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从三元I-III-VI族半导体纳米晶体的大规模合成到照明器件应用:激发更绿色的材料发光体

From Large-Scale Synthesis to Lighting Device Applications of Ternary I-III-VI Semiconductor Nanocrystals: Inspiring Greener Material Emitters.

作者信息

Chen Bingkun, Pradhan Narayan, Zhong Haizheng

机构信息

Beijing Engineering Research Centre of Mixed Reality and Advanced Display, School of Optics and Photonics, Beijing Institute of Technology , Beijing 100081, China.

Department of Materials Science, Indian Association for the Cultivation of Science , Kolkata, India 700032.

出版信息

J Phys Chem Lett. 2018 Jan 18;9(2):435-445. doi: 10.1021/acs.jpclett.7b03037. Epub 2018 Jan 11.

Abstract

Quantum dots with fabulous size-dependent and color-tunable emissions remained as one of the most exciting inventories in nanomaterials for the last 3 decades. Even though a large number of such dot nanocrystals were developed, CdSe still remained as unbeatable and highly trusted lighting nanocrystals. Beyond these, the ternary I-III-VI family of nanocrystals emerged as the most widely accepted greener materials with efficient emissions tunable in visible as well as NIR spectral windows. These bring the high possibility of their implementation as lighting materials acceptable to the community and also to the environment. Keeping these in mind, in this Perspective, the latest developments of ternary I-III-VI nanocrystals from their large-scale synthesis to device applications are presented. Incorporating ZnS, tuning the composition, mixing with other nanocrystals, and doping with Mn ions, light-emitting devices of single color as well as for generating white light emissions are also discussed. In addition, the future prospects of these materials in lighting applications are also proposed.

摘要

在过去三十年中,具有出色的尺寸依赖性和颜色可调发射特性的量子点一直是纳米材料中最令人兴奋的发明之一。尽管已经开发出大量此类量子点纳米晶体,但CdSe仍然是无与伦比且高度可靠的发光纳米晶体。除此之外,三元I-III-VI族纳米晶体成为最广泛接受的绿色材料,其在可见光以及近红外光谱窗口中具有高效的发射可调性。这使得它们极有可能作为社区和环境都能接受的照明材料得到应用。考虑到这些,在本综述中,介绍了三元I-III-VI纳米晶体从大规模合成到器件应用的最新进展。还讨论了通过掺入ZnS、调整成分、与其他纳米晶体混合以及用Mn离子掺杂来制造单色发光器件以及产生白光发射的器件。此外,还提出了这些材料在照明应用中的未来前景。

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