带准-2D PEA2(CsPbBr3)n-1PbBr4 Perovskite 膜可饱和吸收体的瓦特级二阶拓扑电荷超快绿涡旋激光器

IF 8 2区 材料科学 Q1 MATERIALS SCIENCE, MULTIDISCIPLINARY Advanced Optical Materials Pub Date : 2024-07-03 DOI:10.1002/adom.202401165
Zehua Liu, Jingzhen Li, Ling Zhang, Yu Zhang, Song Yang, Zhenxu Bai, Yulei Wang, Zhiwei Lu, Dapeng Yan, Yaoyao Qi, XingWang Zhang
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引用次数: 0

摘要

超快漩涡束具有独特的纵向和横向模式相位特性,可实现光场的多维量子控制,因此具有重要的科学和实用价值。由于锁模材料和现有时空锁模产生方法的限制,直接产生具有大角动量的瓦特级超快涡旋光束仍然是一项重大挑战。本研究采用反溶剂法制备了准二维 PEA2(CsPbBr3)n-1PbBr4包晶薄膜,并首次将其应用于自由空间中的锁模谐振器。利用基于角度的非共轭泵浦和倍频技术,产生了功率高达 1.05 W、持续时间为 373 ps 的二阶超快绿色涡旋束。实验结果证明了准二维 PEA2(CsPbBr3)n-1PbBr4包晶薄膜在高功率水平下的强非线性可饱和吸收特性,凸显了其在超快激光技术和非线性光学领域的巨大潜力。
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Watt‐Level Second‐Order Topological Charge Ultrafast Green Vortex Laser with Quasi ‐2D PEA2(CsPbBr3)n‐1PbBr4 Perovskite Films Saturable Absorber
Ultrafast vortex beams have significant scientific and practical value because of their unique phase properties in both the longitudinal and transverse modes, enabling multi‐dimensional quantum control of light fields. Directly generating watt‐level ultrafast vortex beams with large angular momentum has remained a major challenge due to the limitations of mode‐locked materials and existing spatiotemporal mode‐locking generation methods. In this study, quasi‐2D PEA2(CsPbBr3)n‐1PbBr4 perovskite films are prepared by an anti‐solvent method and employed for the first time in a mode‐locked resonator operating in free space. Utilizing the angle‐based non‐collinear pumping and frequency doubling techniques, the second‐order ultrafast green vortex beams with a power of up to 1.05 W and a duration of 373 ps are generated. Experimental findings demonstrate the strong nonlinear saturable absorption properties of quasi‐2D PEA2(CsPbBr3)n‐1PbBr4 perovskite films at high power levels, highlighting their considerable potential in ultrafast laser technology and nonlinear optics.
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来源期刊
Advanced Optical Materials
Advanced Optical Materials MATERIALS SCIENCE, MULTIDISCIPLINARY-OPTICS
CiteScore
13.70
自引率
6.70%
发文量
883
审稿时长
1.5 months
期刊介绍: Advanced Optical Materials, part of the esteemed Advanced portfolio, is a unique materials science journal concentrating on all facets of light-matter interactions. For over a decade, it has been the preferred optical materials journal for significant discoveries in photonics, plasmonics, metamaterials, and more. The Advanced portfolio from Wiley is a collection of globally respected, high-impact journals that disseminate the best science from established and emerging researchers, aiding them in fulfilling their mission and amplifying the reach of their scientific discoveries.
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