Structural batteries challenges for emerging technologies in aviation

G. di Mauro
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Abstract

Abstract. In a global context where modern societies need to move towards greater environmental sustainability, ambitious targets to limit pollutant emissions and combat climate change have been set out. Concerning the aviation sector, research centers and industries are carrying out new aircraft designs with increased use of electrical energy onboard aircraft both for non-propulsive and propulsive purposes, leading to the concepts of More Electric Aircraft (MEA), Hybrid Electric Aircraft (HEA) and All-Electric Aircraft (AEA). Despite the expected flight emissions reduction, new potential air transportation missions, safer flights, and enhanced design flexibility, there are some drawbacks hindering the trend to HEA solutions, strictly bounded to the limited performance of traditional battery systems. The reference is to low energy and power densities, which impact on aircraft weight and flight performances. A new technology, namely structural battery, combining energy storage and load-bearing capacity in multifunctional material structures, is now under investigation since capable to mitigate or even eliminate barriers to the electrification of air transport sector. Although, the deployment of this technology raises relevant questions regarding airworthiness requirements, which need to be applied when considering such multifunctional materials. The purpose of the presented activity is to take a step towards the definition of aircraft certification requirements when dealing with structural batteries, considering them both as a structure and as a battery, to maintain unchanged or even improve the level of safety in all normal and emergency conditions.
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结构电池对航空新兴技术的挑战
摘要在现代社会需要向更大的环境可持续性迈进的全球背景下,人们制定了限制污染物排放和应对气候变化的雄心勃勃的目标。在航空领域,研究中心和工业正在进行新的飞机设计,增加了飞机上的电能使用,无论是用于非推进目的还是推进目的,导致了更电动飞机(MEA),混合动力飞机(HEA)和全电动飞机(AEA)的概念。尽管期望减少飞行排放、新的潜在航空运输任务、更安全的飞行和增强的设计灵活性,但HEA解决方案的发展仍存在一些缺陷,严格限于传统电池系统的有限性能。参考是低能量和功率密度,影响飞机的重量和飞行性能。目前正在研究一种新技术,即结构电池,它结合了多功能材料结构中的能量储存和承载能力,因为它能够减轻甚至消除航空运输部门电气化的障碍。虽然,这项技术的部署提出了有关适航性要求的相关问题,这些问题需要在考虑这种多功能材料时加以应用。本次活动的目的是朝着确定飞机在处理结构电池时的认证要求迈出一步,将其视为结构和电池,在所有正常和紧急情况下保持不变甚至提高安全水平。
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