Abstract
The engine block is a crucial component of internal combustion engines since it provides the source of power for the vehicle. The engine block is a solid cast element that contains the cylinders and their related components inside a cooled and lubricated crankcase. The majority of engine blocks are cast iron, a brittle rich material that can sustain greater variations and weights while also being vibration resistant. Energy is changed from potential chemical energy to mechanical energy in this step, which is heat produced from burning fuel in the form of mechanical energy. A large amount of energy may be lost during the firing of an engine. This must be assessed using CFD prediction techniques. For starters, significant thermal and structural stresses may be produced over the cylinder blocks and pistons. Prior to the fabrication of the specific Internal Combustion engine, the structural and thermal analysis aids in the failure analysis. The solid modeller Parametric-Creo is used to create the current and new engine block models. This technical chapter will cover the simulation and analysis of the structural and thermal consequences of each specified bore piston and cylinder block model. The effective stress and temperature analysis using the finite element method will be performed using current tools such as ANSYS workbench, ADSL, and Deform 3D, with the processes and analytical functions described utilising supplementary literature theories, which can be found here.
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References
Ahmed A, Basim (2009) Thermal effects on diesel engine piston and piston compression ring. Eng Technol J 27(8)
Ansari MB, Ul Haque MF, Joshi PS (2020) Design and analysis of engine block. Int Res J Eng Technol (IRJET) 07(05). e-ISSN: 2395-0056
Bhagat AR, Jibhakate YM, Chimote K (2012). Thermal analysis and optimization of I.C. engine piston using finite element method. Gas 2
Challen B, Baranescu R (1999) Diesel engine reference book, 2nd edn. In: Pistons and engine testing, Vieweg + Teubner Verlag, SAE, Warrendale, PA, Mahle, 2012. https://doi.org/10.1007/978-3-8348-8662-0
Chigrinova NM, Kuznechik OO, Chigrinov VV (2004) Analysis of heat stresses of the parts of the cylinder-piston group with heat-protective coatings in an internal-combustion engine. J Eng Phys Thermophys 77:578–589
Hamzwhei M, Manochehr R (2006) Determination of piston and cylinder head temperature distribution in a 4‐cylinder gasoline engine at actual process. In: Proceedings of the 4th WSEAS international conference on heat transfer, thermal engineering and environment, Elounda, Greece, Aug 2006
Iruthayaraj R, Palani S, Ajay Vishal R, Living Rockson T, Anand K (2021) Design and analysis of rocker arm shaft in IC engine hino series for reduction of assembling dismantling time. In: Akinlabi E, Ramkumar P, Selvaraj M (eds) Trends in mechanical and biomedical design. Lecture notes in mechanical engineering. Springer, Singapore. https://doi.org/10.1007/978-981-15-4488-0_11
Jayale SR, Kadam GA, Pathan U (2017) Stress analysis of piston at different pressure load. Int Res J Eng Technol (IRJET) 04(05)
Kourav SK, Ghagare VB (2015) Design and analysis of piston by using finite element analysis. Int J Eng Res Technol (IJERT) 4(09):296–301. ISSN: 2278-018
Krishna S, Aravind A (2014) Thermal and stress distribution of different I.C. engine piston combustion chambers using 3-D finite element analysis method 3(2)
Kumar M (2017) A finite element thermo-mechanical stress analysis of internal combustion engine piston 04(06)
Kurbet SN, Krishnakumar R (2004) A finite element study of piston tilt effects on piston ring dynamics in IC engines. In: Proceedings of Institution of Mechanical Engineers (IMECHE) Part K, pp 107–117
Narayana KS, Phani Kumar S, Srinivasa Rao MSS (2014) Thermo-structural finite element analysis of I.C. engine pistons. In: International colloquium on materials manufacturing and metrology, ICMMM 2014, 8–9 Aug, IIT Madras, Chennai, India, pp 882–884
Pandey K, Gupta K, Papaiya V, Dwivedi M (2020) Analysis of static stresses and thermal stresses of an internal combustion engine piston of different materials
Rahman MM, Ariffin AK, Jamaludin N, Haron CHC (2019) Finite element based vibration fatigue analysis for a new free piston engine component. Arab J Sci Eng 3
Rao CRM, Muthuveerappan G (1993) Finite element modelling and stress analysis of helical gear teeth. Comput Struct 49(6):1095–1106
Sathishkumar K, Ugesh N (2016) Finite element analysis of a shaft subjected to a load in ARPN. J Eng Appl Sci 11(9). ISSN 1819-6608
Sathishkumar S, Kannan M, Raguraman V (2016) Finite element analysis of internal combustion engine piston using thermo mechanical approach 1(3):2394–9333
Sathishkumar K, Vignesh K, Ugesh N, Sanjeevaprasath PB, Balamurugan S (2017) Computational analysis of heat transfer through fins with different types of notches. Int J Adv Eng Res Sci 4(2):175–183. ISSN: 2349-6495, 2456-1908
Sharma SK et al (2015) Experimental thermal analysis of diesel engine piston and cylinder wall. J Eng 2015:1–10
Singh L, Rawat SS, Hasan T, Kumar U (2015) Finite element analysis of piston in ANSYS. Int J Mod Trends Eng Res (IJMTER) 02(04):619–626
Szurgott P, Niezgoda T (2011) Thermo mechanical FE analysis of the engine piston made of composite material with low hysteresis. J KONES Power Trains Transp 18(1)
Tzoref J, Stotter A, Zvirin Y (1978) Dynamic response of the temperature and stress fields in an I.C. engine piston. Int J Mechan Sci 20(9):581–592. ISSN 0020-7403
Vijayarangan S, Ganesan N (1994) Static contact stress analysis of a spur gear tooth using the finite element method, including frictional effects. Comput Struct 51(6):765–770
Zhang H, Lin Z, Xu D (2013) An analysis to thermal load and mechanical load coupling of a gasoline engine piston. J Theor Appl Inf Technol 48(2):911–917
Zheng ZC, Gao Y, Liu B (2008) Finite element analysis of zh195 diesel engine block. Internal Combustion Engine Power Plant 8:5–9
Acknowledgements
First and foremost, I would like to thank the ISEES team for conducting the “Energy, Environment and Sustainability Series” with the book entitled “Engine Modelling and Simulations”. My special thanks to professor K Madhu Murthy Garu (NITW), for giving me the best opportunity, He suggested and supported me to write a book chapter entitled “Development of Engine Models and Analysis of Cylinder Bore Piston Stresses and Temperature Effects in IC Engine”. I am truly privileged to have had his assistance. I would like to thank my parents (Jagannatham-Sharada), Brothers, Life partner (Nagasudha), and my friends for their enduring support from the beginning.
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Kumar, A.A., Murthy, K.M. (2022). Development of Engine Models and Analysis of Cylinder Bore Piston Stresses and Temperature Effects in Internal Combustion Engine. In: Agarwal, A.K., Kumar, D., Sharma, N., Sonawane, U. (eds) Engine Modeling and Simulation. Energy, Environment, and Sustainability. Springer, Singapore. https://doi.org/10.1007/978-981-16-8618-4_2
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