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Under the Guidance of :
Mr.D.Chandan Kumar M.E.,
Assistant Professor
AAKASH M 410117103001
ABIRAMI V 410117103002
ISHWARYA K 410117103014
VINOVATHANI J 410117103053
PROJECT MEMBERS
DEPARTMENT OF CIVIL ENGINEERING
EXPERIMENTAL STUDY OF STRENGTH
BEHAVIOUR ON CEMENT MORTAR USING
CRUSHED STONE DUST, GRANITE WASTE AND
ALUMINIUM HYDROXIDE AS ADDITIVES
ABSTRACT
 Our investigates the effect of Granite Waste with Aluminum
Hydroxide used as partial substitute for cement and Crushed
stone dust as fully substitute for sand on the performance of
cement mortar with OPC 53 grade cement and crushed stone
dust available locally.
 This study involves the replacement levels of the Granite Waste
to cement 0%, 10%, 20%, 30%, 40%, 50% with Aluminum
Hydroxide 5% for 1:3 mix proportion and the fully replacement
level of crushed stone dust to sand for 1:3 mix proportion.
 Mortar cubes are tested for compressive strength at 3 days, 7
days, 28 days of curing.
INTRODUCTION
 Huge quantities of construction materials are required in
developing countries due to continued infrastructural growth and
in turn large quantities of construction wastes are generated
every year.
 Wastes are also generated from various industries such as stone
dust from crushing unit, aluminum hydroxide from aluminum
industries etc.
 The disposal of these wastes is a very serious problem because
these wastes requires huge space for its disposal and pollutes the
environment.
 Hence lot of research works need to be carried out to investigate
to use these wastes as construction materials. Aluminum
hydroxide and granite powder are two such industrial wastes
generated in large quantities.
 Aluminum hydroxide is the waste generated during aluminum
production. From the literature it is observed that aluminum
hydroxide is added to cement as stabilizer and to soil as
flocculating agent.
 Aluminum hydroxide is not extremely sensitive to moisture
content variations and is also used as fire retardant filler. These
are the desirable properties for additives used in soil
stabilization.
 Granite powder is obtained from the granite slurry generated in
granite processing industry. Granite powder has SiO2as the
major component and small amount of calcium oxide which
helps in the stabilization and hydration with cement.
 The grain size and specific gravity of granite powder is also
suitable as an additive to cement. Since granite powder possess
cementitious properties, it can be used as an improver with
cement to develop soil cement stabilized masonry interlocking
blocks.
The main objectives of project are:
• To study the properties of cement mortar using granite
waste and aluminum hydroxide
• To determine the optimum dosage of granite waste and
aluminum Hydroxide to be used as replacement of cement
in cement mortar.
• To determine the various strength of cement mortar by
stone dust, Granite waste and Aluminum hydroxide.
• Compressive strength, Abrasion Resistance (IS15658-
2006), Water Absorption
OBJECTIVE
SCOPE OF THE PROJECT
• The focus of current study is to use of stone dust,
Granite waste and Aluminum Hydroxide to improve
the strength properties of mortar.
METHODOLOGY
S.NO AUTHOR
NAME
TITLE JOURNAL
NAME
YEAR INFORMATION
GAINED
1
Arivumangai, T.
Felixkala
Strength
and
Durability
Properties of
Granite
Powder
Concrete
International
journal of
advanced
research in
engineering
volume 2
2014
The optimum
Granite powder
replacement as
cementation
material is
characterized by
high compressive
strength low heat
of hydration
etc…
LITERATURE REVIEW
2
DEEPTHI
VEMURI,
MS.S.SNIGDHA
An
experimental
study of a red
mud on partial
replacement of
cement with
and without
hydrated lime .
Nigerian
journal of
technology
volume 42
No.2
2018
To realize
pozzolanic
property of red
mud , hydrated
lime was
accessorial.
