IRJET- Crushed Plastic Waste in Concrete

International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 05 Issue: 03 | Mar-2018 www.irjet.net p-ISSN: 2395-0072
© 2018, IRJET | Impact Factor value: 6.171 | ISO 9001:2008 Certified Journal | Page 3638
CRUSHED PLASTIC WASTE IN CONCRETE
Dhaarani D1, Shanmuganathan N 2
,Gokila M3, Akalya A4, Abirami D5, Dhilshath begam J6
1&2,Assistant Professor, Department of Civil Engineering, Dhaanish Ahmed College of Engg., Chennai.
3,4,5&6Student, Department of Civil Engineering, Dhaanish Ahmed College of Engg., Chennai, Tamilnadu, India.
--------------------------------------------------------------------------------***-----------------------------------------------------------------------------------
Abstract - Concrete is the most widely used construction
material in the world, as well as the largest user of natural
resources. Basically it consists of aggregates which are
bonded together by cement and water. The major part of
concrete besides the cement is the aggregate. Aggregate
include sand and crushed stone. Use of these conventional
materials in concrete is likely to reduce the resources
unless there is a suitable substitute. Plastic waste materials
are often used as a partial replacement of coarse
aggregate reducing the cost of construction and help to
overcome the deficiencies associated with the use of
crushed stones. Also, these materials are identified very
harmful to the environment if it is disposal to the land and
water. Hence we in this project have aimed to study the
effectiveness of Plastics as substitute for coarse aggregate.
Aggregate properties viz., specific gravity, water
absorption were conducted to ascertain the properties of
concrete specimens and has been casted and tested for
concrete mix with various percentage of replacement
(10%,20%&30%) and its viability for replacement were
discussed.
Keyword: Aggregate, crushed stone, Gravel, conventional
material, replacement.
1. INTRODUCTION
Concrete is the major construction materials, which are
bonded together by cement and water. The major part of
concrete besides the cement is the aggregate. Aggregate
includes sand and crushed stones/gravel. Use of these
conventional materials in concrete is likely to deplete the
resources unless there is a suitable substitute. Plastic
which is generated in large quantities as waste doesn't
have useful disposal till now. But it possesses properties
that are required for viable replacement of coarse
aggregate in concrete. Hence in this project we are aimed
to study the effectiveness of plastic as substitute for
coarse aggregate. Aggregate properties viz., specific
gravity, water absorption, is to be conducted. Specimen
to be prepared to conduct compressive, tensile and
flexural strength of concrete for M40 grade with
replacement of crushed stone by plastic waste (10%,
20%, and 30%). To utilize the waste plastic in concrete,
and also to minimize global warming. To study the
properties of plastic waste concrete. To minimize the
cost of concrete products. To study the possibility of
make it as the alternative for coarse aggregate. To utilize
the waste plastic in concrete, to minimize global
warming. To study the properties of plastic waste
concrete. To minimize the cost of concrete products. To
study the possibility of make it as the alternative for
coarse aggregate.
2. METHODOLOGY
In this methodology a concrete can be made
utilizing the crushed plastic waste, in which the coarse
aggregate is partially replaced with the crushed plastic
waste. The utilization of industrial waste in a useful
manner is a major challenge in this current situation,
because of the pollution there is a great harm to the
nature and common life. For this purpose the very
harmful and non-degradable material waste, Plastic is
chosen, in order to minimize the stack piling of plastics in
the environment and to control the pollution on earth.
Hence it needs an immediate remedy and according to
the past studies made on the use of plastic waste plastic
in concrete tell us that the usage of waste material in
structural elements is a challenging activity in the
construction industry.
3. MATERIALS USED
The general raw materials used in this project are;
Cement - OPC (53grade)
Fine Aggregate - River Sand
Coarse Aggregate - 12 To 20mm (Angular)
Waste Plastics - 8 To 10mm (Angular)
Chemical Admixtures - Conplast Sp430
The selected raw materials are carried out several test to
know about its physical characteristics property, the
above all raw materials undergo they respective test and
thus selected for the further process.
4. MIX DESIGN
4.1 General
Concrete mix design is defined as the appropriate
selection and proportioning of constituents to produce a
concrete with pre-defined characteristics in the fresh and
hardened states. In general, concrete mixes are designed
in order to achieve a defined workability, strength and
durability. The selection and proportioning of materials
depend on:
o The structural requirements of the concrete oThe
environment to which the structure will be exposed
o The job site conditions, especially the methods of
concrete

