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Title: To Enhance The Tribological Properties
Of 15W40 Engine Oil
Presented By
1)Mr. Guldagad Abhishek Vinaykumar 2)Mr. Irabattin Rushikesh Vyankatesh
3)Mr. Korde Sagar Bharat 4)Mr. Jamdar Akash Balasaheb
DEPARTMENT OF MECHANICAL ENGINEERING
Prof. A. S. Aher Dr. K.B. Kale
(Guided By) (H.O.D)
(Non Sponsored)
PROJECT CONTENT :
Introduction
Problem statement
Need of project
Literature survey of project
Literature Gap
Objectives
Methodology
Project work involved
Proposed conclusion
References
Introduction:
In every mechanical system where the surface contact is
happened like wear, friction, noise generation etc. the proper
lubrication is essential for avoiding engine maintenance cost
and to increase engine life.
To reduce friction and wear, nanoparticles have been used as
lubricant additives that have promising effects on friction and
wear reduction especially in automotive industry
It reducing especially high loads, damages served to engine
and saving costs of fuel consumption
15W40 is a number code to specify the range of viscosities of
engine oils at specific test temperatures established by the
Society of Automotive Engineers (SAE).
Problem statement:
In various mechanical systems the conventional lubricants are used
consist of different types of conventional additives. Conventional
additives have few limitations at heavy loads. They are not able to
maintain their original properties and shows poor lubricating and
anti-wear properties at heavy loads.
Need of project:
To reduce the wear and friction of engine parts.
To control maintenance and operation costs by increasing the
life of engine parts.
To increase the tribological properties like viscosity, viscosity
index etc.
To increase the life of engine.
As , the no. of vehicles are increasing rapidly but the sources
of oil is limited, by this project we are trying to make oil
which has high tribological properties as compared to general
oil.
Literature survey of project:
Paper
No.
Name of the paper and
journal conference
Name of
author
Publication
year
Concluding remarks
1. Research progress of nano
lubricating additives
Ting Li, et.al 2021 The addition of nanomaterials
in the field of tribological
lubrication improving the
resistance of traditional
lubricants to wear has been
significantly improved.
2. A Study on the Tribological
Performance of Nanolubricants
Yeoh Jun Jie
Jason, et.al
2020 The size, concentration, and
morphology of nanoparticles
are relevant to the
improvement of
tribological characteristics. in
base oils.
Paper
No.
Name of the paper and
journal conference
Name of
author
Publication
year
Concluding remarks
3. Experimental Analysis of
Lubricating Oil Using
Nanoparticles as Modifiers for
Tribological Properties
Mr.Nikam
M.M, et.al
2018 Addition of molybdenum
sulphide and copper oxide in
base oil(SAE 20W30
mineral oil) increases the
flash and fire point of
sample.
4. A Review on Tribological
Properties of Various Lubricant
Mixtures and Additives
Ms. Ruchira P.
Pokharkar,et.al
2017 Load carrying capacity of the
base lubricant can be
improved by the addition of
the nanoparticles. The
positive effect of the nano-
MoS2 is more pronounced
under high contact pressures
as compared with nano-SiO2
because of extreme pressure
effect.
Paper
No.
Name of the paper and
journal conference
Name of
author
Publication
year
Concluding remarks
5. Experimental analysis of
tribological properties of
lubricating oil using nanoparticle
additives.
S.N.Mandlik,
et.al
2016 Addition of Nickel (Carbon
Coated) and silicon oxide in
SAE 40 Engine oil increases
the Flash and fire point of
sample. Also increases the
viscosity of oil and decreases
the wear rate of oil.
6. Tribology Properties of
Synthesized Multiscale
Lamellar WS2 and Their
Synergistic Effect with
Anti-Wear Agent ZDDP
Na Wu, et. al 2019 In this work, the multiscale
lamellar-structure WS2
particles with sizes of 2 µm
and 500 nm
were successfully
synthesized by solid-phase
reaction method. Then, the
tribological properties of
multiscale 2H-WS2 and
ZDDP as additives in PAO at
four sliding velocities were
investigated at room
temperature.
