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International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 06 Issue: 02 | Feb 2019 www.irjet.net p-ISSN: 2395-0072
© 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 299
Utilization of Coconut shell As Coarse Aggregate in Concrete
Krishkumar Patel1, Jaimin Patel2, Bhargav Kanthariya3, Zenith Mehta4, Nirmal Patel5,
Shyam Doshi6
1,2,3,4,5Student of B.E. Civil at Bhagwan Mahavir College of Engg. & Tech.
6Assistant Professor at Civil Department of Bhagwan Mahavir College of Engg. & Tech., Surat, Gujarat
---------------------------------------------------------------------***----------------------------------------------------------------------
Abstract - Disposal of agriculture waste material is a great
problem and it becomes challenging to find natural resources
due to their extreme exploitation. Use of waste materials as
construction materials has several benefitssuchasdecreasein
cost, saving in energy, and protection of environment.
Coconut shell is one of the main contributors of pollution
problem as an agricultural waste. Coconutshellusedascoarse
aggregate in concrete encouraged sustainable and
environmentally helpful material in theconstruction field. The
main concern of this research is the environment, and the
construction and building technology to improve natural
world and building materials. This paper presents an
investigation of strength characteristics of concrete produced
using crushed granular coconut shells as substitutes for
conventional coarse aggregate. Thetestedparametersinclude
physical properties and mechanicalpropertiesofcoconutshell
concrete. The test results illustrated that coconut shell can be
used as a replacement of coarse aggregate for the production
of lightweight structural concrete. Some of the interesting
insights of the study are:
Coconut shells are applicable as partial substitute as coarse
aggregates for concrete.
The good indicators of coconut shell quality as aggregate of
concrete are particles, shape and texture, resistance to
crushing, absorption and surface moisture, and light-weight.
Key Words: Coconut shell, to reduce construction cost,
light weight concrete, Use waste materials
1. INTRODUCTION
Concrete is world’s most widely used construction material.
The utilization of concrete is increasing at a higher rate due
to development in infrastructure and construction activities
all around the world. However there are some negative
impacts of more production of concrete like continuous
extensive extraction ofaggregatefromnatural resourceswill
lead to its depletion and ecological imbalance. Researchers
are in search of replacing coarse aggregate to makeconcrete
less expensive and to lead sustainable development. This
environmental reason has generated a lot of concern in the
construction world. The use of sugarcane bagasse, wooden
chips, plastic waste, textile waste, polyethylene, rice husk
ash, rubber tyres, vegetable fibers, paper and pulp industry
waste, groundnut shell, waste glass, broken bricks are some
examples of replacing aggregates in concrete. Coconut shell
is categorized as light weight aggregate. The coconut shell
when dried contains cellulose, lignin, pentosans and ash in
varying percentage. In Asia, the construction industry is yet
to realize the advantages of light weight concreteinhigh rise
buildings. Coconut shells are not commonly used in
construction industry and are often dumped as agricultural
waste. The aim of this research is to spread awareness of
using coconut shell as partial replacement of coarse
aggregate in concrete and determining its compressive
strength and density. Until now, Industrial by products and
domestic wastes has been utilized in concrete, but the use of
agricultural waste in concrete is in its infancy stage.Coconut
shell is an agricultural waste.Thematerialsareproportioned
by their weights. The water cement ratio is obtained by
conducting various workability tests. The obtained results
are compared with that of conventional mix. Testsareasper
the specified procedure of Indian standards codes.
2. LITERETURE REVIEW
Quarry dust was used as an alternate material for river sand
both in conventional and also in coconut shell concrete. For
any materials in concreteto be used in realistic situations,its
strength and durability need to be examined. Therefore, this
study examines durability performanceofquarrydustasfine
aggregate and coconut shell as coarse aggregate in concrete.