3
ZAHRA
ABDOLLAHNE
JAD,
MOHAMMAD
MASTALI,
MAHROO
FALAH
Construction
and demolition
waste as
recycled
aggregates in
alkali activated
concrete.
International
journal of
trend in
scientific
research &
developement
2019
The main
difficulties
observed with
recycled
aggregates in
concrete such as
high levels of
water demands ,
porous structure
and low
mechanical
strength occur in
RAAAC.
4
A.J.PATEL1,
Dr.V.M.PATEL 2 ,
RODRIGUEZ
Partial
replacement of
cement in
concrete.
Civil
engineering
journal,
volume 27
2010
From this study has
analysed the chemical ,
physical,
morphological,
mineralogical
characteristics of
several reservoir sludge
and assesses their
potential for use as 20
% addition in blended
cement manufacture .
5
MR.ABHISHEK
M.V, MR.BAVAN
P
Development
of interlocking
blocks using
granite powder
and AlOH3 as
additives.
Jordan
Journal of
Civil
Engineering
2020
AlOH3 can be added in
the range of 4 to 10%
as an additive to soil
and cement to get the
optimum strength of
soil stabilized block.
6
POOJA SHA,
A.K.SACHAN.R
AM PAL SINGH
Utilization of
stone dust as
an effective
alternative for
sand
replacement
in concrete .
Nigerian
journal of
technology
volume 25
2016
Stone dust is
one of
alternative
material which
can be
successfully
used in
construction
and used as
partial
replacement of
natural sand .
7
P.M.THAMIIPPA
VAI2, THAMIZH
LAKSHMI3,
S.THENDRAL4
Development
of concrete
using
industrial
waste
materials as
partial
Replacement
International
Research
Journal of
Engineering
&Technology
(IRJET)
2013
By adding the
by-products
like fly ash,
metakaolin,
lime powder,
glass powder,
aluminum
powder to get
eco-friendly
cement
8
RADHI
ALZUBAIDI
Recycling of
Aluminum
Byproduct
Waste in
Concrete
Production
Jordan
Journal of
Civil
Engineering,
Volume 11,
No. 1
2017
From this study
demonstrate the
viability of using
ALBP in the
production of low-
strength and lighter
concrete and can help
toward a more
sustainable
construction.
9
GANG
ZHOU, SEN
CAO
Strength
Properties of
concrete by
using Clays
and Alum as
Supplementary
Cementitious
Materials
International
Research
Journal of
Engineering
&Technology
2015
From this paper,
work they have used
alkali free
accelerator
containing
Aluminum Sulphate
as main ingredient
along with corrosion
inhibitor and
complexing agents in
concrete
10
Dhir, R. K.;
Hewlett, P.
C.; and
Chan, Y. N.,
Near-surface
Characteristics
of Concrete
Jordan
Journal of
Civil
Engineering,
Volume 11,
No. 1
2017
From this study
demonstrate the
viability of using
ALBP in the
production of low-
strength and lighter
concrete and can help
Abrasion Resistance,
Materials and
Structures,
11
Kaushik C
Gamit, Dr.
Harshvadan
S Patel
Evaluation of
Compressive
Strength of
Mortars
Containing
Stone dust as
partially
replacement
with fine
aggregate
International
Research
Journal of
Engineering
and
Technology
(IRJET)
2018
From this paper,
work they have used
alkali free
accelerator
containing
Aluminum hydroxide
as main ingredient
along with soil and
complexing agents in
concrete
MATERIAL USED
1. Cement
2. Granite Powder
3. Aluminium Hydroxide
4. Stone Dust
Sl.No
Chemical
Properties
OPC
Granite
Waste
Aluminum
Hydroxide
1 SiO2 61.55% 11 34.0
2 Al2O3 19.65% 10.18 33.2
3 Fe2O3 5.65% 2.02 22.5
4 CaO 5.40% 51 1.4
5 SO3 2.4% - 0.11
6 MgO 3.9% 11.2 6.2
Chemical properties of various materials
CEMENT
The cement was collected from local markets and in one lot
to maintain similarity throughout the investigation
Properties Observation
Normal Consistency 30%
Initial setting time 35 min.