Paper
No.
Name of the paper and
journal conference
Name of
author
Publication
year
Concluding remarks
7. Tribological properties and
stabilization study of surfactant
modified MoS2 nanoparticle in
15W40 engine oil
Jamale Sonali,
et. al
2014 A very slight improvement in
viscosity of oil was obtained
on the addition of MoS2
nanoparticles. The flash and
fire point, pour point
increased by 5°C and cloud
point decreased by 5°C on
the addition of nanoparticles
in oil.
Paper
No.
Name of the paper and
journal conference
Name of
author
Publication
year
Concluding remarks
9. Metal-containing nanomaterials as
lubricant additives: State-of-the-
art and future development
Igor E.
UFLYAND et.
al
2019 Informations about various
nanoparticles , The
tribological mechanism of
nanolubricants should be
studied and examined in
more detail using modern
analytical methods as well as
molecular simulation.
Selection of nano-
particles
Oil sample
preparation
Design of
experiment(DOE) Experiment/ Test
Best sample
Tribological
properties
Methodology:
Project work involved:
We are searching and studying the different research papers on
tribology about oils.
After that we have to study properties and different additives to
be added in engine oil so we can improve required tribological
properties of oil.
Then we will choose three best samples which fulfill our
requirements.
References
 Ting Li1, Xianggang Chen, Junhai Wang, Lixiu Zhang, Xiaoyi Wei, LiboZhao and MengzhouMa
“Research progress of nano lubricating additives. ” IOPSCIENCE
https://iopscience.iop.org/article/10.1088/1755-1315/680/1/012084, Page No:1, Date: 10 Oct 2021
 Yeoh Jun Jie Jason , Heoy Geok How , Yew Heng Teoh and Hun Guan Chuah “A Study on the
Tribological Performance of Nanolubricants.” https://www.mdpi.com/2227-9717/8/11/1372 Page
No:1, Date: 29 October 2020
 Mr.Nikam M.M, Mr. Shedage S.B., Mr. Mane B.S., Mr. Gitay A.J, “Experimental Analysis of
Lubricating Oil Using Nanoparticles as Modifiers for Tribological Properties”,
https://scholar.google.co.in/scholar?q=Experimental+Analysis+of+Lubricating+Oil+Using+Nanoparti
cles+as+Modifiers+for+Tribological+Properties%E2%80%9D,&hl=en&as_sdt=0&as_vis=1&oi=scho
lart IRJET, Date:03 march 2018
 Ms. Ruchira P. Pokharkar, Prof. Dipak S. Bajaj, “A Review on Tribological Properties of Various
Lubricant Mixtures and Additives”, https://www.ijert.org/research/a-review-on-tribological-properties-
of-various-lubricant-mixtures-and-additives-IJERTCONV5IS02002.pdf year: 2017
 S.N.Mandlik , A.C.Mande, Prof. S.R.Nimbalkar, “Experimental analysis of tribological properties of
lubricating oil using nanoparticle additives”
https://citeseerx.ist.psu.edu/viewdoc/download?doi=10.1.1.1038.1360&rep=rep1&type=pdf IJARIIE-
ISSN(O)-2395-4396 Year: 2016
THANK YOU…
1) 0.1 + 0.1 +0.1 = 0.3%
= 150 X 0.3% = 0.45
= 150-0.45
=149.55 Base oil
•ZDDP(0.1%) = 150 X 0.1%
= 0.15 ml
•MoS2 (0.1%) =150 X 0.1%
= 0.15 ml
= 0.15 X 5.06 ………………………..(Density of MoS2 nanoparticle)
= 0.759 gm
•WS2 (0.1%) = 150 X 0.1%
= 0.15 ml
= 0.15 X 7.4 ………………………..(Density of WS2 nanoparticle)
= 1.11 gm
Calculations:-
3) 0.1+0.3 +0.3 = 0.7%