Durability properties investigated include the absorption,
volume of permeable voids, sorptivity, rapid chloride
penetration test and salt ponding test. Tests were conducted
at an age of 3, 7, 28, 56, 90, 180 days and one-year period of
curing. The test results showed that the durabilityproperties
of quarry dust used concrete performed as a traditional one
and coconut shell concrete are comparable to that of other
conventional lightweight concretes. [5]
The rising cost of construction material is a matter of
concern. The reason for increase in cost is high demand of
concrete and scarcity of raw material. Hence the concrete
technologists must search forsomeeconomicalalternativeto
the coarse aggregate. In this study, M 20 grade of concrete
was produced by replacing granite by coconut shell. Forty
five cubes were casted and their compressive strength and
workability were evaluated at 7, 14 and 28 days. The
compressive strength of concrete reduced as the percentage
replacement increased. Concrete produced by 2.5%, 5%,
7.5%, 10% replacement attained 28 days compressive
International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072
© 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 300
strength of 19.71,19.53,19.08,18.91 respectively. These
results showed that Coconut shell concrete can be used in
reinforced concrete construction. Its utilization is cost
effective and eco friendly. [6]
The rising cost of construction material is a matter of
concern. The reason for increase in cost is high demand of
concrete and scarcity of raw material. Hence the concrete
technologists must search forsomeeconomicalalternativeto
the coarse aggregate. In this study, M 20 grade of concrete
was produced by replacing granite by coconut shell. Forty
five cubes were casted and their compressive strength and
workability were evaluated at 7, 14 and 28 days. The
compressive strength of concrete reduced as the percentage
replacement increased. Concrete produced by 2.5%, 5%,
7.5%, 10% replacement attained 28 days compressive
strength of 19.71,19.53,19.08,18.91 respectively. These
results showed that Coconut shell concrete can be used in
reinforced concrete construction. Its utilization is cost
effective and eco friendly.[1]
3. MATERIAL
3.1 Coconut
Coconuts are referred to as "man's most useful trees", "king
of the tropical flora" and "tree of life". Coconuts or its
scientific name cocosnucifera are the most important of
cultivated palms and the most widely distributed of all
palms. Coconut is a tall cylindrical-stalked palm tree,
reaching 30 m in height and 60-70 Cm in diameter. It is a
tropical plant.
For low altitudes. It needs sunshine and a soil richincalcium
and phosphorus, and isthusgenerallysuitableforcultivation
in sandy seashore.
The most important part of the tree is its fruit, which is egg-
shaped, about 30 cm long, and 25 cm in diameter. The more
external layer of the fruit is thin and smooth; its fibrous
mesocarp is 3-5 cm thick, and the endocarp is veryhard. The
fruit has a large central cavity, which contains a sweet liquid
(coconut water). The number of fruits per trees varies,
depending entirely on soil conditions. It is possible to get
from 20 up to 600 fruits per year. The leaf stalk encircles the
trunk and supports the weight of the bunch of nuts. The
cluster of nuts weights 30-50 Ib when green and the 20-ft
long leaf weight 20-25 lb. The fruit is oval in shape, and in
the husk is about the six of a football. The fruit consists of 4
parts: about 35% husk, 12% shell, 28%meatand25%water.
World Coconut Production
Country Production (tons)2016
Indonesia 17,722,429
Philippines 13,825,080
India 11,127,898
Sri Lanka 2,520,095
Brazil 2,649,246
Thailand 815,406
Vietnam 1,469,960
Mexico 1,004,710
Papua New Guinea 1,191,430
Malaysia 504,773
WORLD 61,708,358
Properties of coconut shell :-
o Coconut shell has high strength and modulus
properties.
o It has added advantage of high lignin content. High
lignin content makes the composites more weather
resistant.
o It has low cellulose content due to which it absorb
less moisture as compare to other agriculture
waste.
o Coconuts being naturally available in nature and
since its shells are non-biodegradable; they can be
used readily in concrete which may fulfill almostall.
Sr. no Physical Property Test Results
01 Specific Gravity 1.3 to 1.5
02 Water Absorption (%) 13 to 24
03 Bulk Density(kg/m3) 800
04 Shell Thickness (2-7)mm
3.2 Cement
PPC 53 grade was used conforming to IS 269-2015 and
physical property was given below:
Physical Properties of Cement –
Portland cements are commonly characterized by their
physical properties for quality control purposes. Their
physical properties can be used to classify and compare
Portland cements. The challenge in physical property
characterization is to develop physical tests that can
satisfactorily characterize key parameters- Setting Time,
Soundness, Fineness and Strength.
