Lecture notes on_construction_project_ma

LECTURE NOTES
ON
CONSTRUCTION
PROJECT MANAGEMENT
Emad Elbeltagi, Ph.D., P.Eng.,
Professor of Construction Management
Structural Engineering Department,
Faculty of Engineering,
Mansoura University

Construction Project Management
2009
Copyright © 2009 by the author. All rights reserved. No part of this book may be
reproduced or distributed in any form or by any means, or stored in a data base or
retrieval system, without the prior written permissions of the author.

i
PREFACE
In the Name of ALLAH the Most Merciful, the Most Compassionate
All praise is due to ALLAH and blessings and peace be upon His messenger and servant,
Muhammad, and upon his family and companions and whoever follows his guidance
until the Day of Resurrection.
Construction project management is a relatively young field. However, its impact has
been quite remarkable. It has become an important practice for improving the efficiency
of construction operations around the world. This book deals with some topics and tools
of the large field of project management.
This book is dedicated mainly to undergraduate engineering students, especially Civil
Engineering students where most of the applications are presented in the civil engineering
field. It provides the reader with the main knowledge to manage a construction project
from preliminary stages to handover. It includes eight chapters: Chapter 1 provides a
general introduction to construction projects in terms of their types, project life cycle and
the main players involved. Chapter 2 is dedicated for the contract strategy. The planning
stages of a construction project are presented in chapter 3. Chapter 4 is dedicated for
presenting different scheduling techniques along with the schedule representation.
Chapter 5 is dedicated to discuss the scheduling methods on non-deterministic activity
durations. The scheduling of linear projects is presented in chapter 6. Chapter 7 is dealing
with both the resource scheduling and smoothing problems. The schedule compression is,
also, presented in chapter 8. Chapter 9 is dedicated for the project finance and cash flow
analysis. Finally, chapter 01 is dedicated for project control. Many solved examples have
been added to enable the students to understand the material presented in this book. Also,
each chapter is followed by exercises for training purposes.
Finally, May ALLAH accepts this humble work and I hope it will be beneficial to its
readers.

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TABLE OF CONTENTS
CHAPTER 1: INTRODUCTION
1.1 The Need for Project Management 1
1.2 The Construction Project 2
1.3 The Project Scope and Goals 3
1.4 The Project Life-Cycle 6
1.4.1 Preconstruction phase 9
1.4.2 Procurement phase (Bidding and award phase) 10
1.4.3 Construction Phase 10
1.4.4 Closeout Phase 11
1.5 Major Types of Construction Projects 11
1.5.1 Residential Housing Construction 11
1.5.2 Institutional and Commercial Building Construction 12
1.5.3 Specialized Industrial Construction 13
1.5.4 Infrastructure and Heavy Construction 13
1.6 Construction Projects Participants 14
1.6.1 The Owner (Client) 14
1.6.2 The Design Professionals 15
1.6.3 The Construction Professionals 15
1.6.4 The Project Manager 16
1.7 Exercises 17
CHAPTER 2: CONTRACT STRATEGY
2.1 What is a Contract 19
2.2 Selection of Contract Type 20
2.2.1 Project Objectives 21
2.2.2 Project Constraints 22
2.3 Project Delivery Methods 23

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2.3.1 Traditional Approach 23
2.3.2 Direct Labor 24
2.3.3 Design-Build 24
2.3.4 Turnkey 25
2.3.5 Build-Operate-Transfer (BOT) 25
2.3.6 Professional Construction Management (PCM) 26
2.3.7 Contractual Relationships 26
2.4 Types of Contracts 28
2.4.1 Lump-sum Contract 28
2.4.2 Admeasurement Contract 29
2.4.3 Cost-reimbursable Contract (cost-plus contract) 30
2.4.4 Target Cost Contract 30
2.4.5 Time and Material (T&M) Contract 31
2.5 Contract Administration 31
2.5.1 Contract Documents 32
2.5.2 Conditions of Contract 33
2.5.3 The Standard (general) Forms of Conditions of Contract 34
2.5.4 Special Conditions of Contract 36
2.5.4 Construction claims Contract 37
2.6 Selecting the Contractor 38
2.7 Sub-Contracting 38
2.8 Exercises 39
CHAPTER 3: PROJECT PLANNING
3.1 Introduction 42
3.2 Project Planning Steps 43
3.2.1 Work Breakdown Structure (WBS) 44
WBS and organizational breakdown structure (OBS) 47
WBS coding 47