= 150 X 0.7% = 1.05
= 148.95 Base oil
• ZDDP (0.1%) = 150 ×0.1%
=0.15ml
• MoS2(0.3%) = 150×0.3% = 0.45×5.06
= 2.277 gm
• WS2(0.3%) = 150×0.3% = 0.45×7.4
=3.33 gm
2) 0.1 + 0.2 + 0.2 = 0.5 %
= 150 X 0.5%
= 149.25 Base oil
• ZDDP (0.1%) = 150 ×0.1%
= 0.15ml
• MoS2(0.2%) = 150×0.2% = 0.3×5.06
= 1.518 gm
• WS2(0.2%) = 150×0.2% = 0.3×7.4
=2.22 gm
4) 0.2 + 0.2 + 0.1 = 0.5 %
= 150 × 0.5 % = 0.75
= 149.25 Base oil
•ZDDP (0.2%) = 150 × 0.2%
= 0.30 ml
•MoS2 (0.2%) = 150 × 0.2 %
= 0.3 × 5.06
=1.518 gm
•WS2(0.1%) = 150 × 0.1 %
= 0.15 × 7.4
= 1.11 gm
5) 0.2 + 0.3 + 0.2 = 0.7%
= 150×0.7% = 1.05
= 148.95 Base Oil
•ZDDP (0.2%) = 150 × 0.2%
= 0.3ml
•MoS2 (0.3%) = 150 × 0.3
= 0.45 × 5.06
= 2.277 gm
•WS2 (0.2%) = 150 × 0.2%
= 0.3 × 7.4
= 2.22gm
6) 0.2 + 0.1 + 0.3 = 0.6%
= 150 × 0.6%= 0.9
= 149.1 Base oil
•ZDDP (0.2%) = 150 × 0.2%
= 0.3 ml
• MoS2 (0.1%) = 150 × 0.1%
= 0.15 × 5.06
= 0.759 gm
• WS2 (0.3%) = 150 × 0.3%
= 0.45 × 7.4
= 3.33 gm
7) 0.3 + 0.3 + 0.1 = 0.7%
= 150 × 0.7% = 1.05
= 148.95 Base oil
•ZDDP (0.3%) = 150 X 0.3%
= 0.45 ml
•Mos2(0.3%) = 150 × 0.3%
= 0.45 × 5.06
= 2.277 gm
•Ws2(0.1%) = 150 × 0.1%
= 0.15 × 7.4
= 1.11gm
8) 0.3 + 0.1 + 0.2 = 0.6 %
=150 X 0.6%
= 0.9
•ZDDP(0.3%) = 150 × 0.3%
= 0.45 ml
•Mos2(0.1%) = 150 × 0.1%
= 0.15 × 5.06
= 0.759 gm
•Ws2(0.2%) = 150 × 0.2%
= 0.3 × 7.4
= 2.22 gm
9) 0.3 + 0.2 + 0.3 = 0.8%
= 150 × 0.8% = 1.2
= 148.8 Base Oil
•ZDDP (0.3%) = 150 × 0.3%
= 0.45 ml
•MoS2 (0.2%) = 150 × 0.2%
= 0.3 × 5.06
= 1.518 gm
•WS2 (0.3%) = 150 × 0.3%
= 0.45 × 7.4
= 3.33 gm
Sr. No. ZDDP(% by
weight)
MoS2(% by
weight)
WS2(% by
weight)
1. 0.1 0.1 0.1
2. 0.1 0.2 0.2
3. 0.1 0.3 0.3
4. 0.2 0.2 0.1
5. 0.2 0.3 0.2
6. 0.2 0.1 0.3
7. 0.3 0.3 0.1
8. 0.3 0.1 0.2
9. 0.3 0.2 0.3
Sr. No. ZDDP
(ml)
MoS2
(gm)
WS2
(gm)
Base oil
(150ml of
15W40)
1. 0.15 0.759 1.11 149.55
2. 0.15 1.518 2.22 149.25
3. 0.15 2.277 3.33 148.95
4. 0.3 1.518 0.11 149.55
5. 0.3 2.277 2.22 148.95
6. 0.3 0.759 3.33 149.1
7. 0.45 2.277 0.11 148.95
8. 0.45 0.759 2.22 149.1
9. 0.45 1.518 3.33 148.8

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Project STAGE 1 BE.pptx

  • 1. Title: To Enhance The Tribological Properties Of 15W40 Engine Oil Presented By 1)Mr. Guldagad Abhishek Vinaykumar 2)Mr. Irabattin Rushikesh Vyankatesh 3)Mr. Korde Sagar Bharat 4)Mr. Jamdar Akash Balasaheb DEPARTMENT OF MECHANICAL ENGINEERING Prof. A. S. Aher Dr. K.B. Kale (Guided By) (H.O.D) (Non Sponsored)
  • 2. PROJECT CONTENT : Introduction Problem statement Need of project Literature survey of project Literature Gap Objectives Methodology Project work involved Proposed conclusion References
  • 3. Introduction: In every mechanical system where the surface contact is happened like wear, friction, noise generation etc. the proper lubrication is essential for avoiding engine maintenance cost and to increase engine life. To reduce friction and wear, nanoparticles have been used as lubricant additives that have promising effects on friction and wear reduction especially in automotive industry It reducing especially high loads, damages served to engine and saving costs of fuel consumption 15W40 is a number code to specify the range of viscosities of engine oils at specific test temperatures established by the Society of Automotive Engineers (SAE).
