Review of Scientific Instruments · 2005 · 36 citations · 9 references
Natural SciencesMaterials EngineeringMaterials ScienceOpticsPhotonicsSpectroscopyInfrared SpectroscopyNear-infrared SpectroscopyOptical SpectroscopyRaman SpectroscopyUltraviolet InstrumentationUltraviolet SpectroscopyNumerical ApertureRaman InstrumentationRaman SpectraResonance Raman SpectroscopySpectrometer DesignSpectrometer ResolutionStray Light CorrectionStray Light Suppression
We present the design and performance of a new triple-grating deep ultraviolet to near-infrared spectrometer. The system is fully achromatic due to the use of reflective optics. The minimization of image aberrations by using on- and off- axis parabolic mirrors as well as elliptical mirrors yields a strong stray light rejection with high resolution over a wavelength range between 165 and 1000nm. The Raman signal is collected with a reflective entrance objective with a numerical aperture of 0.5, featuring a Cassegrain-type design. Resonance Raman studies on semiconductors and on correlated compounds, such as LaMnO3, highlight the performance of this instrument, and show diverse resonance effects between 1.96 and 5.4eV.
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Near‐infrared Raman spectroscopy for optical diagnosis of lung cancer
Zhiwei Huang, Annette McWilliams, Harvey Lui et al. · International Journal of Cancer · 2003 · 811 citations
H.G. Jerrard · Physics Bulletin · 1972 · 558 citations
A. S. Wilson, Howell G. M. Edwards, Dennis W. Farwell et al. · Journal of Raman Spectroscopy · 1999 · 57 citations