An approach of composite materials in industrial

IJRET: International Journal of Research in Engineering and Technology eISSN: 2319-1163 | pISSN: 2321-7308
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Volume: 02 Issue: 12 | Dec-2013, Available @ http://www.ijret.org 350
AN APPROACH OF COMPOSITE MATERIALS IN INDUSTRIAL
MACHINERY: ADVANTAGES, DISADVANTAGES AND APPLICATIONS
Piyoosh Thori1
, Pawan Sharma2
, Manish Bhargava3
1, 2, 3
Department of Mechanical Engineering, Maharishi Arvind Institute of Engineering and Technology, Jaipur,
Rajasthan, India-302020
piyooshthori.2@gmail.com, pawansharma.mech@gmail.com, manish257_2000@yahoo.com
Abstract
Carbon fiber Composites forecasts indicate several years of supply that will exceed the anticipated demand. Carbon fiber producers
have used world leading technology to produce the most uniform and highest quality fiber. Carbon-fiber composites weight about
one-fifth as much as steel, but can be similar or better in terms of stiffness and strength, depending on fiber grade and orientation.
These composites do not rust or corrode like steel or aluminum. The aim of this paper is to present the current scenario of carbon
fiber composites in industries and go towards the approach of carbon fiber composites in future direction with its advantages,
disadvantages and applications in industrial machinery. Various type of composites based on reinforcement shape also presented in
this paper. This paper also shows the Properties, Characteristics, Challenges, Opportunities and Future Trends of Composites
towards industrial environment.
Keywords: Carbon Fiber Composites, Composites Technology, Strength, Stiffness and Applications.
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1. INTRODUCTION
Composite material can be well-defined as an amalgamation
of two or more than two materials (reinforce, fillers, and
binder) different in composition on a very small scale.
Composite materials (also called composition materials or
shortened to composites) are materials made from two or more
than two constituents or materials with considerably differ in
physical and chemical properties, that when amalgamated,
make a material with appearances different from the
individual components. We can say that do not lose their
individual identities but still impart their properties to the
product causing from their mixture.
The core benefits of composite materials have their great
strength and stiffness, for example Carbon Fibers have great
specific strength, high modulus, good in fatigue resistance and
dimensional stability and lower density Fibers. Composite
materials have their high strength and stiffness, combined with
low density, when compared with bulk materials, allowing for
a weight reduction in the finished part.
The reinforcing phase of composite materials provides the
durability, strength and stiffness. There are in many cases, the
reinforcement is tougher, stronger, harder and stiffer than the
matrix. The reinforcement is normally a fiber or a particulate.
Particulate composites have dimensions that are almost the
same in all directions. Particulate composite that consists of
tiny particle of one material embedded in another material.
Particulate composites tend to be feeble and less stiff than
continuous fiber composites, but they are normally much less
expensive. Particulate reinforced composites usually contain
less reinforcement (up to 40 to 50 volume percent) due to
processing difficulties and brittleness.
The composite material industry, nevertheless, is novel. It has
technologically advanced speedily in the earlier 35 years
through the improvement of ﬁbrous composites: to begin
through, glass fiber reinforced polymers (GFRP) and, more
recently, carbon ﬁber reinforced polymers (CFRP). Their use
in boats and their growing replacement of metals in ground
transport systems is an uprising in material usage which is still
accelerating. It finds application in composite, Automotive,
sport goods, medical equipment & packaging Industry.
2. TYPES OF COMPOSITES
Various types of composites are used in the industries:
• Particulate composites
• Flake composites
• Fiber composites
• Nanocomposites

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Fig-1: Type of Composites based on Reinforcement Shape
3. COMPOSITE MATERIALS IN INDUSTRIAL
MACHINERY
A fiber has a diameter that is much smaller than its length.
From their length to diameter (l/d) ratio is identified as the
aspect ratio and can be differ significantly. Continuous fibers
have their long aspect ratios, whereas discontinuous fibers
have small aspect ratios. Continuous fiber composite materials
generally have a desired orientation, although discontinuous
fiber composite materials usually have a random orientation.
For examples of continuous reinforcements contain
unidirectional, intertwined stuff, and helical windy (Fig. 2.a),
whereas examples of discontinuous reinforcements are
random mat and chopped fibers (Fig. 2 .b).
Fig-2 (a): Continuous Reinforcements
Fig-2 (b): Discontinuous Reinforcements
The quantity and kind of the reinforcement conclude the last
properties. Figure 2 show that the maximum strength and
modulus are acquired with continuous fiber composites. There
is a practical limit of about 70% reinforcement that can be
added to make a composite. At higher % (percentage), there is
too little matrix to support the fibers efficiently.
The hypothetical strength of discontinuous fiber composites
can methodology that of continuous fiber composites if their
aspect ratios are more enough and they are aligned, but it is
problematic in exercise to maintain worthy alignment with
discontinuous fibers. Discontinuous fiber composites are
usually to some extent random in alignment, which intensely
decreases their strength and modulus. However, discontinuous
fiber composites are normally not costly than continuous fiber
composites. So, continuous fiber composites are used
somewhere great stiffness and strength are required (but at a
high cost), and discontinuous fiber composites are used where
cost is more effective and strength and stiffness are less
important.
Fig-3: Influence of reinforcement type and quantity on
composite performance