  • 4. Problem statement: In various mechanical systems the conventional lubricants are used consist of different types of conventional additives. Conventional additives have few limitations at heavy loads. They are not able to maintain their original properties and shows poor lubricating and anti-wear properties at heavy loads.
  • 5. Need of project: To reduce the wear and friction of engine parts. To control maintenance and operation costs by increasing the life of engine parts. To increase the tribological properties like viscosity, viscosity index etc. To increase the life of engine. As , the no. of vehicles are increasing rapidly but the sources of oil is limited, by this project we are trying to make oil which has high tribological properties as compared to general oil.
  • 6. Literature survey of project: Paper No. Name of the paper and journal conference Name of author Publication year Concluding remarks 1. Research progress of nano lubricating additives Ting Li, et.al 2021 The addition of nanomaterials in the field of tribological lubrication improving the resistance of traditional lubricants to wear has been significantly improved. 2. A Study on the Tribological Performance of Nanolubricants Yeoh Jun Jie Jason, et.al 2020 The size, concentration, and morphology of nanoparticles are relevant to the improvement of tribological characteristics. in base oils.
  • 7.
  • 8. Paper No. Name of the paper and journal conference Name of author Publication year Concluding remarks 3. Experimental Analysis of Lubricating Oil Using Nanoparticles as Modifiers for Tribological Properties Mr.Nikam M.M, et.al 2018 Addition of molybdenum sulphide and copper oxide in base oil(SAE 20W30 mineral oil) increases the flash and fire point of sample. 4. A Review on Tribological Properties of Various Lubricant Mixtures and Additives Ms. Ruchira P. Pokharkar,et.al 2017 Load carrying capacity of the base lubricant can be improved by the addition of the nanoparticles. The positive effect of the nano- MoS2 is more pronounced under high contact pressures as compared with nano-SiO2 because of extreme pressure effect.
  • 9. Paper No. Name of the paper and journal conference Name of author Publication year Concluding remarks 5. Experimental analysis of tribological properties of lubricating oil using nanoparticle additives. S.N.Mandlik, et.al 2016 Addition of Nickel (Carbon Coated) and silicon oxide in SAE 40 Engine oil increases the Flash and fire point of sample. Also increases the viscosity of oil and decreases the wear rate of oil. 6. Tribology Properties of Synthesized Multiscale Lamellar WS2 and Their Synergistic Effect with Anti-Wear Agent ZDDP Na Wu, et. al 2019 In this work, the multiscale lamellar-structure WS2 particles with sizes of 2 µm and 500 nm were successfully synthesized by solid-phase reaction method. Then, the tribological properties of multiscale 2H-WS2 and ZDDP as additives in PAO at four sliding velocities were investigated at room temperature.
