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Wafer-Scale Two-Dimensional Semiconductors for Deep UV Sensing

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URI: http://hdl.handle.net/10498/32125

DOI: https://doi.org/10.1002/SMLL.202305865

ISSN: 1613-6829

ISSN: 1613-6810

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OA_2023_0333.pdf (2.653Mb)
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Author/s
Shiffa, Mustaqeem; Dewes, Benjamin T.; Bradford, Jonathan; Cottam, Nathan D.; Cheng, Tin S.; Mellor, Christopher J.; Makarovskiy, Oleg; Rahman, Kazi; O'Shea, James N.; Beton, Peter H.; Novikov, Sergei V.; Ben Fernández, TeresaAuthority UCA; González Robledo, DavidAuthority UCA; Xie, Jiahao; Zhang, Lijun; Patanè, Amalia
Date
2024
Department
Ciencia de los Materiales e Ingeniería Metalúrgica y Química Inorgánica
Source
Small - 2024, Vol. 20 n.7
Abstract
2D semiconductors (2SEM) can transform many sectors, from information and communication technology to healthcare. To date, top-down approaches to their fabrication, such as exfoliation of bulk crystals by “scotch-tape,” are widely used, but have limited prospects for precise engineering of functionalities and scalability. Here, a bottom-up technique based on epitaxy is used to demonstrate high-quality, wafer-scale 2SEM based on the wide band gap gallium selenide (GaSe) compound. GaSe layers of well-defined thickness are developed using a bespoke facility for the epitaxial growth and in situ studies of 2SEM. The dominant centrosymmetry and stacking of the individual van der Waals layers are verified by theory and experiment; their optical anisotropy and resonant absorption in the UV spectrum are exploited for photon sensing in the technological UV-C spectral range, offering a scalable route to deep-UV optoelectronics.
Subjects
gallium selenide; molecular beam epitaxy; optoelectronics; photodetectors
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This work is under a Creative Commons License Atribución 4.0 Internacional

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