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3.2.2 Project Activities 48
3.2.3 Activities Relationships 52
Logical relationship considering resource constraints 54
Overlap or lag 55
Types of activities relationships 58
3.2.4 Drawing Project Network 58
Activity on arrow network (AOA) 59
Activity on node network (AON) 60
Comparison between AOA and AON 61
3.3 Estimating Activity Duration and Direct Cost 65
3.4 Exercises 68
CHAPTER 4: PROJECT SCHEDULING
4.1 The Critical Path Method 75
4.2 Calculations for the Critical Path Method 76
4.2.1 Activity-On-Arrow Networks Calculations 76
Forward path 77
Backward path 79
Float calculations 81
Identifying the Critical Activities 83
4.2.2 Precedence Diagram Method (PDM) 83
4.3 Time-Scaled Diagrams 84
4.4 Schedule Presentation 88
4.5 Criticisms to Network Techniques 89
4.6 Solved Examples 90
4.6.1 Example 1 90
4.6.2 Example 2 91
4.6.3 Example 3 92
4.6.4 Example 4 93
4.7 Exercises 94

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CHAPTER 5: STOCHASTIC SCHEDULING
5.1 Scheduling with Uncertain Durations 100
5.1.1 Program Evaluation and Review Technique 102
5.1.2 Criticism to Program Evaluation and Review Technique 109
5.2 Monte Carlo Simulation 110
5.2.1 Monte Carlo Simulation Characteristics 110
5.2.2 Monte Carlo Simulation Process 110
5.2.3 Criticality Index 113
5.3 Exercises 113
CHAPTER 6: SCHEDULING OF LINEAR PROJECTS
6.1 Linear Projects 116
6.2 Resource-Driven Scheduling 117
6.3 Summary Diagrams 117
6.3.1 Summary Diagrams Using One Relationship 117
6.3.2 Summary Diagrams Using Two Relationships 120
6.4 Line of Balance (LOB) 123
6.4.1 Basic Representation 123
6.4.2 LOB Calculations 125
Crew synchronization 126
Meeting a deadline duration 127
Calculating resource needs 128
Drawing the LOB Schedule 130
6.5 Exercises 134
CHAPTER 7: RESOURCES MANAGEMENT
7.1 Resource Definition 136
7.2 Resource Management 137
Resource leveling (smoothing) 138
Resource scheduling 138

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7.3 Resource Allocation 129
7.4 Resource Aggregation (Loading) 129
7.5 Resource Leveling (Smoothing) 141
7.5.1 Method of Moments for Resource Smoothing 142
7.5.2 Heuristic Procedure for Resource Smoothing 143
7.6 Scheduling with Limited Resource 152
7.7 Case Study 154
7.8 Exercises 161
CHAPTER 8: PROJECT TIME-COST TRADE-OFF
8.1 Time-Cost Trade-Off 164
8.2 Activity Time-Cost Relationship 165
8.3 Project Time-Cost Relationship 169
8.4 Shortening Project Duration 170
8.5 Exercises 180
CHAPTER 9: PROJECT FINANCE AND CONTRACT PRICING
9.1 Contract Cash Flow 182
9.1.1 Construction Project Costs 183
Project direct costs 183
Project indirect costs 184
9.1.2 The S-Curve 186
9.1.3 Project Income (Cash-in) 188
9.1.4 Calculating Contract Cash Flow 190
9.1.5 Minimizing Contractor Negative Cash Flow 195
9.1.6 Cost of Borrowing (Return on Investment) 197
9.2 Project Cash Flow 202
9.2.1 Project Profitability Indicators 203
9.3 Discounted Cash Flow 205
9.3.1 Present Value 205
9.3.2 Net Present Value (NPV) 206

