紫外线
异质结
光电子学
材料科学
钻石
探测器
纳米技术
光学
物理
复合材料
作者
Yi‐Cheng Wang,Jixiang Jing,Yumeng Luo,Xiaomin Wang,Kuan Liang,Changsheng Chen,Dong‐Keun Ki,Ye Zhu,Zhongqiang Wang,Qi Wang,Keyou Yan,Yuhao Zhang,Han Wang,Kwai Hei Li,Zhiqin Chu
出处
期刊:Nano Letters
[American Chemical Society]
日期:2025-10-09
标识
DOI:10.1021/acs.nanolett.5c04062
摘要
The escalating demand for ultraviolet (UV) sensing necessitates detectors that are both environmentally and mechanically resilient. Diamond emerges as a highly promising material for next-generation UV detection due to its unique properties. However, conventional diamond-based UV detectors are constrained by rigid bulk architectures and a reliance on external power supplies, hindering their integration and complicating device design. To tackle these challenges, herein, we first demonstrate a large-scale, self-powered, and flexible diamond UV detector by heterogeneously integrating a MoS2 monolayer with an ultrathin, freestanding diamond membrane. The fabricated device operates at zero external bias and exhibits high responsivity and detectivity. Notably, mechanical bending enables strain-induced bandgap modulation of the diamond membrane, allowing dynamically tunable photoresponse─a capability absent in rigid diamond counterparts. To validate its practicality and scalability, a proof-of-concept UV imager was demonstrated. This newly developed configuration will undoubtedly open new routes toward scalable, integrable, and flexible UV sensing.
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