3.3 Fine aggregate
Sand conforming to Zone-I(White Boreli) was used as the
fine aggregate, as per I.S 383-1970. The sand was air dried
and free from any foreign material, earlier than mixing. The
sand which was locally available and passing through
4.75mm IS sieve is used. The specific gravity of fine
aggregate was 2.60. Locally available river sand conforming
International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072
© 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 301
to Grading zone 1of IS: 383 –1970.Clean and dry river sand
available locally will be used. Sand passing through IS
4.75mm Sieve will beused forcasting all the specimens.Fine
aggregate is defined as material that will pass a No. 4 sieve
and will, forthe most part, be retained ona No.200sieve.For
increased workability and foreconomy as reflected byuse of
less cement, the fine aggregate shouldhavea roundedshape.
The purpose of the fine aggregate is to fill the voids in the
coarse aggregate and to act as a workability agent.
3.4 Coarse aggregate
Aggregates generally occupy 70 to 80 percent of the volume
of concrete and can therefore be expected to have an
important influence on its properties. They are granular
materials, derived for the most part from natural rock
(crushed stone or natural gravels) and sands, although
synthetic materials such as slag and expanded clay or shale
are used to some extent, mostly in lightweight concretes. In
addition to their use as economical filler, aggregates
generally provide concrete with better dimensional stability
and wear resistance. Aggregate classifications are made
principally for the purpose of easier identification of
particular aggregate lots, or to become familiar with the
different types of aggregates. There are numerous ways of
classifying aggregates.
3.5 Water
Water to be used in the concrete work shouldhavefollowing
properties: It should be free from injurious amount of oil,
acids, alkalis or other organic or inorganic impurities. It
should be free from iron, vegetable matter or other any type
of substances, which are likely to have adverse affect on
concrete or reinforcement. It should be quitesatisfactoryfor
drinking purpose which is used in mixing of concrete.
4. MATERIAL ANALYSIS
4.1 Cement
Properties of cement
Sr.no Particular Value
1 Fineness of grinding
(Residue on I.S. sieve no.9) 1%
2 Normal Consistency (%)
water consistency 31%
3 Setting time Initial setting time
(min)
Final setting time (min)
85 min
290min
4 Compressive strength
(average of three cubes) 26.35/mm2
4.2 Fine aggregate
Sieve analysis of F.A
4.3 Coarse aggregate
Sieve analysis of coarse aggregate 20mm
Sieve analysis of aggregate 10mm
SIEVE CUMULATIVE
% PASSING
AVERAGE
Sample 1 Sample 2
12.5 00 00 00
10 92.4 92.19 92.30
6.3 31.73 29.52 60.92
4.75 10.94 7.13 9.03
2.36 1.29 0.55 1.85
1.18 0.63 0.43 1.06
PAN 00 00 00
I.S. SIEVE CUMLAATIVE
% PASSING
AVERAGE
Sample 1 Sample 2
4.75 95.75 97.53 97
2.36 85.94 91.01 88
1.18 55.14 59.93 58
0.600 26.81 27.09 27
0.300 7.09 8.62 8
0.150 1.16 1.22 7
0.075 0.43 0.51 0.47
PAN 0.03 0.04 00
I.S. SIEVE CUMULATIVE
% PASSING
AVE
Sample 1 Sample 2
31.5 100 100 100
25 100 100 100
20 98.06 97.16 98
16 79.09 79.86 79
12.5 44.31 41.93 43
10 5.14 5.29 5
6.3 00 00 0
International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072
© 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 302
4.4 Coconut shell
Sieve analysis of coconut shell
Sr.
No.
Sieve size Weight
retained
(Kg)
Cumulat
ive
%retain
ed
%
passing
1 40 mm Nil 0 Nil
2 20 mm 0 0 100
3 16 mm 1920 38.32 61.68
4 12.5 mm 1420 66.66 33.34
5 2.36 mm 890 84.42 15.58
6 10 mm 780 99.99 0.01
7 6.3 mm 10 0.01 0
8 Pan 0 - -
Total 5010 5010 -
5. TEST PROGRAMME
Test Conducted On Hardened Concrete: Confirming to IS
516-1959
In present study cube compression test, split tensile test on
cylinders on conventional concrete and coconut shell
concrete are carried out. The experimental results and
discussion results for various tests are described below.
5.1 Compressive strength test
A cube compression test is performed on standard cubes of
conventional concrete and coconut shell concrete with
partial replacement of 5% 10% 15% of size 150mm x
150mm after 7 days and 28 days of immersion in water for
curing.
