首页|超快激光在铌酸锂内部诱导微纳光子结构研究进展(特邀)

超快激光在铌酸锂内部诱导微纳光子结构研究进展(特邀)

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铌酸锂晶体(LN)凭借优异的光学特性,已经成为构建新一代集成光电器件和光学系统的关键性基础材料。基于强场-物质相互作用的超快激光选择性材料修饰技术使得在三维空间中按需创建LN基功能化微结构成为可能,为探索LN光子学、发展LN先进加工技术、构建集成光子器件和光学系统提供了有力的工具。本文聚焦近年来国内外研究团队所取得的重要进展,从超快激光修饰LN基本原理出发,重点介绍了超快激光在LN内部诱导微纳光子结构的新现象、新机制和新应用,包括超快激光直写光波导、制备非线性光子晶体、操控铁电畴、多维光存储等前沿领域的最新成果。最后,对超快激光赋能LN光子学进行了展望。
Advancements in Ultrafast-Laser-Inducing Micro-Nanophotonic Structures Inside Lithium Niobate(Invited)
Lithium niobate has become an essential fundamental material for constructing next-generation integrated optoelectronic devices and optical systems because of its excellent optical properties.The technique for strong field-material interaction-based ultrafast-laser-selective material modification enables the on-demand construction of functionalized lithium niobate micro-nanostructures in three-dimensional space,providing a powerful tool for the development of lithium niobate photonics,advanced processing techniques,and integrated photonic devices and optical systems.In this review,we focused on the recent milestone progress achieved by research teams worldwide.Starting from the fundamental principles of ultrafast laser modification in lithium niobate,we introduced new phenomena,mechanisms,and applications of ultrafast-laser-induced micro-nanophotonic structures inside lithium niobate crystals,including ultrafast laser direct writing of optical waveguides,nonlinear photonic crystal preparation,ferroelectric domain manipulation,and multidimensional data storage.Finally,we presented a perspective on the prospects of ultrafast-laser-empowered lithium niobate photonics.

ultrafast laserlaser inductionlithium niobatephotonic structures

张博、王梓权、王卓、邱建荣

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浙江大学光电科学与工程学院,浙江 杭州 310027

超快激光 激光诱导 铌酸锂 光子结构

国家重点研发计划国家自然科学基金国家资助博士后研究人员计划

2021YFB280200112304349GZB20230628

2024

激光与光电子学进展
中国科学院上海光学精密机械研究所

激光与光电子学进展

CSTPCD北大核心
影响因子:1.153
ISSN:1006-4125
年,卷(期):2024.61(1)
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