研究目的
讨论柔性超薄有机太阳能电池的进展，以及基于纺织兼容太阳能电池潜在应用的相关未来研究方向。
研究成果
该论文总结指出，过去十年间有机太阳能电池领域投入了大量研究精力，使其性能（包括光电转换效率、稳定性及单位重量功率输出）取得显著进步。研究重点已转向将这些电池集成应用于可穿戴电子设备供电，并建议未来十年加速系统级集成研究，这将有助于满足目标应用场景的相关技术要求。
研究不足
局限性包括气体阻隔性能与柔韧性之间的权衡、需要改进材料以在弯曲和拉伸条件下获得更好性能，以及难以实现与刚性有机太阳能电池相当的高功率转换效率。
该论文探讨了超薄有机太阳能电池的结构、加工工艺及特性，包括柔性基底、透明电极和封装技术的应用。同时涵盖了不同条件下性能的评估方法，以及提升机械强度与稳定性的策略。
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PEN
TOYOBO FILM SOLUTIONS LTD
Used as a substrate for flexible organic solar cells.
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PET
TOYOBO FILM SOLUTIONS LTD
Used as a substrate for flexible organic solar cells.
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Colorless polyimide
Used as a substrate for flexible organic solar cells due to its low CTE and high Tg.
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Parylene
Parylene-C
Specialty Coating Systems Inc
Used for substrate/encapsulation in organic solar cells.
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ITO
Used as a transparent electrode in organic solar cells.
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Graphene
Used as a transparent electrode in organic solar cells.
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PEDOT:PSS
Used as a transparent electrode/hole transport layer in organic solar cells.
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MoOx
Used as a hole transport layer in organic solar cells.
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ZnO
Used as an electron transport layer in organic solar cells.
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TiO2
Used as an electron transport layer in organic solar cells.
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LiF
Used as an electron transport layer in organic solar cells.
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Ag
Used as a top electrode in organic solar cells.
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Al
Used as a top electrode in organic solar cells.
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AlOx
Used for passivation in organic solar cells.
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SiOx
Used for passivation in organic solar cells.
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SiN
Used for passivation in organic solar cells.
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