Final setting time 200min.
Specific gravity 3.6
Fineness 5 %
Granite Powder
• Granite Powder is obtained from the crusher units in the form of
finer segment Granite Powder disperses easily in presence of
superplasticizer and fills the voids between the quarry sand,
resulting in a well packed mortar mix. Granite belongs to igneous
rock.
• The Granite Powder was together and delivered in wet condition.
• It was Sun dried prior to use in order to control the collaborating
water content.
• The vital chemical composition of the granite is silica and alumina
with suggestions of potassium and sodium
Fineness Modulus 2.31
Specific Gravity 2.72
Water Absorption 2.6%
Moisture Content 2.6%
Aluminium Hydroxide
• Aluminium Hydroxide is the waste generated during
aluminium production.
• These have high reactivity in a cement paste and form
with its components a number of compounds, including
high sulphate form of calcium hydrosulfo aluminate, low
sulphate form of calcium hydrosulfo aluminate, and
calcium hydro aluminates such as , which also belong to
the like phases of layered structure.
• It was recognized that in the occurrence of Aluminium
Hydroxide the reduction in the setting time of a mortar is
due to quick development of ettringite stage, with
influence of admixture substantial the main and influence
of aluminium-containing phases at this stage minor
Crusher Stone Dust
Stone Dust a waste from the stone crushing division accounts 25% of the
end product from stone overwhelming unit. The finest fractions of fine
aggregate are helpful to prevent separation. Individuals fractions from 4.75
mm to 75 microns are termed as fine aggregate. The fine aggregate used in
this study to produce the SD as sand is petrologically categorized as
granulite and, conferring to its mineralogical configuration, it contains of
hornblende (12 %), alkaline feldspars (15 %), quartz (42 %), plagioclase
(12 %) and hyperstene (15 %) with a small quantity of biotite (4 %). The
rock structure is considered its degree of modifications are very limited. It
is, though, considered by the presence of internal ruptures that are inside
the scale of specific mineral grains.
Fineness Modulus 24.5
Specific Gravity 2.57
Water Absorption 2%
Moisture Content 10%
Sand 92%
Silt 8%
Materials Properties Observation
Cement
Normal Consistency 30%
Initial setting time 35 min.
Final setting time 200min.
Specific gravity 3.6
Fineness 5 %
Stone Dust
Fineness Modulus 24.5
Specific Gravity 2.57
Water Absorption 2%
Moisture Content 10%
Sand 92%
Silt 8%
Granite Powder
Fineness Modulus 2.31
Specific Gravity 2.72
Water Absorption 2.6%
Moisture Content 2.6%
Physical Properties of Materials
MIX DESIGN
Unit weight of cement mortar =2080kg/m3
Cube size =70.6 x 70.6 x 70.6 mm
Volume of cube = 0.000352m3
Amount of cement mortar required,
=2080 x 0.000352
=0.732kg
Ratio taken, 1:3
Required cement = 1/3 x 1.33 x 1440 x 0.000352m
= 0.170kg
Required Stone dust =0.510kg
Required water =0.5 x 0.170
=0.085kg
C-Cement, G-Granite Powder, A-Aluminium Hydroxide, D- stone dust
Cubes moulds of 70 x 70 x 70 mm are cast-off as per the requirement of
Indian standards. w/c = 0.50 was constant throughout the experiment.
Totally 72 specimens were casted for tested at 3, 7 and 28 days. After
suitably mixing of the mortar, mortar was positioned in to moulds in
consecutively in three layer and each layer is well compacted. Cubes be
existing cured at 3 days, 7 days and 28 days in curing tank.
Sl.
