard identification, exposure assessment, toxicity assessment and risk characterisation. Minimum requirements for the handling, classification and disposal of hazardous waste. Minimum requirements for waste disposal by landfill. Minimum requirements for water monitoring at waste management facilities. Recycling and resource management. Waste prevention, minimisation and optimisation. Focus on the science and not the design aspects WBK 890 Dissertation: Water resource engineering 890 Academic organisation: Civil Engineering Period of presentation: Year Language of tuition: Both Afr and Eng Credits: 128 WBW 780 Biological water treatment 780 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Composition and characterisation of sewage; Basic design principles of: Simple sewage treatment systems – night soil, pit latrines, septic tanks; Small scale sewage works – oxidation dams, biological filters and reed beds; Anaerobic digestion; Suspended – and Attached growth processes; Sludge handling and treatment. The module includes training and practice for simulation software for wastewater treatment processes. Focus on design aspects. WBW 787 Biological water treatment 787 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Composition and characterisation of sewage; Basic design principles of: Simple sewage treatment systems – night soil, pit latrines, septic tanks; Small scale sewage works – oxidation dams, biological filters and reed beds; Anaerobic digestion; Suspended – and Attached growth processes; Sludge handling and treatment. The module includes training and practice for simulation software for wastewater treatment processes. WCW 780 Chemical water treatment 780 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Water quality standards: drinking water quality standards (chemical), performance evaluation for drinking water treatment systems Basic water chemistry: Acid-base and solubility equilibrium chemistry; Chemistry of the carbonate system Conventional drinking water treatment: coagulation-flocculation; sedimentation, flotation; sand filtration; chlorination; chemical stabilisation. Advanced drinking water treatment: activated carbon adsorption; ozone and ultra-violet disinfection; enhanced coagulation; membrane processes; softening; iron and manganese removal. Industrial water treatment: chemical precipitation; neutralisation; oxidation-reduction; desalination processes; ion exchange. Focus on design aspects. 210
- 217. Engineering 2014 WCW 787 Chemical water treatment 787 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Water quality standards: drinking water quality standards (chemical), performance evaluation for drinking water treatment systems. Basic water chemistry: Acid-base and solubility equilibrium chemistry; Chemistry of the carbonate system. Conventional drinking water treatment: coagulation-flocculation; sedimentation, flotation; sand filtration; chlorination; chemical stabilisation. Advanced drinking water treatment: activated carbon adsorption; ozone and ultra-violet disinfection; enhanced coagulation; membrane processes; softening; iron and manganese removal. Industrial water treatment: chemical precipitation; neutralisation; oxidation-reduction; desalination processes; ion exchange. WQB 780 Water quality management 780 Academic organisation: Chemical Engineering Contact time: 32 contact hours per semester Period of presentation: Semester 1 Language of tuition: English Credits: 32 Module content: Water quality parameters: physical, chemical, biological, microbiological; Units of expression; Evaluation of parameters; Methods of analysis and practical laboratory analyses; Water quality interpretation, evaluation and assessment, water quality guidelines and requirements for domestic, industrial, agricultural, ecological, recreational requirements; Limnology and water quality in rivers and lakes; Surface water modelling; Ground water quality and assessment; Regulatory aspects including all relevant legislation; Integrated environmental management, integrated pollution control; Procedures to assess effluent discharge impacts; and Water quality management, policies and procedures, role of catchment management agencies, and catchment management plans. WWP 121 Workshop practice 121 Academic organisation: Mechanical and Aeronautical Engineering Contact time: 1 opw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 6 Module content: *Attendance module only The module is offered at the end of the first year of study and lasts at least eight days, during which training is given in the following workshops: electronic projects, panel wiring, electrical motors and switch gear, general machines, welding, turning and sheet metal work. Each student's progress is assessed after each workshop. XUW 710 Postgraduate course: Other universities 710 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Semester 1 Language of tuition: English Credits: 32 XUW 720 Postgraduate course: Other universities 720 Academic organisation: Electrical, Electronic and Computer Engineering Period of presentation: Semester 2 Language of tuition: English Credits: 32 211