5.2 Split tensile test
The split tensile test is well known indirect test used to
determine the tensile strength of concrete. Duetodifficulties
involved in conducting the direct tension test, a number of
indirect methods have been developed to determine the
tensile strength of the concrete. In these tests, in general a
compressive force is applied to a concretespecimeninsucha
way that the specimen fails due tensile stresses induced in
the specimen.
The tensile strength at which failure occurs is the tensile
strength of concrete. In this investigation the test is carried
out on cylinder by splitting along it’s middle plane parallel to
edges by applying the compressive load to opposite edges.
The arrangement for the test is as shown in fig. The split
tensile strength of cylinder is calculated by the following
formula.
Ft= 2P/π LD
6. RESULT
In the present work coarse aggregate is replaced with the
coconut shell, by volume. Specimens were casted by
replacing 0%, 5%, 10% and 15% of coarse aggregate with
coconut shell. Tests were conducted on the cast specimens
after 7 and 28 days as mentioned in the IS code. There is no
need to treat the coconut shell before use as an aggregate
except for water absorption. Tests for Tension and
compression were conducted and results were obtained.
Coconut shell concrete has better workability because of the
smooth surface on one side of the shell and the smaller size
of coconut shell.
Comparison of strength at 28 days
Strength in N/mm2
Without replacement 51.80
5% CS replacement 47.83
10% CS replacement 47.54
15% CS replacement 43.82
40
45
50
55
Strength in N/mm2
Strength in
N/mm2
Chart-1: Strength comparison
Difference of mass in 15cm x 15cm x 15cm cube
Ave. mass of normal conventional concrete – 8.745 kg
Ave. mass of 5% CS replacement concrete – 8.558 kg
Ave. mass of 10% CS replacement concrete – 8.388 kg
Ave. mass of 15% CS replacement concrete – 8.271 kg
8
8.5
9
Mass in KG
Mass in KG
Chart-2. Mass comparison
International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056
Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072
© 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 303
7. CONCLUSIONS
Use of coconut shell in cement concrete can help in waste
reduction and reduction in pollution. The need of the houris
to encourage such a use of the wastes as construction
material in low cost housing.
As per our test and research we were conclude that the
strength of the concrete is decrease when the amount of
coconut shell is increase, but we were also conclude that the
when we add 5% and 10% coconut shell in concrete, there
was minor difference instrength. Whenweadd15%coconut
shell in concrete the strength was getting low.
So that’s why there is ending of replacement of coconut
shell in concrete, we conclude that the 10% replacement of
coconut shell is better for reduce the weight of concrete
structure.
We also conclude that the, there is differencein weightwhen
we replace 10% coconut shell in concrete and the difference
between conventional concreteandcoconutshell concreteis
357 gram in 15cm x 15cm x 15cm cube. And 364 gram
difference in 15cm x 30cm cylinder.
8. REFERENCES
1) Dr. B. Damodhar Reddy, “Experimental Analysis of
the Use of Coconut Shell as Coarse Aggregate”,
published in IOSR Journal of Mechanical and Civil
Engineering (IOSR-JMCE), volume 10, Issue 6,
January, 2014
2) Daniel Yaw Osei, “Experimental investigation on
recycled plastics as aggreagate in concrete”
International Research Journal of Engineering and
Tech. Volume: 02 Issue: 04 | July-2015 (IRJET)
3) Shrikant M. Harle, “partial replacement of coarse
aggregate with coconut shell intheconcrete”JREAS,
Vol. 2, Issue 01, Jan. 2017
4) K. Gunasekaran, “Study on reinforced lightweight
coconut shell concrete beam behaviorundershear”,
Materials and Design 50 (2013) 293–301
5) S. PrakashChandar, “Study on some durability
properties of coconut shell concrete with quarry
dust”, Article in European Journal of Environmental
and Civil Engineering · January 2018 DOI:
10.1080/19648189.2017.1418435
6) DewanshuAhlawat, “coconut shell as partial
replacement of coarse aggregate”, Article in
International Journal of Civil Engineering and
Technology 4(6):12-16 · December 2013
7) Dr. Amarnath Yerramala, “Properties of Concrete
with Coconut Shells as Aggregate Replacement”
Volume 1, Issue 6 (October2012) PP: 21-31
8) Ajay Kumar Sharma, “Effect of Coconut Husk on the
Properties of Concrete”, Paper ID: IJSRDV4I120564
Published in: Volume : 4, Issue : 12
Publication Date: 01/03/2017
9) Concrete technology (theory and practice) by M L
Gambhir fourth edition.