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Fig-4: Major polymer matrix composite fabrication processes
4. PROPERTIES OF COMPOSITE MATERIALS
Composite as an industrial material, mostly used for their
outstanding resistance to chemicals and most forms of
corrosion This property, even though conventionally
important, is hardly the only useful property. There are many
other important and useful properties are:
• Low cost and low mass,
• Unequalled manufacturing and processing possibilities,
• Complex material body are easily produced,
• Tooling cost is very low,
• Appropriate to very small products and very large
product,
• Satisfactory surface finish can be an integral feature.
5. CHARACTERISTICS OF COMPOSITE
MATERIALS
The rudimentary characteristics of composite materials are:
• High fatigue scathe tolerance and high fatigue strength,
in addition to high specific strength and modulus,
• Tailor able or designable materials for microstructure,
• Creation and production of both structure and material or
component in a single operation manufacturing flexible,
complex geometry and net-shape,
• durable and Corrosion resistance,
• Anisotropic,
• Other unique functional properties - damping, low CTE
(coefficient of thermal expansion).
Fig-5: Fiber-Reinforced Composites
6. ADVANTAGES OF COMPOSITE MATERIALS
There are many advantages of composites, together with
lighter weight, improved fatigue life, the ability to tailor the
layup for optimum strength and stiffness, resistance to
corrosion, and with beneficial in design practice, assembly
costs is reduce due to less fasteners and detail parts.
The specific modulus (density) and certain strength of great
strength carbon fibers are advanced than those of other
comparable or equivalent aero-space metallic alloys. This
converts into better weight savings ensuing in improved
performance, fuel savings, longer range and greater payloads.
The many other advantages of composites are following:
• High temperatures and weathering resistance,
• High chemical stability,
• High durability due to long prepreg storage life,
• Low smoke density, low flammability, and low toxicity
of decomposition products,
• Temperature resistance of course depends on choice of
resin,
• Huge selection of possible component size and shape,

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• Prepregs contain the variety of reinforcements and resin
matrix amalgamations. They are manufactured on a high-
tech fusible resin plant. Fusible resins have less volatile
ingredients and increase the composite materials
mechanical strength.
7. DISADVANTAGES OF COMPOSITE
MATERIALS
The some disadvantages of composites are given below:
• Composite material structure has more complex
mechanical characterization than a metal structure,
• Repairing process of composites is complex as
compared to that for metals,
• Composites material do not have a the quality of high
combination of strength and fracture toughness
compared to metals,
• High cost of fabrication of composites,
• It is not compulsory that composites give greater
performance in all the properties used for material
selection: corrosion resistance, affordability, formability,
join ability, strength, and toughness.
8. APPLICATIONS OF COMPOSITE MATERIALS
TOWARDS INDUSTRIES
Composite materials contain construction, marine goods,
aerospace, transportation, sporting goods, and further newly
infrastructure, with construction and transportation being the
biggest. Generally, more costly but high act continuous
carbon-fiber composites are used somewhere light weight
along with high stiffness and strength are required, and in
fewer demanding applications where weight is not as critical
then considerable lower cost fiber-glass composites are used.
8.1. Aerospace Applications
Aircraft applications are the maximum significant uses of
composites. Unlike other vehicles, commercial aircraft,
essential to lay greater stress on safety and weight. They are
realized by using materials through great specific properties. A
modern civil aircraft designed as to encounter the several
criteria of power and safety. As a result of forward-thinking
technology that has gone beyond the design and application
the glass and carbon reinforced hybrid composites are the best
preferred materials.
8.2. Smart Memory Hybrid Composites
Growing requirement on the carrying into action of materials
used in engineering practical applications postulate the
development of this material then so called adaptive,
multifunctional, smart, or intelligent materials. The physical
properties of the matrix materials are either upgraded by the
SMA elements or can even be dynamically improved by
controlling the progress of the martensitic transformation
(MT) in the SMA elements.
Internal compressive stresses are generated in the surrounding
matrix when the embedded strained SMA elements are heated.
These stresses can tone up the composite, variation its natural
vibration frequencies and increase its impact or damping
properties. Exterior shape variations of the composites can be
also realized.
8.3. Wind Power Generation
The applications of composite materials are used in wind
power generation because the wind power engineering is a
significance region of energy generation because of its
resource saving and ecologically safe. The power monetary
value mainly is determined substantially by simple power
element blades. At present-day hybrid fibers (carbon, glass)
are largely used for fabrication of the blades.
8.4. Composite Material used in Marine Applications
In marine applications ships are under unbroken attack, both
from the elements of nature and the enemy. The huge majority
of ship hulls are created from common carbon steels, that are
noticeably vulnerable to corrosion, but they also make
different thermal and electromagnetic signatures simply
noticeable from long distances.
8.5. Hybrid Thermoplastic Application
Thermoplastic composites which used for mass producing
lightweight structural parts because it has long held potential
properties. On the other hand thermoset constructed
composites, which undergo time consuming chemical cross
linking throughout processing; thermoplastic based
composites are typically treated using simply heat and
pressure.
8.6. Composite Material Application for Civil
Construction
From the previous decade, largely in several countries, the
research and development of totally hybrid FRP structures in
civil engineering has developed. All the structural elements
have been made with Hybrid Fiber Reinforcement Plastics
(GFRP & CFRP). The all HFRP solution was chosen for this
bridge due to its heavily corrosive atmosphere someplace the
bridge is surrounded through the ocean. It is believed that the
inventive materials can be competitive to other conventional
materials in the close future when life cycle cost of the
material is taken into account; there is a vital requirement for
research and development of this revolutionary technology.

