Author(s): Chai, RQ (Chai, Ruiqing); Chen, YF (Chen, Yunfeng); Zhong, M (Zhong, Mi); Yang, H (Yang, Huai); Yan, FG (Yan, Faguang); Peng, M (Peng, Meng); Sun, YJ (Sun, Yujia); Wang, KY (Wang, Kaiyou); Wei, ZM (Wei, Zhongming); Hu, WD (Hu, Weida); Liu, QJ (Liu, Qijun); Lou, Z (Lou, Zheng); Shen, GZ (Shen, Guozhen)

Source: JOURNAL OF MATERIALS CHEMISTRY C Volume: 8 Issue: 19 Pages: 6388-6395 DOI: 10.1039/d0tc00755b Published: MAY 21 2020

Abstract: In-plane anisotropic two-dimensional (2D) materials with asymmetric lattices are potential candidates for high performance polarized photodetection, which provides much richer optical information than conventional photodetection, such as polarization, azimuth, and ellipticity of the targets. Herein, non-layer structured ZnSb was grown into 2D nanostructures and used to fabricate room-temperature infrared polarized photodetectors. Studies found that the synthesized 2D ZnSb nanoplates exhibited strong in-plane electrical and optical anisotropy due to the low-symmetry crystal structure. The angle-resolved electronic and incident polarization photoelectric measurements confirmed high anisotropic conductivity and linear polarization sensitivity of the ZnSb nanoplates, which are consistent with the theoretical calculations.

Accession Number: WOS:000536880000004

Author Identifiers:

Author        Web of Science ResearcherID        ORCID Number

Hu, Weida         D-7449-2012         0000-0001-5278-8969

wei, zhong ming                  0000-0002-6237-0993

ISSN: 2050-7526

eISSN: 2050-7534

Full Text: https://pubs.rsc.org/en/content/articlelanding/2020/TC/D0TC00755B#!divAbstract