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IRJET- Utilization of Coconut Shell as Coarse Aggregate in Concrete

  • 1. International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 06 Issue: 02 | Feb 2019 www.irjet.net p-ISSN: 2395-0072 © 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 299 Utilization of Coconut shell As Coarse Aggregate in Concrete Krishkumar Patel1, Jaimin Patel2, Bhargav Kanthariya3, Zenith Mehta4, Nirmal Patel5, Shyam Doshi6 1,2,3,4,5Student of B.E. Civil at Bhagwan Mahavir College of Engg. & Tech. 6Assistant Professor at Civil Department of Bhagwan Mahavir College of Engg. & Tech., Surat, Gujarat ---------------------------------------------------------------------***---------------------------------------------------------------------- Abstract - Disposal of agriculture waste material is a great problem and it becomes challenging to find natural resources due to their extreme exploitation. Use of waste materials as construction materials has several benefitssuchasdecreasein cost, saving in energy, and protection of environment. Coconut shell is one of the main contributors of pollution problem as an agricultural waste. Coconutshellusedascoarse aggregate in concrete encouraged sustainable and environmentally helpful material in theconstruction field. The main concern of this research is the environment, and the construction and building technology to improve natural world and building materials. This paper presents an investigation of strength characteristics of concrete produced using crushed granular coconut shells as substitutes for conventional coarse aggregate. Thetestedparametersinclude physical properties and mechanicalpropertiesofcoconutshell concrete. The test results illustrated that coconut shell can be used as a replacement of coarse aggregate for the production of lightweight structural concrete. Some of the interesting insights of the study are: Coconut shells are applicable as partial substitute as coarse aggregates for concrete. The good indicators of coconut shell quality as aggregate of concrete are particles, shape and texture, resistance to crushing, absorption and surface moisture, and light-weight. Key Words: Coconut shell, to reduce construction cost, light weight concrete, Use waste materials 1. INTRODUCTION Concrete is world’s most widely used construction material. The utilization of concrete is increasing at a higher rate due to development in infrastructure and construction activities all around the world. However there are some negative impacts of more production of concrete like continuous extensive extraction ofaggregatefromnatural resourceswill lead to its depletion and ecological imbalance. Researchers are in search of replacing coarse aggregate to makeconcrete less expensive and to lead sustainable development. This environmental reason has generated a lot of concern in the construction world. The use of sugarcane bagasse, wooden chips, plastic waste, textile waste, polyethylene, rice husk ash, rubber tyres, vegetable fibers, paper and pulp industry waste, groundnut shell, waste glass, broken bricks are some examples of replacing aggregates in concrete. Coconut shell is categorized as light weight aggregate. The coconut shell when dried contains cellulose, lignin, pentosans and ash in varying percentage. In Asia, the construction industry is yet to realize the advantages of light weight concreteinhigh rise buildings. Coconut shells are not commonly used in construction industry and are often dumped as agricultural waste. The aim of this research is to spread awareness of using coconut shell as partial replacement of coarse aggregate in concrete and determining its compressive strength and density. Until now, Industrial by products and domestic wastes has been utilized in concrete, but the use of agricultural waste in concrete is in its infancy stage.Coconut shell is an agricultural waste.Thematerialsareproportioned by their weights. The water cement ratio is obtained by conducting various workability tests. The obtained results are compared with that of conventional mix. Testsareasper the specified procedure of Indian standards codes. 