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Flexible photoelectronic material device and investigation method for space applications
Progress in Aerospace Sciences ( IF 9.6 ) Pub Date : 2023-04-06 , DOI: 10.1016/j.paerosci.2023.100901
Min Qian , Yi Zhang , Xiaojun Mao , Yang Gao , Xiaoyang Xuan , Min Wu , Yueping Niu , Shangqing Gong

Flexibility and lightweight are promising research topics for space science and technology, which benefit to reduce load, reduce volume, and integrate device. However, most photoelectronic devices on spacecraft are rigid devices now, because the space environment consists of irradiations and thermal cycling, with higher requirements for flexible photoelectronic materials and devices. The main bottlenecks include: the synthesis of space-durable packaging materials, the fabrication and packaging of flexible photoelectronic devices, and the effective investigation method for irradiation mechanism analysis. In view of these problems, this review presents the synthesis of bulk-phase silicon-reinforced yellow and transparent polyimides with space durability, the optical modulation of bulk-phase silicon-reinforced polyimide to ultra-black film and flexible color filters, the electrical modulation of bulk-phase silicon-reinforced polyimide into flexible transparent electrode, the integration of the bulk-phase silicon-reinforced transparent polyimide and flexible triple-junction GaAs thin-film solar cell, and the exploration of general investigation methods for irradiation mechanism based on the penetration depth and damage modes including atomic oxygen, ultraviolet, electron, proton, and thermal cycling. The material synthesis, device fabrication, and mechanism analysis method focus on the core scientific problems of space-durable flexible lightweight photoelectronic materials and devices, leading the development direction of flexible and lightweight space science and technology.



中文翻译:

空间应用柔性光电材料器件及研究方法

柔性化和轻量化是空间科学技术有前途的研究课题,有利于减轻载荷、减小体积和集成设备。然而,目前航天器上的光电器件大多是刚性器件,因为空间环境由辐照和热循环组成,对柔性光电材料和器件提出了更高的要求。主要瓶颈包括:耐空间封装材料的合成、柔性光电器件的制造与封装、辐照机理分析的有效研究方法。鉴于这些问题,本综述提出了具有空间耐久性的体相硅增强黄色透明聚酰亚胺的合成,体相硅增强聚酰亚胺对超黑薄膜和柔性滤色片的光学调制,体相硅增强聚酰亚胺对柔性透明电极的电调制,体相硅增强透明聚酰亚胺的集成和柔性三结GaAs薄膜太阳能电池,探索基于原子氧、紫外、电子、质子、热循环等穿透深度和损伤模式的辐照机理通用研究方法。材料合成、器件制备和机理分析方法围绕空间耐久柔性轻量化光电材料和器件的核心科学问题,引领柔性轻量化空间科技发展方向。体相硅增强聚酰亚胺对柔性透明电极的电调制,体相硅增强透明聚酰亚胺与柔性三结GaAs薄膜太阳能电池的集成,以及辐照机理研究的一般方法探索基于穿透深度和损伤模式,包括原子氧、紫外线、电子、质子和热循环。材料合成、器件制备和机理分析方法围绕空间耐久柔性轻量化光电材料和器件的核心科学问题,引领柔性轻量化空间科技发展方向。体相硅增强聚酰亚胺对柔性透明电极的电调制,体相硅增强透明聚酰亚胺与柔性三结GaAs薄膜太阳能电池的集成,以及辐照机理研究的一般方法探索基于穿透深度和损伤模式,包括原子氧、紫外线、电子、质子和热循环。材料合成、器件制备和机理分析方法围绕空间耐久柔性轻量化光电材料和器件的核心科学问题,引领柔性轻量化空间科技发展方向。体相硅增强透明聚酰亚胺与柔性三结GaAs薄膜太阳能电池的集成,探索基于原子氧、紫外、电子、质子和热循环。材料合成、器件制备和机理分析方法围绕空间耐久柔性轻量化光电材料和器件的核心科学问题,引领柔性轻量化空间科技发展方向。体相硅增强透明聚酰亚胺与柔性三结GaAs薄膜太阳能电池的集成,探索基于原子氧、紫外、电子、质子和热循环。材料合成、器件制备和机理分析方法围绕空间耐久柔性轻量化光电材料和器件的核心科学问题,引领柔性轻量化空间科技发展方向。紫外线、电子、质子和热循环。材料合成、器件制备和机理分析方法围绕空间耐久柔性轻量化光电材料和器件的核心科学问题,引领柔性轻量化空间科技发展方向。紫外线、电子、质子和热循环。材料合成、器件制备和机理分析方法围绕空间耐久柔性轻量化光电材料和器件的核心科学问题,引领柔性轻量化空间科技发展方向。

更新日期:2023-04-09
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