Technological development and prospects of civil turboshaft engines
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摘要:
民用涡轴发动机是航空发动机家族的重要成员,是通航产业和低空经济发展的核心动力。总结了民用涡轴发动机的技术特点及重要特性,介绍了国内外主要涡轴发动机厂商的代表性产品,分析了民用涡轴发动机的研制难点和关键技术,指出了涡轴发动机产品主要发展方式、途径和技术路线。通过总结国产1 000 kW级民用涡轴发动机(AES100)的创新工程实践,提炼了“尊重规章、正向研发、自主设计、自主适航”等确保AES100发动机研制工作行稳致远的总体思路,简述了民用涡轴发动机自主研制的重要进展和低油耗、长寿命、高安全性等方面关键技术的重要突破。同时根据市场需求,指出了民用涡轴发动机技术正朝着新要求、新构型、新材料、新工艺和新燃料等研究方向快速发展,展望了民用涡轴发动机在先进民用直升机、倾转旋翼飞行器、涡轮-电混合动力系统、可持续航空燃料和氢燃料动力等领域的广泛应用前景。
Abstract:Civil turboshaft engines are important members of the aero-engine family and serve as the core power source for the general aviation industry and the low-altitude economy. This article summarizes the technical features and key performance characteristics of civil turboshaft engines, introduces representative products from major domestic and international manufacturers, analyzes the development challenges and critical technologies, and identifies the main development approaches, pathways, and technological routes for turboshaft engine products. By reviewing the innovative engineering practices in the development of the domestically produced 1 000 kW-class civil turboshaft engine (AES100), this paper distills the overarching strategy that has ensured steady and successful progress in the AES100 program, including core principles such as adherence to regulations, forward design, autonomous design, and independent airworthiness. It also highlights significant achievements in the independent development of civil turboshaft engines, including key technological breakthroughs in low fuel consumption, long service life, and high safety. In response to market demands, the paper points out that turboshaft engine technology is rapidly advancing along new research directions, including new requirements, novel configurations, advanced materials, innovative manufacturing processes, and alternative fuels. Finally, it outlines the broad application prospects of civil turboshaft engines in advanced civil helicopters, tiltrotor aircraft, turbo-electric hybrid propulsion system, sustainable aviation fuels (SAF) and hydrogen-powered propulsion systems.
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图 42 超声滚压强化原理图[90]
Figure 42. Schematic diagram of ultrasonic rolling process
表 1 1 000 kW级涡轴发动机部件性能参数水平
Table 1. Performance parameters of components for 1 000 kW class turboshaft engine
表 2 AES100发动机主要性能
Table 2. Main performance of the AES100 engine
参数 ? ? 发动机 AES100 Arrano-1A、Ardiden 3C、PT6B-67A等 耗油率/(kg/(kW·h)) 0.276 0.280~0.317 初始首翻期/h 3000 1800 ~3000 地面起动最大高度/m 6000 4600 ~5500 起动最低环境温度/℃ −40 −40~−30 独立的发动机健康管理系统 有 个别有 -
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