- 218. Engineering 2014 List of modules presented by other faculties Faculty of Humanities HAS 110 Humanities and social sciences 110 Academic organisation: Anthropology and Archaeology Contact time: 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Social sciences: Perspectives on contemporary society An introduction to long-standing questions about the nature of human societies and contemporary challenges. Topics to be discussed include globalisation and increasing connectedness; rising unemployment, inequality and poverty; rapid urbanisation and the modern city form; transformations in the nature of work; environmental degradation and tensions between sustainability and growth; shifts in global power relations; the future of the nation-state and supra-national governance structures; and possibilities for extending human rights and democracy. Critical questions are posed about modern selfhood, sociality, culture and identity against the background of new communications technologies, ever more multicultural societies, enduring gender, class and race inequities, and the emergence of new and the resurgence of older forms of social and political identity. These issues are approached from the vantage of our location in southern Africa and the continent, drawing on social science perspectives. HAS 120 Humanities and social sciences 120 Academic organisation: Afrikaans Contact time: 2 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Humanities: Text, culture and communication Successful communication of ideas, values and traditions depends on understanding both the literal and implied meanings of texts. In this module students are introduced to a variety of texts, including original literary and visual texts, with a view to developing an understanding of how textual meanings have been constructed and negotiated over time. Students are encouraged to understand themselves as products of – and participants in – these traditions, ideas and values. Appropriate examples will be drawn from, among others, the Enlightenment, Modernism, Existentialism, Postmodernism and Post-colonialism. Faculty of Natural and Agricultural Sciences CHM 171 General chemistry 171 Academic organisation: Chemistry Contact time: 1 dpw 4 lpw 1 ppw 1 wbppw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 212
- 219. Engineering 2014 Module content: General introduction to inorganic, analytical and physical chemistry. Nomenclature of inorganic ions and compounds, stoichiometric calculations concerning chemical reactions, redox reactions, solubilities and solutions, atomic structure, periodicity. Molecular structure and chemical bonding using the VSEPR model. Principles of reactivity, electrochemistry, energy and chemical reactions, entropy and free energy. Appropriate tutorial classes and practicals. CHM 172 General chemistry 172 Academic organisation: Chemistry Contact time: 1 dpw 4 lpw 1 ppw 1 wbppw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: General introduction to inorganic, analytical and physical chemistry. Nomenclature of inorganic ions and compounds, stoichiometric calculations concerning chemical reactions, redox reactions, solubilities and solutions, atomic structure, periodicity. Molecular structure and chemical bonding using the VSEPR model. Principles of reactivity, electrochemistry, energy and chemical reactions, entropy and free energy. Appropriate tutorial classes and practicals. CHM 181 General chemistry 181 Academic organisation: Chemistry Contact time: 1 dpw 4 lpw 1 ppw 1 wbppw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: General physical-analytical chemistry: Physical behaviour of gases, liquids and solids, intermolecular forces, solutions, chemical equilibrium, acids and bases, buffers, precipitation. Organic chemistry: Structure (bonding) and functional groups, nomenclature, isomerism, introductory stereo-chemistry, introduction to chemical reactions and chemical properties of organic compounds. Appropriate tutorial classes and practicals. CHM 215 Chemistry 215 Academic organisation: Chemistry Prerequisite: CHM 171 or CHM 172 and CHM 181 Contact time: 1 dpw 3 lpw 1 ppw 1 wbppw Period of presentation: Semester 1 Language of tuition: Double Medium Credits: 16 Module content: Organic chemistry. Chemical properties of organic (including aromatic) compounds. Functional group transformation and synthesis. Physical chemistry. Colloid chemistry. Surface chemistry and processes at solid surfaces. PVT properties of real gases. CHM 226 Chemistry 226 Academic organisation: Chemistry Prerequisite: CHM 171 or CHM 172 and CHM 181 Contact time: 2 lpw 6 ppw Period of presentation: Semester 2 Language of tuition: Double Medium Credits: 8 213
- 220. Engineering 2014 Module content: Theory: Introduction to instrumental chemical analysis. Integration of electronic, chemical, optical and computer principles for the construction of analytical instrumentation. Detail discussion of principles and some instrumental methods from three disciplines within analytical chemistry, namely electrochemistry, spectroscopy and chromatography. This includes potentiometry, (AA) atomic absorption-, (ICP) atomic emission-, ultraviolet (UV)-, and infrared (IR) spectroscopy, potentiometric and photometric titrations, gas chromatography, liquid chromatography as well as combinations of these techniques. Practical: IR spectroscopy, UV spectroscopy, AA spectroscopy, potentiometric titration, gas chromatography. FSK 116 Physics 116 Academic organisation: Physics Contact time: 1 dpw 4 lpw 1 ppw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introductory mathematics: Symbols, exponents, logarithms, angles in degrees, radial measure, goniometry, differentiation, and integration. Motion along a straight line: position and displacement, acceleration. Vectors: adding vectors, components, multiplying vectors. Motion in two and three dimensions: projectile