No
Mix
No. of specimen required for
No of
specimens
Compression strength
Water
Absorption
Abrasion
resistance
3 days 7 days 28 days 28 days 28 days
1 C100 S100 3 3 3 1 2 12
2 C90 G5 A5 D100 3 3 3 1 2 12
3 C80 G15 A5 D100 3 3 3 1 2 12
4 C70 G25 A5 D100 3 3 3 1 2 12
5 C60 G35 A5 D100 3 3 3 1 2 12
6 C50 G45 A5 D100 3 3 3 1 2 12
Total No of specimens casting 72
Sample Preparation
• Mixing
• Casting
• Curing
• Testing
Results and Discussion
Specimens stored in water shall be tested after removal from
the water and while they are still in the wet condition.
Surface water and perseverance shall be wiped off the
specimens. Specimens when time-honoured dry shall be
kept in water for 24 hours before they are engaged for
testing.
• Compressive strength
• Abrasion Resistance
(IS15658-2006)
• Water Absorption
(IS 1077:1992)
0
2
4
6
8
10
C 1 C2 C3 C4 C5 C6
Compressive
Strength
(N/mm
2
)
Mortar Specimens
3 days 7days 28 days
Compressive Strength
Abrasion Resistance
(IS15658-2006)
3000
3100
3200
3300
3400
3500
3600
C 1 C2 C3 C4 C5 C6
Abrasion
Resistance
in
mm
3
Block Designation
Water Absorption
0
5
10
15
20
25
C 1 C2 C3 C4 C5 C6
Water
Absorption
%
Block Designation
CONCLUSION
Based on the limited experimental results following conclusions can be drawn.
• The compressive strength is achieved by the more than 10% on C4 mixes is 9.5
N/mm2.
• Whereas granite waste used in cement mortar improves the strength only by 25%
replacement of cement when added with AH. The optimal amount of additional of
cement by Granite Powder, Stone Dust and Aluminium Hydroxide was found to be
25%. Use of Granite Powder resources replacing with cement can decrease the cost.
• All mortar samples fall under Class 5 and have water absorption capacity within 20%
satisfying the provision of the code IS 1077:1992.
• Abrasion can be established on mortar in many arrangements and cruelties. Provided
that a cement mortar with high abrasion opposition trusts on a selection of factors.
• The materials designated have a huge influence proceeding the resistance level, as
does the mix strength gain, composition and construction practices.
References
• Arivumangai, T. Felixkala, Strength and Durability Properties of Granite Powder Concrete, Journal of Civil Engineering
Research, Vol. 4 No. 2A, 2014, pp. 1-6. doi: 10.5923/c.jce.201401.01.
• Warzer Qadir, Kawan Ghafor, Ahmed Mohammed, "Characterizing and Modeling the Mechanical Properties of the Cement
Mortar Modified with Fly Ash for Various Water-to-Cement Ratios and Curing Times", Advances in Civil Engineering, vol.
2019, Article ID 7013908, 11 pages, 2019.
• S. Mishra and S. V. Deodhar, Effect of Rice Husk Ash on Cement Mortar and Concrete, NBM Media Private Limited, New
Delhi, India, 2013.
• Tam, V.W.Y., Gao, X, Tam, C., Chan, C.: New approach in measuring water absorption of recycled aggregates, Construction
and Building Materials, 22 (2008), pp. 364-369, http://dx.doi.org/10.1016/j. conbuildmat.2006.08.009
• Li, B., Ke, G., Zhou, M.: Influence of manufactured sand characteristics on strength and abrasion resistance of pavement
cement concrete, Construction and Building Materials, 25 (2011), pp. 3849-3853, http://dx.doi.org/10.1016/j.
conbuildmat.2011.04.004
• Ji, T., Chen, C.Y., Zhuang, Y.Z., Chen, J.F.: A mix proportion design method of manufactured sand concrete based on
minimum paste theory, Construction and Building Materials, 44 (2013), pp. 422- 426,
http://dx.doi.org/10.1016/j.conbuildmat.2013.02.074
• Gonçalves, J.P., Tavares, L.M., Toledo Filho, R.D., Fairbairn, E.M.R., Cunha, E.R.: Comparison of natural and manufactured
fine aggregates in cement mortars, Cement and Concrete Research, 37 (2007), pp. 924-932, http://dx.doi.org/10.1016/j.