o Production, transport, placement, compaction and
finishing
o The characteristics of the available raw materials
The concrete mix has been designed for M40 grade
as per IS 10262 - 2009. The specified concrete grade
involves the economical selection of relative
proportions of cement, fine aggregate, coarse
aggregate and water.
4.2 Mix Proportion:
Table -1: Mix Design Proportion
Water Cement
Fine
Aggregate
Coarse
Aggregate
140
litre
390
Kg/m3
771.003
Kg/m3
1174.03
Kg/m3
0.40 1 1.98 3.01
5. TESTS CONDUCTED ON CONCRETE:
In concrete the tests carried out in two stages;
1. Fresh concrete
2. Hardened concrete
5.1 Fresh concrete test:
Fresh Concrete Concrete remains in its fresh state
from the time it is mixed until it sets. Workability means
ease to mix, transport and placed in a homogenous state.
The workability of concrete can be tested by slump cone,
flow table, v-bee test and compaction factor.
Table -2: Workability of Concrete
Type of concrete
Slump value
(mm)
Remarks
Conventional concrete 58 Workable
Plastic Waste concrete
(10% replacement of
coarse aggregate)
64 Workable
(20% replacement of
coarse aggregate)
68 Workable
(30% replacement of
coarse aggregate)
74 Workable
The above table shows the slump value for Conventional
concrete, Plastic Waste concrete 10%, 20%, 30%
replacement of coarse aggregate as 58 mm, 64mm,
68mm and 74mm.
5.2 Hardened concrete test:
This test is carried out in concrete after when the
concrete reaches its final setting time. The test carried
out in hardened concrete are as follows;
1. Compression strength test
2. Flexural strength test
Compressive strength test:
F = P/A N/mm2
Table -3: Compressive Strength of Concrete
The above table represent the 7 days of Compressive
Strength of Conventional concrete and replacement of
coarse aggregate by Plastic Waste as 10%, 20%, 30% as
34.76 N/mm 2 , 29.64 N/mm 2 , 27.41 N/mm 2 , 24.57
N/mm 2 and 28 days strength as 53.14 N/mm 2 , 48.84
N/mm 2 , 45.32 N/mm 2, 42.18 N/mm 2 .
Fig-1: Compressive Strength of Concrete
The figure 1 shows the comparison of 7 days and 28 days
compressive strength in various percentage of
replacement.
Flexural strength test:
Flexural strength, also known as modulus of rupture, is a
material property, defined as the stress in a material just
before it yields in a flexure test.
0
20
40
60
0 10% 20% 30%
7days ( N/mm 2) 28days (N/mm2)
% of Waste Plastics
(Replacement for
Coarse Aggregates)
7days (
N/mm
2)
28days
(N/mm2)
0 34.76 53.14
10 29.65 48.84
20 27.41 45.32
30 24.57 42.18

