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Studies on Atkinson Cycle Performance-
A Review

Shyam Pratap Singh Rathore*

Journal of Advanced Mechanical Sciences. 2022 May 10; 1(2): 52-56

ABSTRACT

 

             The upliftment of hybrid vehicles leading to a cleaner environment and better fuel economy is not possible without the applicability of the Atkinson cycle in vehicle engines. The Atkinson cycle's viability for usage in hybrid cars is demonstrated through time-dependent thermodynamics. This cycle engine accomplishes full combustion at constant volume and has an enhanced grade of ignition. These insights can be utilized to create new Atkinson cycle engines as guides. With the help of research articles, researchers investigate the performance of the Atkinson cycle to identify what changes in parameters maximize the Atkinson cycle's operation.


Keywords: ACE, HEV, Otto cycle, engine performance, compression ratio.

References

[1] Jianqin Fu, Qi Liu, Tao Guo, Hongliang Dai, Jingping Liu. Experimental study on the effects of injection parameters and exhaust gas recirculation on combustion, emission, and performance of Atkinson cycle gasoline direct-injection engine. Energy 238 (2022) 121784.
[2] Niu Qingyua, Sun Baiganga, Zhang Dongshenga, Luo Qinghea. Research on performance optimization and fuel-saving mechanism of an Atkinson cycle gasoline engine at low speed and part load. Fuel 265 (2020) 117010.
[3] J. Benajes, J.R. Serrano, S. Molina, R. Novella. Potential of Atkinson cycle combined with EGR for pollutant control in an HD diesel engine. Energy Conversion and Management 50 (2009) 174–183.
[4] Mohammad Hassan Shojaeefard, Mojtaba Keshavarz. Mathematical modeling of the complete thermodynamic cycle of a new Atkinson cycle gas engine. Applied Thermal Engineering 91 (2015) 866-874.
[5] Jinxing Zhao. Research and application of over-expansion cycle (Atkinson and Miller) Engines. Applied Energy 185 (2017) 300–319.
[6] Jiann-Chang Lin, Shuhn-Shyurng Hou. Influence of heat loss on the performance of an air-standard Atkinson cycle. Applied Energy 84 (2007) 904–920.

[7] Yuanhui Li, Jinxing Zhao, Fangchang Xu. The effects of the engine design and operation parameters on the performance of an Atkinson engine considering heat transfer, friction, combustion efficiency, and variable specific heat. Energy Conversion and Management 151 (2017)11–22.
[8] Shuhn-Shyurng Hou. Comparison of performances of air standard Atkinson and Otto cycles with heat transfer considerations. Energy Conversion and Management 48 (2007) 1683–1690.
[9] Rahim Ebrahimi. Effects of mean piston speed, equivalence ratio, and cylinder wall temperature on the performance of an Atkinson engine. Mathematical and Computer Modelling 53 (2011) 1289–1297.
[10] Guven Gonca. Performance analysis and optimization of irreversible Dual–Atkinson cycle engine (DACE) with heat transfer effects under maximum power and maximum power density conditions. Applied Mathematical Modelling 40 (2016) 6725–6736.
[11] Pai-Yi Wang, Shuhn-Shyurng Hou. Performance analysis and comparison of an Atkinson cycle coupled to variable temperature heat reservoirs under maximum power and maximum power density conditions. Energy Conversion and Management 46 (2005) 2637–2655.
[12] Yingru Zhao, Jincan Chen. Performance analysis and parametric optimum criteria of an irreversible Atkinson heat-engine. Applied Energy 83 (2006) 789–800.
[13] Niranjan Miganakallua, Zhuyong Yanga, Tyler Millera, Vinicius Bonfochi, Vinhaesa, Jeremy Worma, Jeffrey Nabera, David Roth. Investigation of high load operation of spark-ignited over-expanded Atkinson cycle engine. Applied Energy 262 (2020) 114519.
[14] Min Xu, Jinxing Zhao, Mian Li, Bin Wang, Shuangzhai Liu. Design and optimization of an Atkinson cycle engine with the Artificial Neural Network Method. Applied Energy 92 (2012) 492–502.
[15] Yanlin Ge, Lingen Chen, Fengrui Sun, Chih Wu. Performance of an Atkinson cycle with heat transfer, friction, and variable specific heats of the working fluid. Applied Energy 83 (2006) 1210–1221.