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9.3.3 Internal Rate of Return (IRR) 207
9.4 Finalizing a Tender Price 208
9.4.1 Estimating Profit Margin 209
9.4.2 Risk Management 209
Risk Identification 210
Response to Risk and Uncertainties 213
Risk Analysis 214
9.5 Pricing Policy 217
9.5.1 Balanced bid (straight forward method) 217
9.5.2 Unbalanced bid (Loading of Rates) 218
9.5.3 Method Related Charge 222
9.6 Exercises 225
CHAPTER 10: PROJECT CONTROL
10.1 Problems that may Arise During Construction 229
10.2 Schedule Updating 230
10.3 Delays Analysis 234
10.3.1 Types of Delays 234
10.3.2 The As-Built Schedule 236
10.3.3 Analysis of Concurrent Delays 237
10.4 Earned Value Management 240
Budgeted Cost of Work Scheduled (BCWS) 241
Budgeted Cost of Work Performed (BCWP) 241
Actual Cost of Work Performed (ACWP) 241
10.5 Exercises 245
REFERENCES 248

Construction Management 1 Dr. Emad Elbeltagi
CHAPTER 1
INTRODUCTION
1.1 The Need for Project Management
The construction industry is the largest industry in the world. It is more of a service than
a manufacturing industry. Growth in this industry in fact is an indicator of the economic
conditions of a country. This is because the construction industry consumes a wide
employment circle of labor. While the manufacturing industry exhibit high-quality
products, timelines of service delivery, reasonable cost of service, and low failure rates,
the construction industry, on the other hand, is generally the opposite. Most projects
exhibit cost overruns, time extensions, and conflicts among parties. Figure 1.1 is an
example of a complicated project. Table 1.1, also, exhibits some magnificent projects that
suffered from huge cost overruns.
Figure 1.1: Example of a complicated project

Table 1.1: Magnificent projects with huge cost overruns
Project Cost overruns (%)
Suez Canal
Sydney Opera House
Concorde Supersonic Aeroplane
Panama Canal
Brooklyn Bridge
1,900
1,400
1,100
200
100
(Source: Mette K. Skamris, 'Economic Appraisal of Large-Scale Transport
Infrastructure Investments', Ph.D dissertation, Aalborg University, 2000).
In general, the construction industry is more challenging than other industries due to: its
unique nature; every project is one-of a kind; many conflicting parties are involved;
projects are constrained by time, money and quality; and high risk.
1.2 The Construction Project
A project is defined, whether it is in construction or not, by the following characteristics:
- A defined goal or objective.
- Specific tasks to be performed.
- A defined beginning and end.
- Resources being consumed.
The goal of construction project is to build something. What differentiate the construction
industry from other industries is that its projects are large, built on-site, and generally
unique. Time, money, labor, equipment, and, materials are all examples of the kinds of
resources that are consumed by the project.
Projects begin with a stated goal established by the owner and accomplished by the
project team. As the team begins to design, estimate, and plan out the project, the
members learn more about the project than was known when the goal was first
established. This often leads to a redefinition of the stated project goals.