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8.7. Composites used for Telecommunication
Applications
Telecom industries felt the need of explore the innovative
product category known as hybrid cable because the reason
behind that the requirement of power transmission along with
data transmission are increasing in telecommunication
industries. Hybrid aerial, underground cable is advanced and
versatile cabling solution inside constructed power
transmission required for network equipments with OFC
cables. Hybrid Composite Cable is requirement of a period,
primarily to support for Power transmission for always ON
(Interrupt free) telecom needs.
8.8. Composite Material for Offshore Applications
Composite materials have a wide range of applications in
offshore due to fast taking over as greater substitute to other
conventional materials even in aggressive environmental and
high pressure conditions. Composite materials applications are
growing vastly along with the parallel need for knowledge
invention in this field.
8.9. Composite Materials for Orthopedic Aids
People who were born with physical imperfections or who
obtain disability, Orthotics and Prosthetics support by correct
them with artificial supports. Prosthesis is an artificial
replacement for a misplaced part of the body. Bio-medical
prosthetic gimmick are artificial substitutes that are used in the
human body to utility such as original parts. Materials
intended for such prosthetic aids must non-toxic, chemically
and biologically stable and have adequate mechanical
reliability and strength to withstand physiological loads.
Composite material has been known as the innovative class of
synthetic bio-materials. A vital improvement has been the
usage of carbon fiber reinforced polymer matrix for composite
limb.
The reintegration industry is moving in the direction of
composite material, as they are lightweight, comfortable to
work with and more durable such as lighter prosthesis needs
less energy consumption for the period of running, walking
and other activities, weight is very important in an artificial
leg.
8.10 Composites in Automobile/Transportation
Sector
In spite of the potential benefits and many advantages of
lighter weight and high durability resulting from corrosion
resistance, advanced composites are not used widely in
automotive applications. There must be some step’s should be
taken on a global level to make advanced composites material
attractive for some wide-spread use in trucks, cars etc. and all
other automobile applications. The main cause which is a
barrier for composite material is its high cost of raw and
fabricated material, since the existing material used is of law
cost.
8.11. Composite Material used for Electronics and
Electrical
The composites are fitted with high quality electric insulation,
spark-free and good antimagnetic agents. They also have good
adhesion toward glue & paint. Composite also possess self-
extinguishing qualities due to which it is used for the
construction of distribution pillars, link boxes and profiles for
the separation of current-carrying phases to prevent short
circuits etc.
8.12. Composites in Chemical Industry
The composite materials are one of the most popular materials
used in chemical industry due to its various advantages of
being light in weight, have better resistance against fire and
show resistance to chemicals. Composite grips the wide use in
chemical industry are used in the manufacturing of structural
supports, storage tanks, exhaust stacks and blowers, columns,
pumps, reactors etc. for acidic and alkaline environments.
8.13. Application in Nuclear Industry
Composite materials are used widely in nuclear industries due
to its nuclear fuels require good specific fission gas retention
properties. Due to use in metal matrices, ceramic fuels are
used at a great level from last few years. The ceramic fuels
used in fast reactors have been sensibly successful in stainless
steel matrix as used in plutonium uranium dioxide solid
solution in steel cermets.
8.14. Application of Composites in Nanotechnology
The Composite materials have a wide range of applications in
the field of Nanotechnology. The Nanocomposites is a
resourceful conception having fillers on a nanometer scale
isolated in the resin. Because of the diffusion of very small
fillers, flame retardance and inflexibility of the resin improves
significantly with the addition of only a tiny quantity of fillers.
Nanocomposite materials are greatly used in automotive,
electronic parts and in industrial equipments etc.
9. OPPORTUNITIES, CHALLENGES & FUTURE
TRENDS
Lots of challenges must be overcome with the goal of enhance
the engineering usage of Hybrid composites. Design, research
and business development skills and product development
efforts and business development skills are needed to
overcome these challenges. In this explore there is a strong
necessity to address the following matters.

