Hydrogen Optimized multi-fuel Propulsion system for clean and silEnt aircraft

氢优化多燃料推进系统，适用于清洁、安静的飞机

• 批准号: 10068673
• 金额: $ 53.84万
• 依托单位: MANCHESTER METROPOLITAN UNIVERSITY
• 依托单位国家: 英国
• 项目类别: EU-Funded
• 财政年份: 2023
• 资助国家: 英国
• 起止时间: 2023 至 无数据
• 项目状态: 未结题
• 来源: https://gtr.ukri.org/projects?ref=10068673
• 关键词: Hydrogen; Optimized; multi; fuel; Propulsion

The ICAO Post-COVID forecasts estimate a 2.4%-4.1% increase for a low to high revenue passenger-kilometres growth rate. Air traffic growth inevitably increases aviation's combustion and acoustic emissions, hence aggravating aviation's environmental impact locally and globally. HOPE will deliver an integrated aircraft propulsion system comprising two multi-fuel ultra-high bypass ratio (UHBR) turbofan engines, a fuel cell based auxiliary propulsion and power unit (FC-APPU) driving an aft boundary layer ingestion (BLI) propulsor based on tube-wing aircraft configuration. The HOPE system: 1)minimises the combustion and noise emissions during landing and takeoff (LTO), hence the impact on air quality and noise annoyance near airports, without the trade-off of cruise emissions; 2)retrofitsthe existing aircraft configuration, allowing the substantial emission reduction to be achieved within a short time; 3)de-risks the use of hydrogen solely in existing tube-wing aircraft configurations; 4)smoothens aviation’s energy transition through assessment and exploitation of several greener propulsion technologies at different maturity level. HOPE emission goals consist of LTO NOx: -50%, CO: -50%, soot: -80%, perceived noise: -20% (~3 dB per operation), and climate impact: -30%, compared to state-of-the-art technology in 2020 (A320neo). To this end, HOPE will: 1)Design an integrated aircraft propulsion system accommodating multi-fuel (kerosene/sustainable aviation fuel +hydrogen) UHBR turbofan engines, FC-APPU, and an aft BLI propulsor; 2)Explore the novel idea of combining a BLI propulsor with FC-APPU for zero-emission taxiing; 3)Model, experiment, and demonstrate for the first time a low emission multi-fuel combustion technology burning H2+kerosene/SAF for future UHBR turbofan engine; 4)Assess societal impact, environmental burden, and cost benefits of the reduced noise and emissions by HOPE technology; 5)Formulate policy and recommendations to introduce HOPE technology.

国际民航组织预测，新冠疫情后，客运公里收入增长率将增加 2.4%-4.1%，航空交通增长不可避免地会增加航空的燃烧和声排放，从而加剧航空对当地和全球的环境影响。集成飞机推进系统，包括两台多燃料超高涵道比 (UHBR) 涡轮风扇发动机、一个基于燃料电池的辅助推进和动力装置 (FC-APPU)，驱动基于管翼飞机配置的后边界层吸入 (BLI) 推进器 HOPE 系统： 1) 最大限度地减少着陆和起飞 (LTO) 期间的燃烧和噪音排放，从而减少对机场附近空气质量和噪音干扰的影响。巡航排放的权衡；2）改造现有飞机配置，从而在短时间内实现大幅减排；3）降低现有管翼飞机仅使用氢气的风险； 4) 通过评估和利用不同成熟度水平的多种绿色推进技术，平滑航空能源转型。HOPE 排放目标包括 LTO NOx：-50%、CO：-50%、烟尘：-80%、感知噪声：-。与 2020 年最先进的技术 (A320neo) 相比，降低 20%（每次操作约 3 dB），气候影响：-30%。 HOPE将：1）设计一种集成多燃料（煤油/可持续航空燃料+氢气）UHBR涡轮风扇发动机、FC-APPU和后BLI推进器的飞机推进系统2）探索结合BLI的新颖想法；带有FC-APPU的推进器用于零排放滑行3）首次进行低排放多燃料燃烧技术的模型、实验和演示；未来UHBR涡轮风扇发动机的H2+煤油/SAF； 4）评估HOPE技术降低噪音和排放的社会影响、环境负担和成本效益； 5）制定引进HOPE技术的政策和建议。