2. LITERETURE REVIEW Quarry dust was used as an alternate material for river sand both in conventional and also in coconut shell concrete. For any materials in concreteto be used in realistic situations,its strength and durability need to be examined. Therefore, this study examines durability performanceofquarrydustasfine aggregate and coconut shell as coarse aggregate in concrete. Durability properties investigated include the absorption, volume of permeable voids, sorptivity, rapid chloride penetration test and salt ponding test. Tests were conducted at an age of 3, 7, 28, 56, 90, 180 days and one-year period of curing. The test results showed that the durabilityproperties of quarry dust used concrete performed as a traditional one and coconut shell concrete are comparable to that of other conventional lightweight concretes. [5] The rising cost of construction material is a matter of concern. The reason for increase in cost is high demand of concrete and scarcity of raw material. Hence the concrete technologists must search forsomeeconomicalalternativeto the coarse aggregate. In this study, M 20 grade of concrete was produced by replacing granite by coconut shell. Forty five cubes were casted and their compressive strength and workability were evaluated at 7, 14 and 28 days. The compressive strength of concrete reduced as the percentage replacement increased. Concrete produced by 2.5%, 5%, 7.5%, 10% replacement attained 28 days compressive
  • 2. International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072 © 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 300 strength of 19.71,19.53,19.08,18.91 respectively. These results showed that Coconut shell concrete can be used in reinforced concrete construction. Its utilization is cost effective and eco friendly. [6] The rising cost of construction material is a matter of concern. The reason for increase in cost is high demand of concrete and scarcity of raw material. Hence the concrete technologists must search forsomeeconomicalalternativeto the coarse aggregate. In this study, M 20 grade of concrete was produced by replacing granite by coconut shell. Forty five cubes were casted and their compressive strength and workability were evaluated at 7, 14 and 28 days. The compressive strength of concrete reduced as the percentage replacement increased. Concrete produced by 2.5%, 5%, 7.5%, 10% replacement attained 28 days compressive strength of 19.71,19.53,19.08,18.91 respectively. These results showed that Coconut shell concrete can be used in reinforced concrete construction. Its utilization is cost effective and eco friendly.[1] 3. MATERIAL 3.1 Coconut Coconuts are referred to as "man's most useful trees", "king of the tropical flora" and "tree of life". Coconuts or its scientific name cocosnucifera are the most important of cultivated palms and the most widely distributed of all palms. Coconut is a tall cylindrical-stalked palm tree, reaching 30 m in height and 60-70 Cm in diameter. It is a tropical plant. For low altitudes. It needs sunshine and a soil richincalcium and phosphorus, and isthusgenerallysuitableforcultivation in sandy seashore. The most important part of the tree is its fruit, which is egg- shaped, about 30 cm long, and 25 cm in diameter. The more external layer of the fruit is thin and smooth; its fibrous mesocarp is 3-5 cm thick, and the endocarp is veryhard. The fruit has a large central cavity, which contains a sweet liquid (coconut water). The number of fruits per trees varies, depending entirely on soil conditions. It is possible to get from 20 up to 600 fruits per year. The leaf stalk encircles the trunk and supports the weight of the bunch of nuts. The cluster of nuts weights 30-50 Ib when green and the 20-ft long leaf weight 20-25 lb. The fruit is oval in shape, and in the husk is about the six of a football. The fruit consists of 4 parts: about 35% husk, 12% shell, 28%meatand25%water. World Coconut Production Country Production (tons)2016 Indonesia 17,722,429 Philippines 13,825,080 India 11,127,898 Sri Lanka 2,520,095 Brazil 2,649,246 Thailand 815,406 Vietnam 1,469,960 Mexico 1,004,710 Papua New Guinea 1,191,430 Malaysia 504,773 WORLD 61,708,358 Properties of coconut shell :- o Coconut shell has high strength and modulus properties. o It has added advantage of high lignin content. High lignin content makes the composites more weather resistant. o It has low cellulose content due to which it absorb less moisture as compare to other agriculture waste. o Coconuts being naturally available in nature and since its shells are non-biodegradable; they can be used readily in concrete which may fulfill almostall. Sr. no Physical Property Test Results 01 Specific Gravity 1.3 to 1.5 02 Water Absorption (%) 13 to 24 03 Bulk Density(kg/m3) 800 04 Shell Thickness (2-7)mm 3.2 Cement PPC 53 grade was used conforming to IS 269-2015 and physical property was given below: Physical Properties of Cement – Portland cements are commonly characterized by their physical properties for quality control purposes. Their physical properties can be used to classify and compare Portland cements. The challenge in physical property characterization is to develop physical tests that can satisfactorily characterize key parameters- Setting Time, Soundness, Fineness and Strength. 3.3 Fine aggregate Sand conforming to Zone-I(White Boreli) was used as the fine aggregate, as per I.S 383-1970. The sand was air dried and free from any foreign material, earlier than mixing. The sand which was locally available and passing through 4.75mm IS sieve is used. The specific gravity of fine aggregate was 2.60. Locally available river sand conforming