  • 10. Paper No. Name of the paper and journal conference Name of author Publication year Concluding remarks 7. Tribological properties and stabilization study of surfactant modified MoS2 nanoparticle in 15W40 engine oil Jamale Sonali, et. al 2014 A very slight improvement in viscosity of oil was obtained on the addition of MoS2 nanoparticles. The flash and fire point, pour point increased by 5°C and cloud point decreased by 5°C on the addition of nanoparticles in oil.
  • 11. Paper No. Name of the paper and journal conference Name of author Publication year Concluding remarks 9. Metal-containing nanomaterials as lubricant additives: State-of-the- art and future development Igor E. UFLYAND et. al 2019 Informations about various nanoparticles , The tribological mechanism of nanolubricants should be studied and examined in more detail using modern analytical methods as well as molecular simulation.
  • 12. Selection of nano- particles Oil sample preparation Design of experiment(DOE) Experiment/ Test Best sample Tribological properties Methodology:
  • 13.
  • 14.
  • 15.
  • 16. Project work involved: We are searching and studying the different research papers on tribology about oils. After that we have to study properties and different additives to be added in engine oil so we can improve required tribological properties of oil. Then we will choose three best samples which fulfill our requirements.
  • 17. References  Ting Li1, Xianggang Chen, Junhai Wang, Lixiu Zhang, Xiaoyi Wei, LiboZhao and MengzhouMa “Research progress of nano lubricating additives. ” IOPSCIENCE https://iopscience.iop.org/article/10.1088/1755-1315/680/1/012084, Page No:1, Date: 10 Oct 2021  Yeoh Jun Jie Jason , Heoy Geok How , Yew Heng Teoh and Hun Guan Chuah “A Study on the Tribological Performance of Nanolubricants.” https://www.mdpi.com/2227-9717/8/11/1372 Page No:1, Date: 29 October 2020  Mr.Nikam M.M, Mr. Shedage S.B., Mr. Mane B.S., Mr. Gitay A.J, “Experimental Analysis of Lubricating Oil Using Nanoparticles as Modifiers for Tribological Properties”, https://scholar.google.co.in/scholar?q=Experimental+Analysis+of+Lubricating+Oil+Using+Nanoparti cles+as+Modifiers+for+Tribological+Properties%E2%80%9D,&hl=en&as_sdt=0&as_vis=1&oi=scho lart IRJET, Date:03 march 2018  Ms. Ruchira P. Pokharkar, Prof. Dipak S. Bajaj, “A Review on Tribological Properties of Various Lubricant Mixtures and Additives”, https://www.ijert.org/research/a-review-on-tribological-properties- of-various-lubricant-mixtures-and-additives-IJERTCONV5IS02002.pdf year: 2017  S.N.Mandlik , A.C.Mande, Prof. S.R.Nimbalkar, “Experimental analysis of tribological properties of lubricating oil using nanoparticle additives” https://citeseerx.ist.psu.edu/viewdoc/download?doi=10.1.1.1038.1360&rep=rep1&type=pdf IJARIIE- ISSN(O)-2395-4396 Year: 2016
