Pump-controlled RGB single-mode polymer lasers based on a hybrid 2D–3D μ-cavity for temperature sensing

IF 6.5 2区 物理与天体物理 Q1 MATERIALS SCIENCE, MULTIDISCIPLINARY
Kun Ge, Dan Guo, Ben Niu, Zhiyang Xu, Jun Ruan, T. Zhai
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引用次数: 6

Abstract

Abstract Single mode lasers, particularly red-green-blue (RGB) colors, have attracted wide attention due to their potential applications in the photonic field. Here, we realize the RGB single mode lasing in a hybrid two-dimension and three-dimension (2D–3D) hybrid microcavity (μ-cavity) with a low threshold. The hybrid 2D–3D μ-cavity consists of a polymer fiber and a microsphere. Typical RGB polymer film consisting gain materials are cladded on a fiber. To achieve single mode lasing, the polymer fiber therein serves as an excellent gain cavity to provide multiple lasing modes while the microsphere acts as a loss channel to suppress most of the lasing modes. Mode switching can be realized by adjusting the pump position. It can be attributed to the change of coupled efficiency between gain μ-cavity and loss μ-cavity. Our work will provide a platform for the rational design of nanophotonic devices and on-chip communication.
基于混合2D-3D μ腔温度传感的泵控RGB单模聚合物激光器
单模激光器,特别是红-绿-蓝(RGB)激光器,因其在光子领域的潜在应用而受到广泛关注。本文在低阈值的二维和三维(2D-3D)混合微腔(μ-cavity)中实现了RGB单模激光。混合的2D-3D μ腔由聚合物纤维和微球组成。典型的由增益材料组成的RGB聚合物薄膜包覆在光纤上。为了实现单模激光,其中的聚合物光纤作为一个良好的增益腔提供多种激光模式,而微球作为一个损失通道抑制大多数激光模式。通过调整泵的位置可以实现模式切换。这可以归因于增益μ腔和损耗μ腔之间耦合效率的变化。我们的工作将为合理设计纳米光子器件和片上通信提供一个平台。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
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来源期刊
Nanophotonics
Nanophotonics NANOSCIENCE & NANOTECHNOLOGY-MATERIALS SCIENCE, MULTIDISCIPLINARY
CiteScore
13.50
自引率
6.70%
发文量
358
审稿时长
7 weeks
期刊介绍: Nanophotonics, published in collaboration with Sciencewise, is a prestigious journal that showcases recent international research results, notable advancements in the field, and innovative applications. It is regarded as one of the leading publications in the realm of nanophotonics and encompasses a range of article types including research articles, selectively invited reviews, letters, and perspectives. The journal specifically delves into the study of photon interaction with nano-structures, such as carbon nano-tubes, nano metal particles, nano crystals, semiconductor nano dots, photonic crystals, tissue, and DNA. It offers comprehensive coverage of the most up-to-date discoveries, making it an essential resource for physicists, engineers, and material scientists.
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