Optofluidic crystallithography for directed growth of single-crystalline halide perovskites
Xue-Guang Chen,
Linhan Lin (),
Guan-Yao Huang,
Xiao-Mei Chen,
Xiao-Ze Li,
Yun-Ke Zhou,
Yixuan Zou,
Tairan Fu,
Peng Li,
Zhengcao Li () and
Hong-Bo Sun ()
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Xue-Guang Chen: Tsinghua University
Linhan Lin: Tsinghua University
Guan-Yao Huang: Tsinghua University
Xiao-Mei Chen: Tsinghua University
Xiao-Ze Li: Tsinghua University
Yun-Ke Zhou: Tsinghua University
Yixuan Zou: Tsinghua University
Tairan Fu: Tsinghua University
Peng Li: Tsinghua University
Zhengcao Li: Tsinghua University
Hong-Bo Sun: Tsinghua University
Nature Communications, 2024, vol. 15, issue 1, 1-10
Abstract:
Abstract Crystallization is a fundamental phenomenon which describes how the atomic building blocks such as atoms and molecules are arranged into ordered or quasi-ordered structure and form solid-state materials. While numerous studies have focused on the nucleation behavior, the precise and spatiotemporal control of growth kinetics, which dictates the defect density, the micromorphology, as well as the properties of the grown materials, remains elusive so far. Herein, we propose an optical strategy, termed optofluidic crystallithography (OCL), to solve this fundamental problem. Taking halide perovskites as an example, we use a laser beam to manipulate the molecular motion in the native precursor environment and create inhomogeneous spatial distribution of the molecular species. Harnessing the coordinated effect of laser-controlled local supersaturation and interfacial energy, we precisely steer the ionic reaction at the growth interface and directly print arbitrary single crystals of halide perovskites of high surface quality, crystallinity, and uniformity at a high printing speed of 102 μm s−1. The OCL technique can be potentially extended to the fabrication of single-crystal structures beyond halide perovskites, once crystallization can be triggered under the laser-directed local supersaturation.
Date: 2024
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DOI: 10.1038/s41467-024-48110-w
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