cemconres.2007.03.009
• Tam, V.W.Y., Tam, C.: Crushed aggregate production from centralized combined and individual waste sources in Hong Kong,
Construction and Building Materials, 21 (2007), pp. 879-86, http:// dx.doi.org/10.1016/j.conbuildmat.2005.12.016
• G. Balamurugan, P. Perumal (2013) “Use of quarry dust to replace sand in concrete –An experimental study”, IJSRP, volume
3, issue 12, pp 1-4.
• Kannan, K. Subramanian and M.I. Abdul Aleem, “Behaviour of RC slab using quarry dust as partial replacement of fine
Aggregate in concrete”. International Journal of Research in Management & Social Science, Volume 2, Issue 3 (V): July –
September, 2014.
• Yerramala and B. Desai, “Influence of fly ash replacement on strength properties of cement mortar,” International
Journal of Engineering Science and Technology, vol. 4, no. 8, 2012
• Venkata Sairam Kumar N, Dr. B. Panduranga Rao, Krishna Sai M.L.N., “Experimental study on partial replacement of
Cement with quarry dust”. International Journal of Advanced Engineering Research and Studies E-ISSN2249–8974,
IJAERS/Vol. II/ Issue III/April-June,2013/136-137.
• Song H. -W., Kwon S. -J., Byun K. J., Park C. K, “A study on analytical technique of chloride diffusion considering
characteristics of mixture design for high performance concrete using mineral admixture. J. Korea Soc Civil Eng,
2005, 25, 213-223 [in Korean].
• Sahmaran M., Lachemi M., Hossain K. M. A., Li V. C., Internal curing of engineered cementitious composites for
prevention of early age autogenous shrinkage cracking. Cem Concr Res 2009, 39, 893-901.
• C.Kanmalai & Parthian, Pachaivannan & Kala, Dr. (2008). Mechanical properties of high performance concrete
incorporating granite powder as fine aggregate. International Journal on Design and Manufacturing Technologies.
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Concrete Composites, 3 (2009), pp.107-113, http://dx.doi.org/10.1016/j. cemconcomp.2008.12.002
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EXPERIMENTAL STUDY OF STRENGTH BEHAVIOUR ON CEMENT MORTAR

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EXPERIMENTAL STUDY OF STRENGTH BEHAVIOUR ON CEMENT MORTAR

  • 1. Under the Guidance of : Mr.D.Chandan Kumar M.E., Assistant Professor AAKASH M 410117103001 ABIRAMI V 410117103002 ISHWARYA K 410117103014 VINOVATHANI J 410117103053 PROJECT MEMBERS DEPARTMENT OF CIVIL ENGINEERING EXPERIMENTAL STUDY OF STRENGTH BEHAVIOUR ON CEMENT MORTAR USING CRUSHED STONE DUST, GRANITE WASTE AND ALUMINIUM HYDROXIDE AS ADDITIVES
  • 2. ABSTRACT  Our investigates the effect of Granite Waste with Aluminum Hydroxide used as partial substitute for cement and Crushed stone dust as fully substitute for sand on the performance of cement mortar with OPC 53 grade cement and crushed stone dust available locally.  This study involves the replacement levels of the Granite Waste to cement 0%, 10%, 20%, 30%, 40%, 50% with Aluminum Hydroxide 5% for 1:3 mix proportion and the fully replacement level of crushed stone dust to sand for 1:3 mix proportion.  Mortar cubes are tested for compressive strength at 3 days, 7 days, 28 days of curing.
