Space Economy as a Power, Mass, and Qualification Problem: Role for Emerging Photovoltaics
Космическая экономика как проблема мощности, массы и квалификации: роль новых фотоэлементов
2026-05-14
SCID: 54.1/wjzh5wx3
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CIGSCdTehalide perovskitemegaconstellationsorbit-relevant benchmarkingorbital data infrastructureorganic solar cellspower-mass-qualification tradeoffspace photovoltaicsthin-film photovoltaics
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Abstract (AI)
The rapid expansion of the near-Earth space economy is turning space photovoltaics into a coupled power, mass, and qualification problem. As megaconstellations, orbital data infrastructure, and other proliferated architectures scale, current silicon and III–V based solar arrays face growing penalties associated with mass, drag, shielding, and end-of-life power retention. Here I discuss why emerging thin-film photovoltaics, including CIGS, CdTe, halide perovskite, and organic solar cells, are attracting interest for space applications. I argue that their true potential will depend not only on lightweight form factors and scalable manufacturing but also on the development of orbit-relevant benchmarking frameworks that can properly assess space tolerance across the broader environment likely to define future space systems.
Key Findings
1
Assessment of space photovoltaics must consider not just manufacturing and mass advantages but qualification against the full operational environment that will define future systems.
2
Conventional silicon and III–V solar arrays incur increasing penalties (mass, drag, shielding, end-of-life power loss) for megaconstellations and proliferated orbital infrastructures.
3
Emerging thin-film photovoltaics (CIGS, CdTe, halide perovskite, organic) are attracting interest for space due to lightweight form factors and scalable manufacturing.
4
Realizing the potential of thin-film space photovoltaics requires orbit-relevant benchmarking frameworks to assess tolerance across the broader space environment.
5
The growing near-Earth space economy makes space photovoltaics a coupled problem of power, mass, and qualification as architectures scale.
Research Object
Emerging thin-film photovoltaics for space applications (CIGS, CdTe, halide perovskite, and organic solar cells)
Research Subject
Their suitability for the near-Earth space economy as a coupled power, mass, and qualification problem, including lightweight form factors, scalable manufacturing, orbital tolerance, and the need for orbit-relevant benchmarking frameworks to assess space tolerance
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2026-05-14
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