  • 19. 1) 0.1 + 0.1 +0.1 = 0.3% = 150 X 0.3% = 0.45 = 150-0.45 =149.55 Base oil •ZDDP(0.1%) = 150 X 0.1% = 0.15 ml •MoS2 (0.1%) =150 X 0.1% = 0.15 ml = 0.15 X 5.06 ………………………..(Density of MoS2 nanoparticle) = 0.759 gm •WS2 (0.1%) = 150 X 0.1% = 0.15 ml = 0.15 X 7.4 ………………………..(Density of WS2 nanoparticle) = 1.11 gm Calculations:-
  • 20. 3) 0.1+0.3 +0.3 = 0.7% = 150 X 0.7% = 1.05 = 148.95 Base oil • ZDDP (0.1%) = 150 ×0.1% =0.15ml • MoS2(0.3%) = 150×0.3% = 0.45×5.06 = 2.277 gm • WS2(0.3%) = 150×0.3% = 0.45×7.4 =3.33 gm 2) 0.1 + 0.2 + 0.2 = 0.5 % = 150 X 0.5% = 149.25 Base oil • ZDDP (0.1%) = 150 ×0.1% = 0.15ml • MoS2(0.2%) = 150×0.2% = 0.3×5.06 = 1.518 gm • WS2(0.2%) = 150×0.2% = 0.3×7.4 =2.22 gm
  • 21. 4) 0.2 + 0.2 + 0.1 = 0.5 % = 150 × 0.5 % = 0.75 = 149.25 Base oil •ZDDP (0.2%) = 150 × 0.2% = 0.30 ml •MoS2 (0.2%) = 150 × 0.2 % = 0.3 × 5.06 =1.518 gm •WS2(0.1%) = 150 × 0.1 % = 0.15 × 7.4 = 1.11 gm 5) 0.2 + 0.3 + 0.2 = 0.7% = 150×0.7% = 1.05 = 148.95 Base Oil •ZDDP (0.2%) = 150 × 0.2% = 0.3ml •MoS2 (0.3%) = 150 × 0.3 = 0.45 × 5.06 = 2.277 gm •WS2 (0.2%) = 150 × 0.2% = 0.3 × 7.4 = 2.22gm
  • 22. 6) 0.2 + 0.1 + 0.3 = 0.6% = 150 × 0.6%= 0.9 = 149.1 Base oil •ZDDP (0.2%) = 150 × 0.2% = 0.3 ml • MoS2 (0.1%) = 150 × 0.1% = 0.15 × 5.06 = 0.759 gm • WS2 (0.3%) = 150 × 0.3% = 0.45 × 7.4 = 3.33 gm 7) 0.3 + 0.3 + 0.1 = 0.7% = 150 × 0.7% = 1.05 = 148.95 Base oil •ZDDP (0.3%) = 150 X 0.3% = 0.45 ml •Mos2(0.3%) = 150 × 0.3% = 0.45 × 5.06 = 2.277 gm •Ws2(0.1%) = 150 × 0.1% = 0.15 × 7.4 = 1.11gm
  • 23. 8) 0.3 + 0.1 + 0.2 = 0.6 % =150 X 0.6% = 0.9 •ZDDP(0.3%) = 150 × 0.3% = 0.45 ml •Mos2(0.1%) = 150 × 0.1% = 0.15 × 5.06 = 0.759 gm •Ws2(0.2%) = 150 × 0.2% = 0.3 × 7.4 = 2.22 gm 9) 0.3 + 0.2 + 0.3 = 0.8% = 150 × 0.8% = 1.2 = 148.8 Base Oil •ZDDP (0.3%) = 150 × 0.3% = 0.45 ml •MoS2 (0.2%) = 150 × 0.2% = 0.3 × 5.06 = 1.518 gm •WS2 (0.3%) = 150 × 0.3% = 0.45 × 7.4 = 3.33 gm
  • 24. Sr. No. ZDDP(% by weight) MoS2(% by weight) WS2(% by weight) 1. 0.1 0.1 0.1 2. 0.1 0.2 0.2 3. 0.1 0.3 0.3 4. 0.2 0.2 0.1 5. 0.2 0.3 0.2 6. 0.2 0.1 0.3 7. 0.3 0.3 0.1 8. 0.3 0.1 0.2 9. 0.3 0.2 0.3
  • 25. Sr. No. ZDDP (ml) MoS2 (gm) WS2 (gm) Base oil (150ml of 15W40) 1. 0.15 0.759 1.11 149.55 2. 0.15 1.518 2.22 149.25 3. 0.15 2.277 3.33 148.95 4. 0.3 1.518 0.11 149.55 5. 0.3 2.277 2.22 148.95 6. 0.3 0.759 3.33 149.1 7. 0.45 2.277 0.11 148.95 8. 0.45 0.759 2.22 149.1 9. 0.45 1.518 3.33 148.8