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In Situ Atomic Tracking on the Interfacial Etching and Reconfiguration of Cu-ReSe2 Contact during Thermal Annealing.

Created on 22 Apr 2025

Authors

Xing Li, Weiwei Yan, Dongyang Wang, Longbin Yan, Wen-Tao Huang, Xiaoyu Guo, Yao Guo, Shaobo Cheng, Yimei Zhu, Chongxin Shan

Published in

Nano letters. Apr 21, 2025. Epub Apr 21, 2025.

Abstract

The Schottky barrier height can be greatly affected by the metal diffusion, reaction, and covalent bonding formation at the contact. Exploring novel methods and revealing the fundamental mechanisms for contact engineering are of vital importance for microelectronic devices. Here, the annealing induced interfacial reactions at Cu-ReSe2 contact are dynamically revealed from the atomic scale. Accompanied by the diffusion of Se to Cu, ReSe2 is gradually decomposed to a thin Re interlayer through a "chain-by-chain" manner. Theoretical calculations show that the Cu atoms can facilitate the chemical bond breaking of ReSe2, significantly lowering the Se diffusion energy barrier toward Cu. The formed Re/ReSe2 heterostructure presents a metal-like band structure, which underscores the critical role of Cu in altering the interfacial chemistry and promoting carrier transport across the interface. Our results can provide vital insights into the contact properties of ReSe2 and provide a possible method for fabricating high-performance ReSe2-based devices.

PMID:
40258022
Bibliographic data and abstract were imported from PubMed on 22 Apr 2025.

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