1.3 The Project Scope and Goals
Project Goal Setting
You can’t hit a target if you don’t know what it looks like. Similarly, you can’t possibly
reach your project’s goal if you don’t know what it is. When you understand how your
project fits in with the broader company direction, it’s time to really pin down your goal.
“But,” you say, “I know exactly what my goal is, because my boss told me.” However, a
set of deliverables isn’t necessarily a goal. On first consideration, you might say the goal
of expanding the railroad westward in the United States was to enable a train to go from
coast to coast. But was it? Perhaps the goal of those railroad barons was not to get a train
to go cross country, but to open up opportunities for commerce in the West. It’s time to
put the same kind of thought to your project’s goal.
Getting your goal straight
Say your project involves training new employees in a new software system. Your goal in
training them on this software could be to:
- Make employees more productive in their jobs.
- Enable employees to better serve customers.
- Create a prototype program with reduced training costs that can be used to reduce
overall training costs across the company.
- Increase employee retention by providing useful on-the-job skills. These goals
suggest different priorities as well as different measurements for gauging the
degree to which your project has succeeded in meeting its goal.
How, exactly, do you go about determining your goal? First, go back to the person who
asked you to take on the project and grill him or her about what’s expected of this project.
Should the training have a measurable impact on job performance, customer satisfaction,
employee retention, or cost of delivery? The answer you get might be that the project
should do all of these things. But think about whether that’s realistic and whether one of
these goals should be paramount in guiding you and your project team. If overall training
program cost reduction is the biggest goal factor, for example, employee productivity

might have to take a back seat when you’re making choices along the way. If customer
satisfaction is the real goal, training costs might have to be adjusted accordingly.
Writing a goal statement
After you get more specifics about your project’s goal, it’s a good idea to put your goal in
writing in a goal statement. A goal statement outlines why you’re doing this project and
what you hope to accomplish at the end. You don’t get down to specific deliverables and
parameters in a goal statement. For now focus on the why and the desired result.
Here are a few sample goal statements:
- The goal of the project is to upgrade the shopping cart feature on our Web site to
be easier to use so we can increase online sales by 25 percent.
- Our goal is to reduce human resource workload by 10 percent by offering self-
service information on job benefits on the company intranet.
Using the example of a training project, consider for a moment what such a project might
involve. Are you supposed to write new training materials, hire staff to deliver classes,
analyze the training’s effectiveness, update training materials as needed, and promote the
training internally? In that case, the scope of your project involves managing the entire
creation, delivery, and maintenance of a training program. Or is your goal to simply
create the training materials? Or should your focus be limited to launching the new
training, including promoting it to management and staff? These goals indicate very
different projects, each with its own set of deliverables, tasks, resources, schedule, and
costs. Writing a goal statement helps you focus on such a project from the outset.
Project scope
When you understand your goal, you can begin to define the specific parameters of the
project. This is often referred to as a project’s scope. It is necessary to know that a scope
is not a goal. Take a look again at this goal statement from the previous section: The goal
of the project is to upgrade the shopping cart feature Web site to be easier to use to
increase online sales by 25 percent. A scope statement for this project might read: This
project will involve all the steps to design and implement a new shopping cart feature
(but does not include maintaining or refining it once launched). The cost of the project

will not exceed $25,000 and implementation must be completed before October 1 to
accommodate holiday sales traffic. The new shopping cart feature should help to increase
sales by allowing customers more options to review their orders, give them more frequent
opportunities to shop for more items after they have added a product to the cart, and
allow them to save their cart contents and come back to complete the sale at a future date.
The new feature must function on our existing Web technology infrastructure.
Writing a scope statement
Scope statements define both what a project will involve and what it will not involve. In
our example, the scope statement specifies that the maintenance of the shopping cart,
once launched, will be handled by other project team. You typically get into specifics
about the project budget, timeframe, and deliverables in a scope statement. You shouldn’t
include every single detail, but you should have enough information that a project team
can understand the most important parameters of the project. Together, a goal statement
and a scope statement are two valuable tools for focusing yourself and your team and
keeping you on track as you proceed. If you take the next logical step in pinning down
your project at the outset, at this point you would create what’s called a project charter.
This would include specifying a project name, getting authorization in writing to begin
the project as of a certain date and to draw on a specified budget, creating a list of
responsibilities, and having those with an interest in the project (called stakeholders) sign
off giving you authority to run the project. You can use your goal and scope statements to
help you obtain the various pieces of your project charter.
Breaking Your Project into Phases
How does all this goal and scope analysis relate to Project? When you start a new project
schedule, one of the first things you will do is to enter individual tasks. Knowing your
goal and scope helps you to identify the steps you should be performing to accomplish
them. Before you create your first task, you should probably begin to think beyond the
scope of your project to more detailed project parameters. These parameters help you
determine what tasks to include in your project. For example, you might consider:

