光电阵列与任意不可展开结构的直接集成

IF 38.5 1区 材料科学 Q1 CHEMISTRY, PHYSICAL
Meng Wang, Fengren Cao, Linxing Meng, Min Wang, Liang Li
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引用次数: 0

摘要

光电子器件从平面向非可展结构的扩展,在仿生学、光学成像和软电子学等领域取得了显著的成功。然而,不可开发的光电器件主要是通过物理变形来实现的,并且仅限于几种几何形状。在这里,我们报告了一种自组装钙钛矿策略,用于集成任意不可展开结构的光电阵列。钙钛矿薄膜是在碘化铅溶液的低能量波动驱动下以快速成核为主的结晶过程中生长出来的,其中流体前驱体可以通过表面张力均匀地分散在不可显影的衬底上,然后通过气体操纵自组装成致密的薄膜。该策略覆盖任意形状的基片,三维长度尺度超过106个数量级,并能够以微米精度对光电二极管阵列进行独特的结构操作。作为概念验证,将单透镜成像系统的理论焦面实现为不可显影传感器,有效地纠正了与平面或半球形系统相比的离轴彗差。
本文章由计算机程序翻译,如有差异,请以英文原文为准。

Direct integration of optoelectronic arrays with arbitrary non-developable structures

Direct integration of optoelectronic arrays with arbitrary non-developable structures

The extension of optoelectronic devices from planar to non-developable structures has led to remarkable success in bionics, optical imaging and soft electronics. However, non-developable optoelectronic devices are achieved mainly via physical deformations and limited to a few geometries. Here we report a self-assembly perovskite strategy for integrating optoelectronic arrays with arbitrary non-developable structures. The perovskite films are grown from a rapid nucleation-dominated crystallization driven by the low energy fluctuation of lead iodide solution, where the fluid precursor can be evenly dispersed along non-developable substrates by surface tension and then self-assembles into compact films through gaseous manipulation. The strategy covers arbitrarily shaped substrates with three-dimensional length scales over 106 orders of magnitude and enables the unique structural manipulations of photodiode arrays with micrometre precision. As a proof of concept, the theoretical focal surface of a single-lens image system is realized into a non-developable sensor, effectively correcting the off-axis coma aberrations compared with its planar or hemispherical counterpart.

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来源期刊
Nature Materials
Nature Materials 工程技术-材料科学:综合
CiteScore
62.20
自引率
0.70%
发文量
221
审稿时长
3.2 months
期刊介绍: Nature Materials is a monthly multi-disciplinary journal aimed at bringing together cutting-edge research across the entire spectrum of materials science and engineering. It covers all applied and fundamental aspects of the synthesis/processing, structure/composition, properties, and performance of materials. The journal recognizes that materials research has an increasing impact on classical disciplines such as physics, chemistry, and biology. Additionally, Nature Materials provides a forum for the development of a common identity among materials scientists and encourages interdisciplinary collaboration. It takes an integrated and balanced approach to all areas of materials research, fostering the exchange of ideas between scientists involved in different disciplines. Nature Materials is an invaluable resource for scientists in academia and industry who are active in discovering and developing materials and materials-related concepts. It offers engaging and informative papers of exceptional significance and quality, with the aim of influencing the development of society in the future.
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