motion, circular motion. Force and motion: Newton’s Law, force, friction. Kinetic energy and work: work, power. Potential energy: Centre of mass, linear momentum. Collisions: impulse and linear momentum, elastic collisions, inelastic collisions. Rotation: kinetic energy of rotation, torque. Oscillations and waves: Simple harmonic motion, types of waves, wavelength and frequency, interference of waves, standing waves, the Doppler effect. Temperature, heat and the first law of thermodynamics. FSK 176 Physics 176 Academic organisation: Physics Contact time: 1 dpw 4 lpw 1 ppw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introductory mathematics: Symbols, exponents, logarithms, angles in degrees, radial measure, goniometry, differentiation, and integration. Motion along a straight line: position and displacement, acceleration. Vectors: adding vectors, components, multiplying vectors. Motion in two and three dimensions: projectile motion, circular motion. Force and motion: Newton’s Law, force, friction. Kinetic energy and work: work, power. Potential energy: Centre of mass, linear momentum. Collisions: impulse and linear momentum, elastic collisions, inelastic collisions. Rotation: kinetic energy of rotation, torque. Oscillations and waves: Simple harmonic motion, types of waves, wavelength and frequency, interference of waves, standing waves, the Doppler effect. Temperature, heat and the first law of thermodynamics. GLY 155 Introduction to geology 155 Academic organisation: Geology Prerequisite: Refer to Regulation 1.2 Contact time: 4 lpw 1 ppw Period of presentation: Semester 1 Language of tuition: Eng Credits: 16 214
- 221. Engineering 2014 Module content: Solar system; structure of solid matter; minerals and rocks; introduction to symmetry and crystallography; important minerals and solid solutions; rock cycle; classification of rocks. External geological processes (gravity, water, wind, sea, ice) and their products (including geomorphology). Internal structure of the earth. The dynamic earth – volcanism, earthquakes, mountain building – the theory of plate tectonics. Geological processes (magmatism, metamorphism, sedimentology, structural geology) in a plate tectonic context. Geological maps and mineral and rock specimens. GLY 161 Historical geology 161 Academic organisation: Geology Prerequisite: Par 1.2 Contact time: 4 lpw 1 ppw Period of presentation: Quarter 4 Language of tuition: Eng Credits: 8 Module content: Principles of stratigraphy and stratigraphic nomenclature; geological dating and international and South African time scales; Africa framework and tectonic elements of South Africa; introduction to depositional environments. Overview of the historical geology of South Africa, from the Archaean to the present: major stratigraphic units, intrusions and tectonicmetamorphic events - their rock types, fossil contents, genesis and economic commodities. Principles of palaeontology and short description of major fossil groups: fossil forms, ecology and geological meaning. Geological maps and profiles; rock samples. GLY 254 Structural geology 254 Academic organisation: Geology Prerequisite: CMY 117, GLY 155 and 1 of GLY 161, GLY 162 and WTW 114 or WTW 158 or PHY 114 Contact time: 4 lpw 1 ppw Period of presentation: Quarter 1 Language of tuition: Eng Credits: 12 Module content: Integrated theoretical and practical course dealing with the principles of rock deformation and analysis of deformed rocks. Stress, strain and rheology, joints, experimental rock deformation, fault systems and Anderson’s theory of faulting. Folds and interference folding, tectonic fabrics, shear zones, progressive deformation. Stereographic projection and structural analysis. GLY 361 Ore deposits 361 Academic organisation: Geology Prerequisite: Five of the second year modules: GLY253, GLY254, GLY255, GLY261, GLY262, GLY265 Contact time: 4 lpw 2 ppw Period of presentation: Quarter 2 Language of tuition: Eng Credits: 18 Module content: Systematic review of major metallic and non-metallic ore types and examples in South Africa and world-wide; ore type models (grades, tonnages); geometry of ore bodies; mining. Ore samples and ore mineralogy. Mapping techniques. 215
- 222. Engineering 2014 SUR 220 Surveying 220 Academic organisation: Geography, Geoinformatics and Meteorology Contact time: 3 lpw 1 ppw Period of presentation: Semester 2 Language of tuition: Double Medium Credits: 16 Module content: Adjustment and use of following instruments: Plane table, level, compass and theodolite. Elementary site surveying and leveling, tachometry. Definition of survey. Co- ordinate systems and bearing. Connections and polars. Methods of determining points. Elevation. Tachometry. WTW 158 Calculus 158 Academic organisation: Mathematics and Applied Mathematics Prerequisite: Refer to Regulation 1.2 Contact time: 4 lpw 1 tpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: *This module is designed for first-year engineering students. Students will not be credited for more than one of the following modules for their degree: WTW 158, WTW 114, WTW 134. Introduction to vector algebra. Functions, limits and continuity. Differential calculus of single variable functions, rate of change, graph sketching, applications. The mean value theorem, the rule of L'Hospital. Indefinite integrals, integration. WTW 161 Linear Algebra 161 Academic organisation: Mathematics and Applied Mathematics Prerequisite: Refer to Regulation 1.2 Contact time: 2 lpw 1 tpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: *This module is designed for first-year engineering students. Students will not be credited for more than one of the following modules for their degree: WTW 161, WTW 126. Vector algebra with applications, matrix algebra, systems of linear equations, the vector space Rn, bases, determinants. Mathematical induction. Complex numbers and factorisation of polynomials. Conic sections. This module also includes a formal technique mastering programme. WTW 168 Calculus 168 Academic organisation: Mathematics and Applied Mathematics Prerequisite: WTW 114 GS or WTW 158 GS Contact time: 2 lpw 1 tpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: *This module is designed for first-year engineering students. Students will not be credited for more than one of the following modules for their degree: WTW 168, WTW 128, WTW 138. Integration techniques, improper integrals. The definite integral, fundamental theorem of Calculus. Applications of integration. Elementary power series and Taylor's theorem. 216
- 223. Engineering 2014 Vector functions, space curves and arc lengths. Quadratic surfaces and multivariable functions. WTW 238 Mathematics 238 Academic organisation: Mathematics and Applied Mathematics Prerequisite: WTW 256 and WTW 258 GS Contact time: 4 lpw 2 tpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Linear algebra, eigenvalues and eigenvectors with applications to first and second order systems of differential equations. Sequences and series, convergence tests. Power series with applications to ordinary differential equations with variable coefficients. Fourier series with applications to partial differential equations such as potential, heat and wave equations. WTW 256 Differential equations 256 Academic organisation: Mathematics and Applied Mathematics Prerequisite: WTW 158, WTW 161 and WTW 168 Contact time: 1 dpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Theory and solution methods for linear differential equations as well as for systems of linear differential equations. Theory and solution methods for first order non-linear differential equations. The Laplace transform with application to differential equations. Application of differential equations to modelling problems. WTW 258 Calculus 258 Academic organisation: Mathematics and Applied Mathematics Prerequisite: WTW 158 and WTW 168 Contact time: 1 dpw 2 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 8 Module content: Calculus of multivariable functions, directional derivatives. Extrema. Multiple integrals, polar, cylindrical and spherical coordinates. Line integrals and the theorem of Green. Surface integrals and the theorems of Gauss and Stokes. WTW 263 Numerical Methods 263 Academic organisation: Mathematics and Applied Mathematics Prerequisite: WTW 161 and WTW 168 Contact time: 1 dpw 2 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 8 Module content: Numerical integration. Numerical methods to approximate the solution of non-linear equations, systems of equations (linear and non-linear), differential equations and systems of differential equations. Direct methods to solve linear systems of equations. 217
- 224. Engineering 2014 Faculty of Law BER 310 Business law 310 Academic organisation: Mercantile Law Contact time: 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Introduction to law. General principles of the law of contract. Specific contracts: purchase contracts; letting and hiring of work; employment contracts. Agency. General aspects of entrepreneurial law. Dispute resolution – mediation and arbitration. Faculty of Economic and Management Sciences ABV 320 Labour relations 320 Academic organisation: Human Resource Management Contact time: 3 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 20 Module content: The theoretical basis of Labour Relations In this section the basic concepts, historical context and theoretical approaches to the field of labour relations will be discussed. The institutional framework in which labour relations operates, will be addressed with particular emphasis on the structural mechanisms and institutional processes. The service relationship that forms the basis of labour relations practices, will also be analysed. Labour Relations practice In this section students are taught the conceptual and practical skills related to practice aspects such as handling of grievances, disciplining, retrenchments, collective bargaining, industrial action and dispute resolution. BSR 410 Management Accounting 410 Academic organisation: Financial Management Prerequisite: FBS 110 Contact time: 6 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 Module content: The work of management and the need for managerial accounting information. The changing business environment. Cost terms, concepts, and classification. Job order costing. Process costing. Activity-based costing and quality management. Cost-volume- profit relations. Variable and fixed costing. Budgeting and control. Standard costs and flexible budgets. Segment reporting and decentralisation. Relevant costs for decision- making. Allocations of service departments cost to operating departments. FBS 110 Financial management 110 Academic organisation: Financial Management Contact time: 3 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 10 218