- Deliverables: These are tangible products, services, or results that you’ll produce
during your project. Somewhere in your project should be tasks that reflect the
delivery of each deliverable.
- Key Dates: In addition to the project end date, do you have to meet other key
dates along the way?
- Completion Criteria: How will you know when you’re done? Do you start up
the new service and that’s it, or do you have to test it for a week before your job is
done? Knowing your completion criteria gives your team something specific to
aim for and helps you create the last phase of your project.
- Expectations: Knowing what you expect from your team, management, and
yourself can help you identify some tasks. If you expect your team to hold a
quarterly debriefing meeting and submit a progress report, you might include such
a task in your project. If you expect management to sign off on a prototype, a task
such as Prototype Approval is logical.
- Potential Risks: Identifying potential problem areas can help you build in some
checks and balances to help avoid or minimize them. For example, you may
create tasks that contain terms such as Q&A, Testing, Review, Debrief, and
Revise to monitor or fix problems along the way.
1.4 The Project Life-Cycle
The acquisition of a constructed facility usually represents a major capital investment,
whether its owner happens to be an individual, a private corporation or a public agency.
Since the commitment of resources for such an investment is motivated by market
demands or perceived needs, the facility is expected to satisfy certain objectives within
the constraints specified by the owner and relevant regulations.
From the perspective of an owner, the project life cycle for a constructed facility may be
illustrated schematically in Figure 1.2. A project is expected to meet market demands or
needs in a timely fashion. Various possibilities may be considered in the conceptual
planning stage, and the technological and economic feasibility of each alternative will be

assessed and compared in order to select the best possible project. The financing schemes
for the proposed alternatives must also be examined, and the project will be programmed
with respect to the timing for its completion and for available cash flows. After the scope
of the project is clearly defined, detailed engineering design will provide the blueprint for
construction, and the definitive cost estimate will serve as the baseline for cost control. In
the procurement and construction stage, the delivery of materials and the erection of the
project on site must be carefully planned and controlled. After the construction is
completed, there is usually a brief period of start-up of the constructed facility when it is
first occupied. Finally, the management of the facility is turned over to the owner for full
occupancy until the facility lives out its useful life and is designated for demolition or
conversion.
Of course, the stages of development in Figure 1.2 may not be strictly sequential. Some
of the stages require iteration, and others may be carried out in parallel or with
overlapping time frames, depending on the nature, size and urgency of the project.
Furthermore, an owner may have in-house capacities to handle the work in every stage of
the entire process. By examining the project life cycle from an owner's perspective we
can focus on the proper roles of various activities and participants in all stages regardless
of the contractual arrangements for different types of work.
The project life cycle may be viewed as a process through which a project is
implemented from beginning to end. This process is often very complex; however, it can
be decomposed into several stages as indicated by the general outline in Figure 1.2. The
solutions at various stages are then integrated to obtain the final outcome. Although each
stage requires different expertise, it usually includes both technical and managerial
activities in the knowledge domain of the specialist. The owner may choose to
decompose the entire process into more or less stages based on the size and nature of the
project. Very often, the owner retains direct control of work in the planning stages, but
increasingly outside planners and financial experts are used as consultants because of the
complexities of projects. Since operation and maintenance of a facility will go on long
after the completion and acceptance of a project, it is usually treated as a separate