  • 3. International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072 © 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 301 to Grading zone 1of IS: 383 –1970.Clean and dry river sand available locally will be used. Sand passing through IS 4.75mm Sieve will beused forcasting all the specimens.Fine aggregate is defined as material that will pass a No. 4 sieve and will, forthe most part, be retained ona No.200sieve.For increased workability and foreconomy as reflected byuse of less cement, the fine aggregate shouldhavea roundedshape. The purpose of the fine aggregate is to fill the voids in the coarse aggregate and to act as a workability agent. 3.4 Coarse aggregate Aggregates generally occupy 70 to 80 percent of the volume of concrete and can therefore be expected to have an important influence on its properties. They are granular materials, derived for the most part from natural rock (crushed stone or natural gravels) and sands, although synthetic materials such as slag and expanded clay or shale are used to some extent, mostly in lightweight concretes. In addition to their use as economical filler, aggregates generally provide concrete with better dimensional stability and wear resistance. Aggregate classifications are made principally for the purpose of easier identification of particular aggregate lots, or to become familiar with the different types of aggregates. There are numerous ways of classifying aggregates. 3.5 Water Water to be used in the concrete work shouldhavefollowing properties: It should be free from injurious amount of oil, acids, alkalis or other organic or inorganic impurities. It should be free from iron, vegetable matter or other any type of substances, which are likely to have adverse affect on concrete or reinforcement. It should be quitesatisfactoryfor drinking purpose which is used in mixing of concrete. 4. MATERIAL ANALYSIS 4.1 Cement Properties of cement Sr.no Particular Value 1 Fineness of grinding (Residue on I.S. sieve no.9) 1% 2 Normal Consistency (%) water consistency 31% 3 Setting time Initial setting time (min) Final setting time (min) 85 min 290min 4 Compressive strength (average of three cubes) 26.35/mm2 4.2 Fine aggregate Sieve analysis of F.A 4.3 Coarse aggregate Sieve analysis of coarse aggregate 20mm Sieve analysis of aggregate 10mm SIEVE CUMULATIVE % PASSING AVERAGE Sample 1 Sample 2 12.5 00 00 00 10 92.4 92.19 92.30 6.3 31.73 29.52 60.92 4.75 10.94 7.13 9.03 2.36 1.29 0.55 1.85 1.18 0.63 0.43 1.06 PAN 00 00 00 I.S. SIEVE CUMLAATIVE % PASSING AVERAGE Sample 1 Sample 2 4.75 95.75 97.53 97 2.36 85.94 91.01 88 1.18 55.14 59.93 58 0.600 26.81 27.09 27 0.300 7.09 8.62 8 0.150 1.16 1.22 7 0.075 0.43 0.51 0.47 PAN 0.03 0.04 00 I.S. SIEVE CUMULATIVE % PASSING AVE Sample 1 Sample 2 31.5 100 100 100 25 100 100 100 20 98.06 97.16 98 16 79.09 79.86 79 12.5 44.31 41.93 43 10 5.14 5.29 5 6.3 00 00 0
  • 4. International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072 © 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 302 4.4 Coconut shell Sieve analysis of coconut shell Sr. No. Sieve size Weight retained (Kg) Cumulat ive %retain ed % passing 1 40 mm Nil 0 Nil 2 20 mm 0 0 100 3 16 mm 1920 38.32 61.68 4 12.5 mm 1420 66.66 33.34 5 2.36 mm 890 84.42 15.58 6 10 mm 780 99.99 0.01 7 6.3 mm 10 0.01 0 8 Pan 0 - - Total 5010 5010 - 5. TEST PROGRAMME Test Conducted On Hardened Concrete: Confirming to IS 516-1959 In present study cube compression test, split tensile test on cylinders on conventional concrete and coconut shell concrete are carried out. The experimental results and discussion results for various tests are described below. 5.1 Compressive strength test A cube compression test is performed on standard cubes of conventional concrete and coconut shell concrete with partial replacement of 5% 10% 15% of size 150mm x 150mm after 7 days and 28 days of immersion in water for curing. 