激光阈值
材料科学
钙钛矿(结构)
光子学
激光器
灵活性(工程)
光电子学
光伏
卤化物
纳米技术
光学
电气工程
光伏系统
物理
工程类
统计
化学工程
无机化学
化学
数学
波长
作者
Haiyun Dong,Christian N. Saggau,Minshen Zhu,Jie Liang,Shengkai Duan,Xiaoyu Wang,Hongmei Tang,Yin Yin,Xiaoxia Wang,Jiawei Wang,Chunhuan Zhang,Yong Sheng Zhao,Libo Ma,Oliver G. Schmidt
标识
DOI:10.1002/adfm.202109080
摘要
Abstract Metal halide perovskites are promising materials for optoelectronic and photonic applications ranging from photovoltaics to laser devices. However, current perovskite devices are constrained to simple low‐dimensional structures suffering from limited design freedom and holding up performance improvement and functionality upgrades. Here, a micro‐origami technique is developed to program 3D perovskite microarchitectures toward a new type of microcavity laser. The design flexibility in 3D supports not only outstanding laser performance such as low threshold, tunable output, and high stability but also yields new functionalities like 3D confined mode lasing and directional emission in, for example, laser “array‐in‐array” systems. The results represent a significant step forward toward programmable microarchitectures that take perovskite optoelectronics and photonics into the 3D era.
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