problem except in the consideration of the life cycle cost of a facility. All stages from
conceptual planning and feasibility studies to the acceptance of a facility for occupancy
may be broadly lumped together and referred to as the Design/Construct process, while
the procurement and construction alone are traditionally regarded as the province of the
construction industry.
Figure 1.2: Project life cycle
There is no single best approach in organizing project management throughout a project's
life cycle. All organizational approaches have advantages and disadvantages, depending
on the knowledge of the owner in construction management as well as the type, size and
location of the project. It is important for the owner to be aware of the approach which is
most appropriate and beneficial for a particular project. In making choices, owners should

be concerned with the life cycle costs of constructed facilities rather than simply the
initial construction costs. Saving small amounts of money during construction may not be
worthwhile if the result is much larger operating costs or not meeting the functional
requirements for the new facility satisfactorily. Thus, owners must be very concerned
with the quality of the finished product as well as the cost of construction itself. Since
facility operation and maintenance is a part of the project life cycle, the owners'
expectation to satisfy investment objectives during the project life cycle will require
consideration of the cost of operation and maintenance. Therefore, the facility's operating
management should also be considered as early as possible, just as the construction
process should be kept in mind at the early stages of planning and programming. In
summary the project phases can be summarized as follows:
1.4.1 Preconstruction phase
The preconstruction phase of a project can be broken into conceptual planning, schematic
design, design development, and contract documents.
Conceptual design:
- Very important for the owner.
- During this stage the owner hires key consultants including the designer and
project manager, selects the project site, and establish a conceptual estimate,
schedule, and program.
- The owner must gather as much information as possible about the project.
- The most important decision is to proceed with the project or not.
Schematic design:
- During this phase, the project team investigates alternate design solutions,
materials and systems.
- Completion of this stage represents about 30% of the design completion for
the project.
Design development:
- Designing the main systems and components of the project.

- Good communication between owner, designer, and construction manager is
critical during this stage because selections during this design stage affect
project appearance, construction and cost.
- This stage takes the project from 30% design to 60% design.
Contract documents:
- Final preparation of the documents necessary for the bid package such as the
drawings, specifications, general conditions, and bill of quantities.
- All documents need to be closely reviewed by the construction manager and
appropriate owner personnel to decrease conflicts, and changes.
- With the contract documents are almost complete; a detailed and complete
cost estimate for the project can be done.
1.4.2 Procurement phase (Bidding and award phase)
- The project formally transits from design into construction.
- This stage begins with a public advertisement for all interested bidders or an
invitation for specific bidders.
- In fast-track projects, this phase overlaps with the design phase.
- If the project is phased, each work package will be advertised and bid out
individually.
- It is very important stage to select highly qualified contractors. It is not wise
to select the under-bid contractors.
1.4.3 Construction phase
- The actual physical construction of the project stage.
- This stage takes the project from procurement through the final completion.
- It is the time where the bulk of the owner’s funds will be spent.
- It is the outcome of all previous stages (i.e., good preparation means smooth
construction).

- The consultant will be deployed for contract administration and construction
supervision.
- Changes during construction may hinder the progress of the project.
1.4.4 Closeout phase
- Transition from design and construction to the actual use of the constructed
facility.
- In this stage, the management team must provide documentation, shop
drawings, as-built drawings, and operation manuals to the owner organization.
- The as-built drawings are the original contract drawings adjusted to reflect all
the changes that occurred.
- Assessment of the project team’s performance is crucial in this stage for
avoiding mistakes in the future.
- Actual activity costs and durations should be recorded and compared with that
was planned. This updated costs and durations will serve as the basis for the
estimating and scheduling of future projects.
Figure 1.3 shows the increasing cumulative cost as the projects progresses while the
influence in the project cost and scope decreases.
1.5 Major Types of Construction Projects
In planning for various types of construction, the methods of procuring professional
services, awarding construction contracts, and financing the constructed facility can be
quite different. The broad spectrum of constructed facilities may be classified into four
major categories, each with its own characteristics.
1.5.1 Residential Housing Construction
Residential housing construction includes houses and high-rise apartments. During the
development and construction of such projects, the developers usually serve as surrogate
owners and take charge, making necessary contractual agreements for design and

