博彩网-香港乐博彩公

Research
Home > Research > Content
The Photoelectric Functional Materials Team of the School of Chemistry and Chemical Engineering has achieved a significant breakthrough in the field of circularly polarized luminescence by studying organic-inorganic hybrid manganese halides

Recently, the Photoelectric Functional Materials team at our university's School of Chemistry and Chemical Engineering achieved a significant breakthrough in the field of organic-inorganic hybrid manganese halide Circularly Polarized Luminescence (CPL). The research findings were published in Angewandte Chemie International Edition, a prestigious international journal in the chemistry field. The paper titled "Circularly Polarized Luminescence Induced by Hydrogen-Bonding Networks in a One-Dimensional Hybrid Manganese(II) Chloride" was authored by Li Jing, a doctoral candidate from the School of Chemistry and Chemical Engineering graduating in 2020. Professor Pang Qi from the same school served as the first corresponding author. Additionally, Guangxi University is acknowledged as the primary affiliation for this publication.


The current utilization of CPL materials is widespread across various optoelectronic domains, including 3D optical displays, photonics encryption transmission and information storage, X-ray imaging, and optical sensors. Organic-inorganic hybrid metal halides with exceptional luminescent properties and distinctive chiral structures hold promise as a novel category of CPL functional materials. Overcoming the challenges associated with achieving high photoluminescence quantum yield, thermal quenching resistance, and significant luminescent asymmetry factor in metal halide materials remains a focal point within this burgeoning research field.

In the face of this significant challenge, the team successfully designed and prepared hybrid manganese halide single crystals with exceptional circularly polarized luminescence (CPL) properties through chiral molecular induction facilitated by hydrogen bond networks. Furthermore, they elucidated the origin of chiral optical activity and provided insights into why the luminescence quantum yield approaches 100%. This groundbreaking work offers crucial guidance for structural design, crystal growth, and photoelectric applications of multifunctional chiral hybrid metal halide materials.

This paper was also supported by Professor Zhou Liya and Dr. Chen Peican from the School of Chemistry and Chemical Engineering of our University, Associate Professor Chen Yibo from the School of Chemistry and Chemical Engineering of Guangzhou University, and Professor Zhang Jinzhong from the University of California, Santa Cruz, USA.

The photoelectric functional Materials research group at our university's School of Chemistry and Chemical Engineering is dedicated to the design, synthesis, characterization, and application research of halide perovskite materials. Over the past few years, they have published more than 30 papers in internationally renowned journals such as Advanced Functional Materials, Chemical Engineering Journal, and Small.

吴旗县| 百家乐官网画哪个路单| 屏东县| 威尼斯人娱乐代理| 七胜百家乐赌场娱乐网规则| 博狗玩百家乐好吗| 致胜百家乐官网软件| 百家乐官网遥控洗牌器| 百家乐官网去哪里玩最好| 百家乐官网输一压二| 封丘县| 在线百家乐官网大家赢| 百家乐官网模拟投注器| 百家乐官网视频看不到| 伊金霍洛旗| 网络百家乐官网免费试玩| bet365投注网| 百家乐官网是否违法| 百家乐官网园游戏庄闲| 百家乐官网光纤洗牌机如何做弊| 巴黎百家乐官网地址| 赌场百家乐官网实战| 百家乐会骗人吗| 真人百家乐赌城| 阳西县| 百家乐官网越长的路| 澳门百家乐官网论坛及玩法| 百家乐推荐怎么看| 马德里百家乐的玩法技巧和规则| 大发888下载17| 澳门葡京赌场| 百家乐官网专家赢钱打法| 百家乐官网大小牌路的含义| 菲律宾百家乐官网娱乐场| 做生意店子内风水布置| 澳门百家乐先赢后输| 大发888娱乐城官方lm0| 宣武区| 做生意布局风水| 网上的百家乐怎么才能赢| 娱乐城注册送38|