斯特林发动机稳健的箔片再生效率

Koji Yanaga, Yuan Gao, Ruijie Li, Songgang Qiu
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引用次数: 1

摘要

热电联产(CHP)系统是利用余热来解决全球变暖和全球能源危机的节能解决方案之一。在许多热电联产技术中,斯特林发动机是突出的,因为它具有各种能源的优势,如太阳能、地热能和工业废热。蓄热器在制造高效斯特林发动机中起着关键作用。由于它是斯特林发动机的储能部件,其性能直接影响到斯特林发动机的效率。在以往的研究中,为了提高蓄热器的性能,设计了一种新的蓄热器,称为鲁棒型箔式蓄热器。由于每个流道的厚度为0.3mm,因此采用增材制造技术制造回热器。在本研究中,设计并制作了一个实验台架,对蓄热器的特性进行了实验研究。通过测量蓄热器的压降和温差,分别推导出摩擦系数和努塞尔数的相关关系。这些相关性与已发表的摩擦系数和努塞尔数相关性进行了比较。此外,为了评价蓄热器的几何构型,利用推导出的摩擦系数和努塞尔数计算了NPH/NTU比。
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Stirling Engine Robust Foil Regenerator Efficiency
Combined Heat and Power (CHP) systems are one of the solutions to save energy by utilizing waste heat for addressing global warming and the global energy crisis. In many CHP technologies, the Stirling engine is outstanding since it has the advantage of various energy sources such as solar, geothermal, and industrial heat waste. The regenerator plays a key role in building a high efficiency Stirling Engine. Since it works as an energy storage component in the Stirling engine, its performance directly affects the Stirling engine efficiency. In the previous research, a new regenerator called the robust foil regenerator was designed to improve the performance of the regenerator. The regenerator was manufactured through the method of additive manufacturing techniques since the thickness of each flow channel is 0.3mm. In this research, a test bench was designed and manufactured to reveal the characteristics of the regenerator experimentally. By measuring the pressure drop and the temperature difference through the regenerator, the friction coefficient and the Nusselt number correlations were derived respectively. These correlations were compared to the published friction factor and Nusselt number correlations. In addition, to evaluate the geometrical configuration of the regenerator, the NPH/NTU ratio was calculated using the derived friction coefficient and Nusselt number.
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