内燃机活塞热障涂层提高发动机效率

Balbheem Kamanna, Bibin Jose, Ajay Shamrao Shedage, Sagar Ganpat Ambekar, Rajesh Somnath Shinde, Sagar Landge
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引用次数: 5

摘要

活塞被认为是内燃机最重要的部件。内燃机产生的高温可能导致高热应力。如果没有合适的换热机构,活塞顶的工作效率就会降低,从而降低活塞的使用寿命,降低发动机的机械效率。文献调查表明,理想活塞消耗燃烧气体产生的热量,导致发动机整体效率下降。本课题尝试用TBC对活塞表面进行再设计,并对其性能进行研究。以150cc发动机为例,在活塞上涂覆不同厚度的TBC材料。利用三维设计软件Solidworks2015对活塞几何形状进行三维建模。采用有限元方法计算了活塞顶的温度和热流密度分布。结果表明,在活塞顶表面涂覆TBC可以降低活塞内部的换热速率,从而提高发动机效率。温度和热流密度随涂层厚度的增加而降低。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermal Barrier Coating on IC Engine Piston to Improve Engine Efficiency
The piston is considered as most important part of I.C engine. High temperature produced in an I.C engine may contribute to high thermal stresses. Without appropriate heat transfer mechanism, the piston crown would operate ineffectively which reduce life cycle of piston and hence mechanical efficiency of engine. The literature survey shows that ideal piston consumes heat produced by burnt gases resulting in decrease of Engine overall Efficiency. In this project work an attempt is made to redesign piston crown using TBC on piston surface and to study its Performance. A 150 cc engine is considered and TBC material with different thickness is coated on the piston. 3D modeling of the piston geometry is done 3D designing software Solidworks2015. Finite Element analysis is used to calculate temperature and heat flux distribution on piston crown. The result shows TBC as a coating on piston crown surface reduces the heat transfer rate within the piston and that will results in increase of engine efficiency. Results also show that temperature and heat flux decreases with increase in coating thickness of YSZ.
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