Flexural strength = PL/bd2
Table -4: Flexural Strength of Concrete
% of Waste
Plastics
(Replacement for
Coarse
Aggregates)
7days
(N/mm 2)
28 days
(N/mm2)
0 3.58 5.26
10 3.47 5.12
20 3.23 4.89
30 3.17 4.26
The above table represent the 7 days of Flexural
Strength of Concrete of Conventional concrete and
replacement of coarse aggregate by Plastic Waste as
10%, 20%, 30% as 3.58 N/mm 2 , 3.47 N/mm 2 , 3.23
N/mm 2 , 3.17 N/mm 2 and 28 days strength as 5.26
N/mm 2 , 5.12 N/mm 2 , 4.89 N/mm 2, 4.26 N/mm 2 .
Fig-2 Flexural Strength of Concrete
The figure 1 shows the comparison of 7 days and 28 days
flexural strength in various percentage of replacement.
6. CONCLUSION
The following are the conclusions drawn from the study
on waste crushed plastic coarse aggregate concrete; the
compressive strength of Waste Plastic concrete with 10%
replacement is 48.84 N/mm2; it is almost Equal strength
of normal concrete 53.14 N/mm2 on 28th day. The
compressive strength of Waste Plastic concrete with 20%
replacement, it gives acceptable strength of 45.32
N/mm2.In the flexural strength test conducted on Waste
Plastic concrete, it shows a decrease in strength when
compared to the strength of normal concrete. From the
test results, it is found that the Waste Plastic Concrete
posses less bonding ability which has affected on the
strength of the concrete.
REFFERENCES
[1] Balasubramanian b, Gopalakrishnagvt and
Saraswathy v(2016), “Investigation on Partial
Replacement of Coarse Aggregate using EWaste in
Concrete ISSN 0974-5904, Volume 09, No. 03.
[2] Daniel Yaw Osei (2014), “EXPERIMENTAL
INVESTIGATION ON RECYCLED PLASTICS AS
AGGREGATE IN CONCRETE” International journal of
structural and civil engineering research ISSN 2319 –
6009
[3] Dr.KiranTajne and Mrs. Pranita Bhandari (2016),
“WASTE PLASTIC USED AS A COARSE AGGREGATE
IN CONCRETE” International Journal for Research in
Applied Sciences.
[4] Harsh vardhan Shukla, Himanshu Rajput ,Anshul
Jain, DevashishGurjar, Gaurav Awasthi(2016), “Study
of Compressive Strength of Concrete by Using E-
Waste” IJSTE - International Journal of Science
Technology &Engineering Volume 2 Issue 10 .
[5] K. L. A.V. Harnadh, A. M. N. Kashyap, CH. L. K.M.
Gupta,Dr.T.Chandrahsekharrao (2015)
,“EXPERIMENTAL INVESTIGATION ON COARSE
AGGREGATES BY USING WASTE PLASTICS &
POLYMERS” International Journal of Innovative
Research in Engineering & Management (IJIREM)
ISSN: 23500557, Volume-2, Issue3.
[6] Lakshmi. R, Nagan.S(2010),“Studies on Concrete
containing E plastic waste”INTERNATIONAL
JOURNAL OF ENVIRONMENTAL SCIENCES Volume 1,
No 3
[7] Muzafar Ahmed, Dr. S. SiddiRaju (2013), “Properties
of Concrete by the Addition of Plastic Solid
Waste”International Journal of Science and Research
(IJSR) ISSN (Online): 2319-7064.
[8] MdHashmath,MdMeraj(2015),“EXPERIMENTAL
STUDY ON UTILIZATION OF WASTE PLASTIC AS
AGGREGATE IN CEMENT MORTAR”
INTERNATIONAL JOURNAL OF ENGINEERING
SCIENCES & RESEARCH TECHNOLOGY.
[9] Pramod S. Patil, J.R.Mali, Ganesh V.Tapkire, H.
R.Kumavat (2014), “INNOVATIVE TECHNIQUES OF
WASTEPLASTIC USED IN CONCRETE MIXTURE”
International Journal of Research in Engineering and
Technology.
[10] Praveen Mathew, Shibi Varghese, Thomas Paul,
Eldho Varghese(2013),“Recycled Plastics as Coarse
Aggregate for Structural Concrete” International
Journal of Innovative Research in Science,
Engineering and Technology Vol. 2, Issue 3.
[11] Indian Standard code for Specification for 53 grade
Ordinary Portland Cement, IS 12269: 2013, Bureau
of Indian Standards, New Delhi.
0
2
4
6
0 10% 20% 30%
3.58 3.47 3.23 3.17
5.26 5.12 4.89
4.26
7days ( N/mm 2) 28 days (N/mm2)

IRJET- Crushed Plastic Waste in Concrete

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