5.2 Split tensile test The split tensile test is well known indirect test used to determine the tensile strength of concrete. Duetodifficulties involved in conducting the direct tension test, a number of indirect methods have been developed to determine the tensile strength of the concrete. In these tests, in general a compressive force is applied to a concretespecimeninsucha way that the specimen fails due tensile stresses induced in the specimen. The tensile strength at which failure occurs is the tensile strength of concrete. In this investigation the test is carried out on cylinder by splitting along it’s middle plane parallel to edges by applying the compressive load to opposite edges. The arrangement for the test is as shown in fig. The split tensile strength of cylinder is calculated by the following formula. Ft= 2P/π LD 6. RESULT In the present work coarse aggregate is replaced with the coconut shell, by volume. Specimens were casted by replacing 0%, 5%, 10% and 15% of coarse aggregate with coconut shell. Tests were conducted on the cast specimens after 7 and 28 days as mentioned in the IS code. There is no need to treat the coconut shell before use as an aggregate except for water absorption. Tests for Tension and compression were conducted and results were obtained. Coconut shell concrete has better workability because of the smooth surface on one side of the shell and the smaller size of coconut shell. Comparison of strength at 28 days Strength in N/mm2 Without replacement 51.80 5% CS replacement 47.83 10% CS replacement 47.54 15% CS replacement 43.82 40 45 50 55 Strength in N/mm2 Strength in N/mm2 Chart-1: Strength comparison Difference of mass in 15cm x 15cm x 15cm cube Ave. mass of normal conventional concrete – 8.745 kg Ave. mass of 5% CS replacement concrete – 8.558 kg Ave. mass of 10% CS replacement concrete – 8.388 kg Ave. mass of 15% CS replacement concrete – 8.271 kg 8 8.5 9 Mass in KG Mass in KG Chart-2. Mass comparison
  • 5. International Research Journal of Engineering and Technology (IRJET) e-ISSN: 2395-0056 Volume: 06 Issue: 01 | Jan 2019 www.irjet.net p-ISSN: 2395-0072 © 2019, IRJET | Impact Factor value: 7.211 | ISO 9001:2008 Certified Journal | Page 303 7. CONCLUSIONS Use of coconut shell in cement concrete can help in waste reduction and reduction in pollution. The need of the houris to encourage such a use of the wastes as construction material in low cost housing. As per our test and research we were conclude that the strength of the concrete is decrease when the amount of coconut shell is increase, but we were also conclude that the when we add 5% and 10% coconut shell in concrete, there was minor difference instrength. Whenweadd15%coconut shell in concrete the strength was getting low. So that’s why there is ending of replacement of coconut shell in concrete, we conclude that the 10% replacement of coconut shell is better for reduce the weight of concrete structure. We also conclude that the, there is differencein weightwhen we replace 10% coconut shell in concrete and the difference between conventional concreteandcoconutshell concreteis 357 gram in 15cm x 15cm x 15cm cube. And 364 gram difference in 15cm x 30cm cylinder. 8. REFERENCES 1) Dr. B. Damodhar Reddy, “Experimental Analysis of the Use of Coconut Shell as Coarse Aggregate”, published in IOSR Journal of Mechanical and Civil Engineering (IOSR-JMCE), volume 10, Issue 6, January, 2014 2) Daniel Yaw Osei, “Experimental investigation on recycled plastics as aggreagate in concrete” International Research Journal of Engineering and Tech. Volume: 02 Issue: 04 | July-2015 (IRJET) 3) Shrikant M. Harle, “partial replacement of coarse aggregate with coconut shell intheconcrete”JREAS, Vol. 2, Issue 01, Jan. 2017 4) K. Gunasekaran, “Study on reinforced lightweight coconut shell concrete beam behaviorundershear”, Materials and Design 50 (2013) 293–301 5) S. PrakashChandar, “Study on some durability properties of coconut shell concrete with quarry dust”, Article in European Journal of Environmental and Civil Engineering · January 2018 DOI: 10.1080/19648189.2017.1418435 6) DewanshuAhlawat, “coconut shell as partial replacement of coarse aggregate”, Article in International Journal of Civil Engineering and Technology 4(6):12-16 · December 2013 7) Dr. Amarnath Yerramala, “Properties of Concrete with Coconut Shells as Aggregate Replacement” Volume 1, Issue 6 (October2012) PP: 21-31 8) Ajay Kumar Sharma, “Effect of Coconut Husk on the Properties of Concrete”, Paper ID: IJSRDV4I120564 Published in: Volume : 4, Issue : 12 Publication Date: 01/03/2017 9) Concrete technology (theory and practice) by M L Gambhir fourth edition.