Sb掺杂的CaZnOS层状半导体中的宽带多模发射

Translated title of the contribution: Broadband multimodal emission in Sb-doped CaZnOS-layered semiconductors

Xu Li, Yuantian Zheng, Ronghua Ma, Zefeng Huang, Chunfeng Wang, Mingju Zhu, Fuchun Jiang, Yangyang Du, Xian Chen, Bolong Huang, Feng Wang, Bohan Wang, Yu Wang, Dengfeng Peng

Research output: Journal article publicationJournal articleAcademic researchpeer-review

13 Citations (Scopus)

Abstract

Mechanoluminescent (ML) smart materials are expected to be used in stress sensors, new displays, and advanced flexible optoelectronic devices, because of their unique mechanical-to-light energy conversion properties. However, the narrow-range ML emission characteristics of single materials limit their application scope. In this work, we report on the broadband multimodal emission in Sb-doped CaZnOS layered semiconductors. A series of CaZnOS layer-structured powders with different Sb3+ doping concentrations were synthesised using a high-temperature solid-phase method. The CaZnOS:Sb3+ phosphor achieved a wide range of ML spectra (400–900 nm), adjustable photoluminescence with double luminescent peaks located at 465 and 620 nm, and the X-ray-induced luminescence characteristics were systematically studied. We have also achieved ultra-broad warm white light ML emission of Sb3+ and Bi3+ co-doped samples. Therefore, it can be expected that these ML phosphors will be used in smart lighting, displays, visible stress sensors, and X-ray imaging and detections.

Translated title of the contributionBroadband multimodal emission in Sb-doped CaZnOS-layered semiconductors
Original languageChinese (Simplified)
Pages (from-to)1329-1336
Number of pages8
JournalScience China Materials
Volume65
Issue number5
DOIs
Publication statusPublished - May 2022

Keywords

  • CaZnOS
  • doping
  • light emission
  • mechanoluminescence
  • semiconductors

ASJC Scopus subject areas

  • General Materials Science

Fingerprint

Dive into the research topics of 'Broadband multimodal emission in Sb-doped CaZnOS-layered semiconductors'. Together they form a unique fingerprint.

Cite this