construction, and arranging the financing and sale of the completed structures.
Residential housing designs are usually performed by architects and engineers, and the
construction executed by builders who hire subcontractors for the structural, mechanical,
electrical and other specialty work.
Figure 1.3: Level of influence vs. project duration
The residential housing market is heavily affected by general economic conditions.
Often, a slight increase in total demand will cause a substantial investment in
construction, since many housing projects can be started at different locations by
different individuals and developers at the same time. Because of the relative ease of
entry, many new builders are attracted to the residential housing construction. Hence, this
market is highly competitive, with potentially high risks as well as high rewards.
1.5.2 Institutional and Commercial Building Construction
Institutional and commercial building encompasses a great variety of project types and
sizes, such as schools and universities, medical centers and hospitals, sports facilities,
shopping centers, warehouses and light manufacturing plants, and skyscrapers for offices

and hotels. The owners of such buildings may or may not be familiar with construction
industry practices, but they usually are able to select competent professional consultants
and arrange the financing of the constructed facilities themselves. Specialty architects and
engineers are often engaged for designing a specific type of building, while the builders
or general contractors undertaking such projects may also be specialized in only that type
of building.
Because of the higher costs and greater sophistication of institutional and commercial
buildings in comparison with residential housing, this market segment is shared by fewer
competitors. Since the construction of some of these buildings is a long process which
once started will take some time to proceed until completion, the demand is less sensitive
to general economic conditions than that for housing construction.
1.5.3 Specialized Industrial Construction
Specialized industrial construction usually involves very large scale projects with a high
degree of technological complexity, such as oil refineries, steel mills, chemical
processing plants and coal-fired or nuclear power plants. The owners usually are deeply
involved in the development of a project, and prefer to work with designers-builders such
that the total time for the completion of the project can be shortened. They also want to
pick a team of designers and builders with whom the owner has developed good working
relations over the years.
Although the initiation of such projects is also affected by the state of the economy, long
range demand forecasting is the most important factor since such projects are capital
intensive and require considerable amount of planning and construction time.
Governmental regulation such as environmental protection can also influence decisions
on these projects.
1.5.4 Infrastructure and Heavy Construction
Infrastructure and heavy construction includes projects such as highways, tunnels,
bridges, pipelines, drainage systems and sewage treatment plants. Most of these projects

are publicly owned and therefore financed either through bonds or taxes. This category of
construction is characterized by a high degree of mechanization, which has gradually
replaced some labor intensive operations.
The engineers and builders engaged in infrastructure construction are usually highly
specialized since each segment of the market requires different types of skills. However,
demands for different segments of infrastructure and heavy construction may shift with
saturation in some segments. For example, as the available highway construction projects
are declining, some heavy construction contractors quickly move their work force and
equipment into the field of mining where jobs are available.
1.6 Construction Projects Participants
1.6.1 The Owner (The Client)
The owner is the individual or organization for whom a project is to be built under a
contract. The owner owns and finances the project. Depending on the owners’
capabilities, they may handle all or portions of planning, project management, design,
engineering, procurement, and construction. The owner engages architects, engineering
firms, and contractors as necessary to accomplish the desired work.
Public owners are public bodies of some kind ranging from agencies from the country
level to the municipal level. Most public projects or facilities are built for public use and
not sold to others. Private owners may be individuals, partnerships, corporations. Most
private owners have facilities or projects built for their own use or to be sold, operated,
leased, or rented to others.
In order to achieve success on a project, owners need to define accurately the projects
objectives. They need to establish a reasonable and balanced scope, budget, and schedule.
They need to select qualified designers, consultants, and contractors.