  • 3. INTRODUCTION  Huge quantities of construction materials are required in developing countries due to continued infrastructural growth and in turn large quantities of construction wastes are generated every year.  Wastes are also generated from various industries such as stone dust from crushing unit, aluminum hydroxide from aluminum industries etc.  The disposal of these wastes is a very serious problem because these wastes requires huge space for its disposal and pollutes the environment.  Hence lot of research works need to be carried out to investigate to use these wastes as construction materials. Aluminum hydroxide and granite powder are two such industrial wastes generated in large quantities.
  • 4.  Aluminum hydroxide is the waste generated during aluminum production. From the literature it is observed that aluminum hydroxide is added to cement as stabilizer and to soil as flocculating agent.  Aluminum hydroxide is not extremely sensitive to moisture content variations and is also used as fire retardant filler. These are the desirable properties for additives used in soil stabilization.  Granite powder is obtained from the granite slurry generated in granite processing industry. Granite powder has SiO2as the major component and small amount of calcium oxide which helps in the stabilization and hydration with cement.  The grain size and specific gravity of granite powder is also suitable as an additive to cement. Since granite powder possess cementitious properties, it can be used as an improver with cement to develop soil cement stabilized masonry interlocking blocks.
  • 5. The main objectives of project are: • To study the properties of cement mortar using granite waste and aluminum hydroxide • To determine the optimum dosage of granite waste and aluminum Hydroxide to be used as replacement of cement in cement mortar. • To determine the various strength of cement mortar by stone dust, Granite waste and Aluminum hydroxide. • Compressive strength, Abrasion Resistance (IS15658- 2006), Water Absorption OBJECTIVE
  • 6. SCOPE OF THE PROJECT • The focus of current study is to use of stone dust, Granite waste and Aluminum Hydroxide to improve the strength properties of mortar.
  • 8. S.NO AUTHOR NAME TITLE JOURNAL NAME YEAR INFORMATION GAINED 1 Arivumangai, T. Felixkala Strength and Durability Properties of Granite Powder Concrete International journal of advanced research in engineering volume 2 2014 The optimum Granite powder replacement as cementation material is characterized by high compressive strength low heat of hydration etc… LITERATURE REVIEW
  • 9. 2 DEEPTHI VEMURI, MS.S.SNIGDHA An experimental study of a red mud on partial replacement of cement with and without hydrated lime . Nigerian journal of technology volume 42 No.2 2018 To realize pozzolanic property of red mud , hydrated lime was accessorial. 3 ZAHRA ABDOLLAHNE JAD, MOHAMMAD MASTALI, MAHROO FALAH Construction and demolition waste as recycled aggregates in alkali activated concrete. International journal of trend in scientific research & developement 2019 The main difficulties observed with recycled aggregates in concrete such as high levels of water demands , porous structure and low mechanical strength occur in RAAAC.
  • 10. 4 A.J.PATEL1, Dr.V.M.PATEL 2 , RODRIGUEZ Partial replacement of cement in concrete. Civil engineering journal, volume 27 2010 From this study has analysed the chemical , physical, morphological, mineralogical characteristics of several reservoir sludge and assesses their potential for use as 20 % addition in blended cement manufacture . 5 MR.ABHISHEK M.V, MR.BAVAN P Development of interlocking blocks using granite powder and AlOH3 as additives. Jordan Journal of Civil Engineering 2020 AlOH3 can be added in the range of 4 to 10% as an additive to soil and cement to get the optimum strength of soil stabilized block.