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• There is demand to improve the damage tolerant
properties mainly ductility and fracture toughness in
Composites,
• There is a bigger need to assort different grades of
composites based on manufacturing cost and property
profile,
• Effort must be done to produce low cost and high quality
reinforcements from industrial byproducts and wastes,
• Cognition of core processing of composites requisite to
be understood more thoroughly, mainly factors affecting
the micro structural integrity,
• Efforts should be made on the development of
composites based on nonstandard matrices and fibers,
• There is a crucial requirement to grow economical,
simple and portable non-destructive kits to quantify
unwanted defects in Composites.
CONCLUSIONS
Manufacturing process of hybrid laminates is provided as
applicable to various industries such as transportation
industry, aeronautics, naval, automotive industries and
components for the electronic industry. Considerable efforts
have been focused on the applications of Hybrid composites
for better understanding of the phenomena associated to the
cutting edge technology.
As far as the material is concerned, glass and carbon fiber
reinforced composites have been equally investigated;
however, epoxy resin is preferred as the matrix material. An
effort towards this literature on hybrid composites will throw
some light on researchers and scientists pursuing work on
hybrid composite technology.
REFERENCES
[1]. F. C. Campbell, “Structural Composite Materials-
Introduction to Composite Materials”, ASM
International-2010, pp 1-30
[2]. S. K. Mazumdar, “Composites Manufacturing:
Materials, Product, and Process Engineering”, CRC
Press, 2002
[3]. Gururaja M N, A N Hari Rao, “A Review on Recent
Applications and Future Prospectus of Hybrid
Composites”, International Journal of Soft Computing
and Engineering (IJSCE), ISSN: 2231-2307, Volume-
1, Issue-6, January 2012
[4]. P. Sittner and R. Stalmans, “Developing Hybrid
Polymer Composites with Embedded Shape-Memory
Alloy Wires”, Journal of Materials, October-2000
[5]. S.M. Walsh, B.R. Scott, D.M. Spagnuolo, “The
Development of Hybrid Thermoplastic Ballistic
Material with Application to Helmets”, Army Research
Labs, Aberdeen, MD, December 2005
[6]. D. Thomas Campbell, David R Cramer, “Hybrid
Thermoplastic Composite Ballistic Helmet Fabrication
Study” Advancement of Materials & Process
Engineering, 2008
[7]. Hiroshi Mutsuyoshi, Thiru Aravinthan, “Development
of New Hybrid Composite Girders Consisting of
Carbon and Glass Fibers”, Saitama University, &
Toray Industries, Inc., Japan
[8]. M.E. Tuttle, “Structural Analysis of Polymeric
Composite Materials”, Marcel Dekker, Inc., 2004
[9]. M.C.Y. Niu, “Composite Airframe Structures”, 2nd
ed., Hong Kong Conmilit Press Limited, 2000
[10]. R. E. Horton and J.E. McCarty, “Damage Tolerance of
Composites”, Engineered Materials Handbook, Vol. 1,
Composites, ASM International, 1987
BIOGRAPHIES
Piyoosh Thori has Completed his B.Tech
(2012) in Mechanical Engineering, Pursuing
M.Tech (2014) in Machine Design from
MAIET, Jaipur, Rajasthan, India. His area
of research includes CAD/CAM, CIMS,
Composite Materials, Structural and Vibration Analysis.
Pawan Sharma has Completed his B.Tech
(2011) in Mechanical Engineering, Pursuing
M.Tech (2014) in Machine Design from
MAIET, Jaipur, Rajasthan, India. He has
published 21 research papers in the refereed
International journals and conferences. His area of research
includes CAD/CAM, FEA/FEM, Composite Materials, CFD
and Vibration Analysis.
Dr. Manish Bhargava holds M.Tech.
(2004) in Manufacturing System
Engineering, Ph.D. (2012) in Mechanical
Engineering from MNIT, Jaipur. He has
published 27 research papers in the refereed
International journals and conferences. He has a teaching and
research experience of more than 14 years. Currently, He is
working as a Professor & Principal with Maharishi Arvind
International Institute of Technology, Kota, Rajasthan, India.
His area of research includes CIMS, CAD/CAM, Reliability &
Maintenance, Manufacturing Systems and Material Science.

An approach of composite materials in industrial

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