电气化飞机推进概念的热管理系统设计

Jeffryes W. Chapman, Hashmatullah Hasseeb, Sydney L. Schnulo
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引用次数: 25

摘要

本文描述了NASA发布的三种电气化飞机推进(EAP)飞行器概念的热管理系统(TMS)的开发,这些概念涵盖了UAM、区域和单通道市场。对于每个EAP概念,传统的TMS是为两个电子元件技术水平设计的:最先进的和先进的。本文的目标是比较上述EAP概念的TMS设计,研究需求变化如何影响TMS子组件,并建立广义的TMS尺寸关系。每个传统的TMS概念都采用基于液体的冷却方法,设计用于冷却EAP电气元件。本研究中考虑的设计参数包括由于不同车辆冷却要求、电气元件效率、车辆总燃油消耗或能源消耗以及电气元件工作温度而导致的TMS架构变化。结果表明,低温限制的冷却组件增加了TMS重量,并证明了特定技术的效率提高可以在更严格的温度限制下实现更低重量的TMS系统。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Thermal Management System Design for Electrified Aircraft Propulsion Concepts
This paper describes the development of thermal management systems (TMS) for three electrified aircraft propulsion (EAP) vehicle concepts released by NASA that span the UAM, regional, and single-aisle markets. For each EAP concept, a conventional TMS is designed for two electric component technology levels: state of the art and advanced. The goals for the paper are to compare the TMS designs for the above EAP concepts, to study how changes in requirements affect the TMS subcomponents, and to develop generalized TMS sizing relations. Each conventional TMS concept utilizes a liquid-based cooling methodology and is designed to cool the EAP electrical components only. The design parameters considered in this study include TMS architecture variation due to differing vehicle cooling requirements, electrical component efficiencies, vehicle total fuel burn or energy consumption, and electrical component operating temperatures. Results show that cooling components with low temperature limits increases TMS weight and demonstrate that efficiency gains of the specific technologies can net a lower weight TMS system despite more stringent temperature limits.
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