  • 11. 6 POOJA SHA, A.K.SACHAN.R AM PAL SINGH Utilization of stone dust as an effective alternative for sand replacement in concrete . Nigerian journal of technology volume 25 2016 Stone dust is one of alternative material which can be successfully used in construction and used as partial replacement of natural sand . 7 P.M.THAMIIPPA VAI2, THAMIZH LAKSHMI3, S.THENDRAL4 Development of concrete using industrial waste materials as partial Replacement International Research Journal of Engineering &Technology (IRJET) 2013 By adding the by-products like fly ash, metakaolin, lime powder, glass powder, aluminum powder to get eco-friendly cement
  • 12. 8 RADHI ALZUBAIDI Recycling of Aluminum Byproduct Waste in Concrete Production Jordan Journal of Civil Engineering, Volume 11, No. 1 2017 From this study demonstrate the viability of using ALBP in the production of low- strength and lighter concrete and can help toward a more sustainable construction. 9 GANG ZHOU, SEN CAO Strength Properties of concrete by using Clays and Alum as Supplementary Cementitious Materials International Research Journal of Engineering &Technology 2015 From this paper, work they have used alkali free accelerator containing Aluminum Sulphate as main ingredient along with corrosion inhibitor and complexing agents in concrete
  • 13. 10 Dhir, R. K.; Hewlett, P. C.; and Chan, Y. N., Near-surface Characteristics of Concrete Jordan Journal of Civil Engineering, Volume 11, No. 1 2017 From this study demonstrate the viability of using ALBP in the production of low- strength and lighter concrete and can help Abrasion Resistance, Materials and Structures, 11 Kaushik C Gamit, Dr. Harshvadan S Patel Evaluation of Compressive Strength of Mortars Containing Stone dust as partially replacement with fine aggregate International Research Journal of Engineering and Technology (IRJET) 2018 From this paper, work they have used alkali free accelerator containing Aluminum hydroxide as main ingredient along with soil and complexing agents in concrete
  • 14. MATERIAL USED 1. Cement 2. Granite Powder 3. Aluminium Hydroxide 4. Stone Dust Sl.No Chemical Properties OPC Granite Waste Aluminum Hydroxide 1 SiO2 61.55% 11 34.0 2 Al2O3 19.65% 10.18 33.2 3 Fe2O3 5.65% 2.02 22.5 4 CaO 5.40% 51 1.4 5 SO3 2.4% - 0.11 6 MgO 3.9% 11.2 6.2 Chemical properties of various materials
  • 15. CEMENT The cement was collected from local markets and in one lot to maintain similarity throughout the investigation Properties Observation Normal Consistency 30% Initial setting time 35 min. Final setting time 200min. Specific gravity 3.6 Fineness 5 %
  • 16. Granite Powder • Granite Powder is obtained from the crusher units in the form of finer segment Granite Powder disperses easily in presence of superplasticizer and fills the voids between the quarry sand, resulting in a well packed mortar mix. Granite belongs to igneous rock. • The Granite Powder was together and delivered in wet condition. • It was Sun dried prior to use in order to control the collaborating water content. • The vital chemical composition of the granite is silica and alumina with suggestions of potassium and sodium Fineness Modulus 2.31 Specific Gravity 2.72 Water Absorption 2.6% Moisture Content 2.6%
  • 17. Aluminium Hydroxide • Aluminium Hydroxide is the waste generated during aluminium production. • These have high reactivity in a cement paste and form with its components a number of compounds, including high sulphate form of calcium hydrosulfo aluminate, low sulphate form of calcium hydrosulfo aluminate, and calcium hydro aluminates such as , which also belong to the like phases of layered structure. • It was recognized that in the occurrence of Aluminium Hydroxide the reduction in the setting time of a mortar is due to quick development of ettringite stage, with influence of admixture substantial the main and influence of aluminium-containing phases at this stage minor
