Open Access
Vijay Pokharkar
Saurabh Palkhe
Aditya Pawar
Aditya Yadav
Sagar Khatavkar
- Student Department of Automobile Engineering, Saraswati College of Engineering Maharashtra India
- Student Department of Automobile Engineering, Saraswati College of Engineering Maharashtra India
- Student Department of Automobile Engineering, Saraswati College of Engineering Maharashtra India
- Student Department of Automobile Engineering, Saraswati College of Engineering Maharashtra India
- Professor Department of Automobile Engineering, Saraswati College of Engineering Maharashtra India
Abstract
Analysis of thermal changes of piston, in an automobile an engine is heart of automobile likely in engine that actual mean to piston, who having very important role in the engine, Piston is always subjected to various loads mainly subjected to thermal and mechanical stresses. The role of piston is very clear i.e. transmit or the guide the piston rod which is connected to crankshaft while transmitting piston has to carry out gases pressure forces, thermal stresses too. Piston is the reciprocating part of engine which converts chemical energy into thermal energy then mechanical energy. Therefore piston is always carrying thermo-mechanical load on the piston, piston fails occurs due to fatigue failure which occurs due to cyclic mechanical and thermal loading on the piston. To increase the life of piston and to increase sustainability in thermo-mechanical load wide range of research are going on to modify the design, thermal properties by changing various material alloy, method of, manufacturing are also changed. This follows a conventional technique for calculating critical dimensional values using empirical equations and material constants derived from prior data. Using solid modelling software such as CATIA v5 and SOLIDWORKS, a three-dimensional model of a piston is created, and meshing is done or can be built using a finite element model. Further, a finite element model can made by ANSYS which gives help for actual report of analysis. Thermal flux and temperature distribution are studied in thermal analysis by applying various temperatures to the piston’s surface.
Keywords: Thermal stress, Ansys, Catia V5, Piston, Solid works.
References
1. Structural and Transient Thermal Analysis of Piston Using Ansys Workbench 15.0 I.V.Syeswanth Assistant Professor, Mechanical Engineering, QIS Institute of Technology, Ongole, India
2. Static and Thermal Analysis of Piston using FEM Analysis Valentin Mereuta1 1Faculty of Engineering, University “Dunarea de Jos”, Galati, Romania.
3. Thermal Analysis of Piston Using Convex and Concave Profile of Piston head Satish Sharma#, P.S.Dhakar*.
4. Thermal Analysis of Piston Using Ansys Mr. Vinay D. Shinde, Mr. Pratik P. Shinde, Mr. Tanmay T. Revankar, Prof. Rohit Bhandwale4 1,2,3B. E. Students, Mechanical Engineering Department, Shivajirao S. Jondhle College of Engineering & Technology, Asangaon.
5. Thermal and Static Structural Analysis on Piston G.V.N. Kaushik.
6. Design and Analysis of Four Stroke Piston for Diesel Engine Thermal and Static Analysis K. Sivaramakrishnan, A. Rajesh, S. Somalingam, V. Venkatesh Assistant Professor, Mechanical Engineering, Prathyusha Engineering College, Thiruvallur, India.
7. Structural and Thermal Analysis of IC Engine Piston Head with Concave and Convex Shapes D. Mani Sai Kamal.
8. E. Abu-Nada, I. Al-Hinti, A. Al-Sarkhi, B. Akash “Department of Mechanical Engineering, Hashemite University, Zarqa 13115, Jordan”, Institution of Mechanical Engineers, London, pp. 133–145.
9. Bhagat.A.,R, Jibhakate.Y.M, (2012). Thermal Analysis and Optimization of I.C. Engine Piston Using Finite Element Method, International Journal of Modern Engineering Research (IJMER), 2(4). 2919-2921.
10. Velliangiri. M and Krishnan. A. S, (2012). An Experimental Investigation of Performance and Emission in Ethanol Fueled Direct Injection Internal Combustion Engines with Zirconia Coating. Journal of Energy Technologies and Policy, 2(2), 43.
| Volume | |
| Received | January 10, 2022 |
| Accepted | January 29, 2022 |
| Published | January 29, 2023 |