N. Morioka, Hitoshi Oyori, Naoki Seki, T. Fukuda, Fuminori Suzuki
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For example, a recently developed turbo-fan engine system increases the heat generation by introduction of a fan drive gear system that produces a large amount of heat in addition to the conventional heat source, such as engine main bearings and gears. The MEE will have further heat sources within its system, like the E3M, which is a high-power electric machine. In this paper, an investigation approach and the result of a feasibility study of the MEE thermal management system is described.\n In addition, the perspective of the technology trend from the MEE toward future hybrid propulsion is also discussed. The global requirements for climate protection strongly demand game-changing technology that significantly improves the aircraft’s overall efficiency. A series/parallel partial hybrid propulsion system, in which both a turbo-fan engine and electrical motor-driven fans generate propulsive power, is considered to be one of the most promising approaches for the future commercial aircraft hybrid propulsion system. The MEE and E3M technology evolves until it will be applied in hybrid propulsion system.","PeriodicalId":114672,"journal":{"name":"Volume 1: Aircraft Engine; Fans and Blowers; Marine","volume":"62 1","pages":"0"},"PeriodicalIF":0.0000,"publicationDate":"2018-06-11","publicationTypes":"Journal Article","fieldsOfStudy":null,"isOpenAccess":false,"openAccessPdf":"","citationCount":"1","resultStr":"{\"title\":\"Thermal Management System for the MEE and Engine Embedded Electric Machine\",\"authors\":\"N. Morioka, Hitoshi Oyori, Naoki Seki, T. 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引用次数: 1
摘要
MEE (More Electric Engine)是发动机系统电气化的一个概念,是发动机系统设计的一个进化步骤,有助于减少航空二氧化碳排放。Mifee(计量和综合燃油电气化)和E3M(发动机嵌入式电机)是MEE的关键技术。发动机热管理的目的是维持发动机系统产生的热量和散热到发动机外部之间的平衡。在最近的发动机系统设计中,热系统设计已经成为一个问题,因为系统内的热量增加。例如,最近开发的涡轮风扇发动机系统通过引入风扇驱动齿轮系统来增加热量的产生,除了传统的热源(如发动机主轴承和齿轮)外,该系统还产生大量的热量。MEE将在其系统中有更多的热源,就像E3M一样,这是一个高功率的电机。本文介绍了MEE热管理系统可行性研究的调查方法和结果。此外,还对未来混合动力推进的技术发展趋势进行了展望。全球对气候保护的要求强烈要求改变游戏规则的技术,从而显著提高飞机的整体效率。串联/并联部分混合动力推进系统是未来商用飞机混合动力推进系统中最有前途的方法之一,该系统由涡轮风扇发动机和电动机驱动的风扇共同产生推进动力。MEE和E3M技术将不断发展,直至应用于混合动力推进系统。
Thermal Management System for the MEE and Engine Embedded Electric Machine
The MEE (More Electric Engine) is a concept for engine system electrification and is an evolutionary step in engine system design that contributes to the reduction of aviation CO2 emissions. Mifee (Metering and integrated fuel feeding electrification) and the E3M (Engine Embedded Electric Machine) are the key technologies of the MEE. The purpose of engine thermal management is maintaining the balance between heat generation by the engine system and heat dissipation to the outside of the engine. In recent engine system designs, thermal system design has become an issue because of increased heat generation within the system. For example, a recently developed turbo-fan engine system increases the heat generation by introduction of a fan drive gear system that produces a large amount of heat in addition to the conventional heat source, such as engine main bearings and gears. The MEE will have further heat sources within its system, like the E3M, which is a high-power electric machine. In this paper, an investigation approach and the result of a feasibility study of the MEE thermal management system is described.
In addition, the perspective of the technology trend from the MEE toward future hybrid propulsion is also discussed. The global requirements for climate protection strongly demand game-changing technology that significantly improves the aircraft’s overall efficiency. A series/parallel partial hybrid propulsion system, in which both a turbo-fan engine and electrical motor-driven fans generate propulsive power, is considered to be one of the most promising approaches for the future commercial aircraft hybrid propulsion system. The MEE and E3M technology evolves until it will be applied in hybrid propulsion system.