  • 18. Crusher Stone Dust Stone Dust a waste from the stone crushing division accounts 25% of the end product from stone overwhelming unit. The finest fractions of fine aggregate are helpful to prevent separation. Individuals fractions from 4.75 mm to 75 microns are termed as fine aggregate. The fine aggregate used in this study to produce the SD as sand is petrologically categorized as granulite and, conferring to its mineralogical configuration, it contains of hornblende (12 %), alkaline feldspars (15 %), quartz (42 %), plagioclase (12 %) and hyperstene (15 %) with a small quantity of biotite (4 %). The rock structure is considered its degree of modifications are very limited. It is, though, considered by the presence of internal ruptures that are inside the scale of specific mineral grains. Fineness Modulus 24.5 Specific Gravity 2.57 Water Absorption 2% Moisture Content 10% Sand 92% Silt 8%
  • 19. Materials Properties Observation Cement Normal Consistency 30% Initial setting time 35 min. Final setting time 200min. Specific gravity 3.6 Fineness 5 % Stone Dust Fineness Modulus 24.5 Specific Gravity 2.57 Water Absorption 2% Moisture Content 10% Sand 92% Silt 8% Granite Powder Fineness Modulus 2.31 Specific Gravity 2.72 Water Absorption 2.6% Moisture Content 2.6% Physical Properties of Materials
  • 20. MIX DESIGN Unit weight of cement mortar =2080kg/m3 Cube size =70.6 x 70.6 x 70.6 mm Volume of cube = 0.000352m3 Amount of cement mortar required, =2080 x 0.000352 =0.732kg Ratio taken, 1:3 Required cement = 1/3 x 1.33 x 1440 x 0.000352m = 0.170kg Required Stone dust =0.510kg Required water =0.5 x 0.170 =0.085kg
  • 21. C-Cement, G-Granite Powder, A-Aluminium Hydroxide, D- stone dust Cubes moulds of 70 x 70 x 70 mm are cast-off as per the requirement of Indian standards. w/c = 0.50 was constant throughout the experiment. Totally 72 specimens were casted for tested at 3, 7 and 28 days. After suitably mixing of the mortar, mortar was positioned in to moulds in consecutively in three layer and each layer is well compacted. Cubes be existing cured at 3 days, 7 days and 28 days in curing tank. Sl. No Mix No. of specimen required for No of specimens Compression strength Water Absorption Abrasion resistance 3 days 7 days 28 days 28 days 28 days 1 C100 S100 3 3 3 1 2 12 2 C90 G5 A5 D100 3 3 3 1 2 12 3 C80 G15 A5 D100 3 3 3 1 2 12 4 C70 G25 A5 D100 3 3 3 1 2 12 5 C60 G35 A5 D100 3 3 3 1 2 12 6 C50 G45 A5 D100 3 3 3 1 2 12 Total No of specimens casting 72
  • 22. Sample Preparation • Mixing • Casting • Curing • Testing
  • 23. Results and Discussion Specimens stored in water shall be tested after removal from the water and while they are still in the wet condition. Surface water and perseverance shall be wiped off the specimens. Specimens when time-honoured dry shall be kept in water for 24 hours before they are engaged for testing. • Compressive strength • Abrasion Resistance (IS15658-2006) • Water Absorption (IS 1077:1992)
  • 24. 0 2 4 6 8 10 C 1 C2 C3 C4 C5 C6 Compressive Strength (N/mm 2 ) Mortar Specimens 3 days 7days 28 days Compressive Strength
  • 25. Abrasion Resistance (IS15658-2006) 3000 3100 3200 3300 3400 3500 3600 C 1 C2 C3 C4 C5 C6 Abrasion Resistance in mm 3 Block Designation
  • 26. Water Absorption 0 5 10 15 20 25 C 1 C2 C3 C4 C5 C6 Water Absorption % Block Designation
  • 27. CONCLUSION Based on the limited experimental results following conclusions can be drawn. • The compressive strength is achieved by the more than 10% on C4 mixes is 9.5 N/mm2. • Whereas granite waste used in cement mortar improves the strength only by 25% replacement of cement when added with AH. The optimal amount of additional of cement by Granite Powder, Stone Dust and Aluminium Hydroxide was found to be 25%. Use of Granite Powder resources replacing with cement can decrease the cost. • All mortar samples fall under Class 5 and have water absorption capacity within 20% satisfying the provision of the code IS 1077:1992. • Abrasion can be established on mortar in many arrangements and cruelties. Provided that a cement mortar with high abrasion opposition trusts on a selection of factors. • The materials designated have a huge influence proceeding the resistance level, as does the mix strength gain, composition and construction practices.
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