1.6.2 The Design Professionals
Examples of design professionals are architects, engineers, and design consultants. The
major role of the design professional is to interpret or assist the owner in developing the
project’s scope, budget, and schedule and to prepare construction documents. Depending
on the size and sophistication of the owner, the design professional can be part of the
owner’s group or an independent, hired for the project. In some cases design professional
and construction contractor together form a design-build company.
Architect: An architect is an individual who plans and design buildings and their
associated landscaping. Architects mostly rely on consulting engineers for structural,
electrical, and mechanical work.
Engineer: The term engineer usually refers to an individual or a firm engaged in the
design or other work associated with the design or construction. Design engineers are
usually classified as civil, electrical, mechanical depending upon their specialty. There
are also scheduling, estimating, cost, and construction engineers.
Engineering-Construction Firm: An engineering-construction firm is a type of
organization the combines both architect/engineering and construction contracting. This
type of company has the ability of executing a complete design-build sequence.
1.6.3 The Construction Professionals
The constructions Professional are the parties that responsible for constructing the
project. In traditional management where the owner, design professional, and contractors
are separate companies, the contractor would be termed a prime contractor. The prime
contractor is responsible for delivering a complete project in accordance with the contract
documents. In most cases, the prime contractor divides the work among many specialty
contractors called subcontractors as shown in Figure 1.4.

Prime contractor
Civil Mechanical Electrical
Plumbing Elevators
Figure 1.4: Contractor hierarchy
Owner
Contract
Contract
Contract
First sub-
contractor
Second sub-
contractor
1.6.4 The Project Manager
The project manager is the individual charged with the overall coordination of the entire
construction program for the owner. These include planning, design, procurement, and
construction. Among his/her duties:
- Clear definitions of the goals of the project.
- Investigate alternative solutions for the problems.
- Develop a detailed plan to make the selected program reality.
- Implement the plan and control the project.
Construction Manager: The construction manager is a specialized firm or organization
which administrates the on-site erection activities and the consulting services required by
the owner from planning through design and construction to commissioning. The
construction manager is responsible for design coordination, proper selection of materials
and methods of construction, contracts preparation for award, cost and scheduling
information and control.

1.7 Exercises
1. State if True (T) or False (F):
a. The amount of information that a project manager must consider increases as a
project moves towards completion.
b. Dams, bridges, and highways would be classified as commercial building
projects.
c. In the construction phase of the project, the owner needs to be heavily involved.
d. The construction project must have a defined goal or objective.
e. The construction project must have a defined beginning and end.
f. The main objective of the Owner is to win the job, finish it in a reasonable time,
with maximum profit and reasonable quality.
2. Select the right answer:
I. Site selection and financing would be the responsibility of which project
member.
a. Owner b. Designer
c. Construction project manager d. Subcontractor
II. This Category of projects is often funded by public pounds and is termed
“infrastructure”.
a. Residential b. Commercial building
c. Heavy engineering d. Industrial
III. Which of the following is not a characteristic of a project?
a. Having a specific goal b. Having a defined beginning and end
c. Resources being consumed d. usually being performed only once
e. Never being found outside the construction field
IV. The advertising for contractors and review of contractors’ bids occurs during
which project phase.
a. Procurement b. Design
c. Construction d. Conceptual planning

V. As-built drawings, warranties, and operation manuals are all provided to the
owner during which project phase.
a. Design b. Conceptual planning
c. Construction d. Project closeout
VI. As project moves on in time, the ability to change the project
becomes…………difficult and…………expensive.
a. more, less b. less, less
c. more, more d. less, more
3. What are the main types of construction?
4. Briefly describe the project life cycle.
5. “As the project progress, the ability of the change decreases while the cost of the
change increases”, comment on this statement and show your answer using a
schematic diagram.
6. List 10 subcontractors that can be engaged in building project.

Lecture notes on_construction_project_ma

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