将梯形光栅和光栅结合使用的单次泵探技术,时间窗口为 109 ps

IF 2 4区 物理与天体物理 Q3 OPTICS
Tianchen Yu, Junyi Yang, Zhongguo Li, Xingzhi Wu, Yu Fang, Yong Yang, Yinglin Song
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引用次数: 0

摘要

在本研究中,仅使用单脉冲就实现了超过 100 ps 的大时间窗泵浦探针测量。使用商用光栅在单脉冲中编码 ∼56 ps 的时间窗,因此无需定制加工。此外,在这项技术中,光栅表面被精确成像,消除了以往基于梯形技术的相位差造成的图像模糊问题。此外,为了充分利用光栅表面并获得更大的时间窗口,还结合了与时间窗口中的光栅相匹配的简单反射梯形。这种组合编码策略使总时间窗达到 ∼109 ps,并保持了光栅表面的精确成像。这个时间窗口比梯形编码策略和角光束编码策略的最大值大一个数量级。为了证明这种单次泵浦探针技术,我们研究了硒化锌的双光子吸收过程和对称吩嗪溴盐的激发态吸收过程。此外,还讨论了进一步改进实验装置的可能性。
本文章由计算机程序翻译,如有差异,请以英文原文为准。
Single-shot pump-probe technique by the combination of an echelon and a grating with a time window of 109 ps
In this study, using only a single pulse, pump-probe measurement with a large time window of more than 100 ps is implemented. A commercial grating is used to encode a time window of ∼56 ps in a single pulse; therefore, there is no need for machining customization. In addition, in this technique, the grating surface is accurately imaged, eliminating the image blur problem caused by phase differences in previous echelon-based techniques. Moreover, to make full use of the grating surface and obtain a larger time window, a simple reflection echelon is combined that matches the grating in the time window. This combination encoding strategy results in a total time window of ∼109 ps and maintains accurate imaging of the grating surface. This time window is an order of magnitude greater than the maximum reported values of the echelon encoding strategy and the angle beam encoding strategy. To demonstrate this single-shot pump-probe technique, the two-photon absorption process of ZnSe and the excited-state absorption process of a symmetrical phenoxazinium bromine salt were studied. The possibility of further improving the experimental setup is also discussed.
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来源期刊
CiteScore
4.50
自引率
4.80%
发文量
237
审稿时长
1.9 months
期刊介绍: Journal of Optics publishes new experimental and theoretical research across all areas of pure and applied optics, both modern and classical. Research areas are categorised as: Nanophotonics and plasmonics Metamaterials and structured photonic materials Quantum photonics Biophotonics Light-matter interactions Nonlinear and ultrafast optics Propagation, diffraction and scattering Optical communication Integrated optics Photovoltaics and energy harvesting We discourage incremental advances, purely numerical simulations without any validation, or research without a strong optics advance, e.g. computer algorithms applied to optical and imaging processes, equipment designs or material fabrication.
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