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微纳激光器的光场调控及应用

翟天瑞 史晓玉 崔丽彬 仝俊华 刘宣

翟天瑞, 史晓玉, 崔丽彬, 仝俊华, 刘宣. 微纳激光器的光场调控及应用[J]. 北京师范大学学报(自然科学版). doi: 10.12202/j.0476-0301.2023194
引用本文: 翟天瑞, 史晓玉, 崔丽彬, 仝俊华, 刘宣. 微纳激光器的光场调控及应用[J]. 北京师范大学学报(自然科学版). doi: 10.12202/j.0476-0301.2023194
ZHAI Tianrui, SHI Xiaoyu, CUI Libin, TONG Junhua, LIU Xuan. Micro-lasers: optical field modulation and application[J]. Journal of Beijing Normal University(Natural Science). doi: 10.12202/j.0476-0301.2023194
Citation: ZHAI Tianrui, SHI Xiaoyu, CUI Libin, TONG Junhua, LIU Xuan. Micro-lasers: optical field modulation and application[J]. Journal of Beijing Normal University(Natural Science). doi: 10.12202/j.0476-0301.2023194

微纳激光器的光场调控及应用

doi: 10.12202/j.0476-0301.2023194

Micro-lasers: optical field modulation and application

  • 摘要: 微纳激光器是谐振腔尺寸为微/纳米量级的激光器,其模式体积在波长或亚波长尺度,具有小尺寸、易集成、低阈值、宽波段、可调谐等特点,在光芯片上光信息的产生、传输、耦合、调制、探测等功能实现中占据核心位置,是微纳光学领域的重要前沿.微纳激光的光场特性与其应用研究息息相关,为了实现微纳激光光源的多功能化,研究人员从微纳激光光场调控的理论机制和实验测试、器件应用方面展开研究并取得了一系列进展.本文聚焦于这两方面,概述了微纳激光器的相关研究进展,着重阐述了通过泵浦、增益和谐振腔3条研究路径来调控激光性能的方法,总结微纳激光器在传感、防伪、成像与显示等领域的应用进展,并对其发展趋势进行了展望.

     

  • 图  1  微纳激光器的光反馈示意

    a 法布里-珀罗(F-P)微腔激光器的光反馈;b 分布反馈(DFB)激光器的光反馈;c 回音壁模式(WGM)激光器的光反馈;d 随机(Random)激光器的光反馈.

    图  2  泵浦光对微纳激光光场的调控方法

    a 基于泵浦光的背向散射和干涉效应所实现的DFB激光器[19];b 基于双光束干涉的泵浦光场调控回音壁模式微纳激光器的性能[21];c 基于空间光调制器;d 基于掩模版的泵浦光场调控随机激光器的模式[30-31];e 基于不同泵浦位置所实现的多色激光发射[35]

    图  3  增益介质对微纳激光光场的调控方法

    a 基于增益介质性质的变化调控回音壁模式激光性能[41];b 基于增益介质的参数和增益层的排布调控DFB激光器的性能[43];c 基于环境湿度对增益层厚度的影响间接调控随机激光性能[45]

    图  4  光学谐振腔对准晶激光光场的调控方法

    a 制备五重对称准晶的光路示意图;b 投影在玻璃基板背面的五重对称准晶体激光图案;c 激光发射光谱[53]

    图  5  光学谐振腔对回音壁模式激光光场的调控方法

    a 耦合 WGM 谐振腔奇点附近损耗引起的腔内强度图增强[55];b P-T腔激光器实现单模激光发射[56];c 金属-介电核-壳双WGM混合激光器[57]

    图  6  光学谐振腔对杂化微纳激光光场的调控方法

    a RGB三色混合谐振腔[60];b WGM杂化谐振腔[61];c DFB-Random混合谐振腔激光器[63];d 具有隐模可视化的WGM-随机混合谐振腔激光器[15]

    图  7  微纳激光在传感领域的应用

    a 甘油液滴回音壁模式激光器对湿度传感的原理图[65];b 柔性可穿戴的随机激光器的湿度传感特性[66];c 免疫捕获法检测人体免疫球蛋白IgG的原理图[67];d 发射波长随IgG溶液浓度的变化[67];e 薄膜微环形回音壁模式激光器对声波的传感原理及传感特性[72];f 人体正常/癌变组织及其随机激光发射光谱[73]

    图  8  微腔激光在防伪领域的应用

    a 微盘回音壁模式激光设计的光子条形码[75];b 将提取的随机激光隐藏模式用于安全信息加密[15];c 基于纤维阵列微纳激光器实现了可编程信息存储能力的、可印刷的加密芯片[76];d 回音壁-随机模式杂化微纳激光器中2种激光模式实现双混沌图像加密原理图[16]

    图  9  微纳激光在成像与显示领域的应用

    a 光源分别为(Ⅰ)窄带激光和(Ⅱ)随机激光器时的成像图片[77];b 荧光纳米线环产生全向倏逝波进行照明装置及成像图片[81];c 基于静电纺丝技术的回音壁模式激光器制备方法[35];d 多色微纤维型回音壁模式激光器编制成任意的图案和文字[35];e 通过有机聚合物实现三原色回音壁模式激光器[44];f 回音壁模式激光器阵列实现的显示器[44]

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出版历程
  • 收稿日期:  2023-08-01
  • 网络出版日期:  2023-11-15

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