- 225. Engineering 2014 Module content: *Only for BSc (Mathematical Statistics. Construction Management, Real Estate and Quantity Surveying) and BEng (Industrial Engineering) students. Purpose and functioning of financial management. Basic financial management concepts. Accounting concepts and the use of the basic accounting equation to describe the financial position of a business. Recording of financial transactions. Relationship between cash and accounting profit. Internal control and the management of cash. Debtors and short-term investments. Stock valuation models. Depreciation. Financial statements of a business. Distinguishing characteristics of the different forms of businesses. Overview of financial markets and the role of financial institutions. Risk and return characteristics of various financial instruments. Issuing ordinary shares and debt instruments. FBS 830 Financial management 830 Academic organisation: Financial Management Contact time: 1 lpw Period of presentation: Semester 2 Language of tuition: English Credits: 16 FBS 831 Financial management 831 Academic organisation: Financial Management Contact time: 1 lpw Period of presentation: Semester 1 Language of tuition: English Credits: 16 PEM 883 People management 883 Academic organisation: Human Resource Management Contact time: 3 dpw 16 lpw 2 wbppw Period of presentation: Semester 2 Language of tuition: English Credits: 16 PEM 884 People management 884 Academic organisation: Human Resource Management Contact time: 3 dpw 16 lpw 2 wbppw Period of presentation: Semester 1 Language of tuition: English Credits: 16 School of Information Technology COS 110 Program design: Introduction 110 Academic organisation: Computer Science Prerequisite: COS 153 or COS 131 or COS 132 and Maths level 5 or WTW 133 Contact time: 1 ppw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: The focus is on object-oriented (OO) programming. Concepts including inheritance and multiple inheritance, polymorphism, operator overloading, memory management (static and dynamic binding), interfaces, encapsulation, reuse, etc. will be covered in the module. The module teaches sound program design with the emphasis on modular code, leading to well structured, robust and documented programs. A modern OO 219
- 226. Engineering 2014 programming language is used as the vehicle to develop these skills. The module will introduce the student to basic data structures, lists, stacks and queues. COS 131 Introduction to programming 131 Academic organisation: Computer Science Contact time: 1 ppw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: *Note: All students not registered for programmes in the School of IT need to enrol for this module. The aim of this module is to acquire a sound knowledge of basic computer programming concepts and an introductory knowledge of data structures. The theory of these concepts, as well as design methodologies, will be investigated. Understanding rather than memorising is emphasised in order to stimulate creative thinking and the development of innovative skills amongst students in the field of computer programming. The C programming language is used to implement these concepts. At the end of the module a short introduction to object-oriented programming using C++ will be given. After completing this module, a student should be able to design and write structured, efficient programs using the C programming language, be familiar with the basic data structures, pointers and file processing, and have an introductory knowledge of advanced data structures and object-orientation. COS 212 Data structures and algorithms 212 Academic organisation: Computer Science Prerequisite: COS 110 Contact time: 1 ppw 4 lpw Period of presentation: Semester 1 Language of tuition: Both Afr and Eng Credits: 16 Module content: Data abstraction is a fundamental concept in the design and implementation of correct and efficient software. In prior modules, students are introduced to the basic data structures of lists, stacks and queues. This module continues with advanced data structures such as trees, hash tables, heaps and graphs, and goes into depth with the algorithms needed to manipulate them efficiently. Classical algorithms for sorting, searching, traversing, packing and game playing are included, with an emphasis on comparative implementations and efficiency. At the end of this module, students will be able to identify and recognise all the classical data structures; implement them in different ways; know how to measure the efficiency of implementations and algorithms; and have further developed their programming skills, especially with recursion and polymorphism. COS 222 Operating systems 222 Academic organisation: Computer Science Prerequisite: COS 153 or COS 131 or COS 132 Contact time: 1 ppw 4 lpw Period of presentation: Semester 2 Language of tuition: Both Afr and Eng Credits: 16 Module content: Fundamental concepts of modern operating systems in terms of their structure and the mechanisms they use are studied in this module. After completing this module, students will have gained, as outcomes, knowledge of real time, multimedia and multiple 220
- 227. Engineering 2014 processor systems, as these will be defined and analysed. In addition, students will have gained knowledge on modern design issues of process management, deadlock and concurrency control, memory management, input/output management, file systems and operating system security. In order to experience a hands-on approach to the knowledge students would have gained from studying the abovementioned concepts, students will have produced a number of practical implementations of these concepts using the Windows and Linux operating systems. E&OE 221