远紫外共振拉曼光谱技术

P. Kelly, Shijian Li, G. Strahan, B. Hudson
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引用次数: 0

摘要

共振拉曼光谱在150-300纳米光谱区域进行,为分子光谱和生物物理学提供了几个独特的机会。1,2在远紫外区域进行此类实验需要优化激光技术、非线性光学器件、收集效率、光谱色散和检测。介绍了工作波长为150 nm的紫外共振拉曼光谱仪的构造。该光谱仪是基于调q Nd:YAG激光器、谐波产生晶体和氢气中的受激拉曼散射。反射光学与后向散射收集被用于拉曼散射光聚焦到一个充满氮气或氦气的真空单色仪的狭缝。探测器是一个具有MgF2窗口的太阳盲光电倍增管。介绍了该光谱仪的性能。
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Techniques for far-ultraviolet resonance Raman spectroscopy
Resonance Raman spectroscopy performed in the 150-300-nm spectral region provides several unique opportunities in molecular spectroscopy and biophysics.1,2 The performance of such experiments in the far-UV region requires optimization of laser technology, nonlinear optical devices, collection efficiency, spectral dispersion, and detection. The construction of a UV resonance Raman spectrometer designed to operate to 150 nm is described. This spectrometer is based on a Q-switched Nd:YAG laser, harmonic generating crystals, and stimulated Raman scattering in hydrogen gas. Reflective optics with backscattering collection are used to focus the Raman scattered light onto the slits of a nitrogen or helium filled vacuum monochromator. The detector is a solar blind photomultiplier with a MgF2 window. The performance of this spectrometer is described.
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