Recent development of a UV Raman microscope explosive detection system for near trace detection

Research on spatial heterodyne Raman imaging spectroscopy technology based on microlens array

“…For most applications, Raman detection can be performed directly without sample preparation. Therefore, Raman spectroscopy has emerged as a powerful tool for probing molecular structures of substances, with extensive applications in fields such as archeology, 3 planetary exploration, 4,5 hazardous material detection, 6,7 and food safety. 8 Spatial heterodyne spectroscopy (SHS) is a novel Fourier-transform spectral detection technology developed in the 1990s.…”

Research on spatial heterodyne Raman imaging spectroscopy technology based on microlens array

“…For most applications, Raman detection can be performed directly without sample preparation. Therefore, Raman spectroscopy has emerged as a powerful tool for probing molecular structures of substances, with extensive applications in fields such as archeology, 3 planetary exploration, 4,5 hazardous material detection, 6,7 and food safety. 8 Spatial heterodyne spectroscopy (SHS) is a novel Fourier-transform spectral detection technology developed in the 1990s.…”

Design and evaluation of spatial heterodyne Raman spectrometer at 785 nm excitation wavelength

“…2 By analyzing the parameters, such as peak position, peak intensity, and peak width in Raman scattering spectra, information on molecular chemical bond vibrations and rotations of the test target can be obtained, which can effectively determine the composition and structure of substances. Due to the advantages of rapidity and non-destructiveness, Raman spectroscopy (RS) has been widely used in various fields, such as food safety, 3,4 hazardous material identification, 5,6 art authentication, 7 geological exploration, 8 biomedical research, 9 materials preparation, 10 and planetary exploration. 11,12 Spatial heterodyne spectroscopy (SHS) is a Fourier transform-based spectroscopic detection technique that has rapidly developed since the 1990s.…”

Research on spatial heterodyne Raman imaging spectroscopy technology based on microlens array

“…For most applications, Raman detection can be performed directly without sample preparation. Therefore, Raman spectroscopy has emerged as a powerful tool for probing molecular structures of substances, with extensive applications in fields such as archeology, 3 planetary exploration, 4,5 hazardous material detection, 6,7 and food safety. 8 Spatial heterodyne spectroscopy (SHS) is a novel Fourier-transform spectral detection technology developed in the 1990s.…”

Design and evaluation of spatial heterodyne Raman spectrometer at 785 nm excitation wavelength

“…2 By analyzing the parameters, such as peak position, peak intensity, and peak width in Raman scattering spectra, information on molecular chemical bond vibrations and rotations of the test target can be obtained, which can effectively determine the composition and structure of substances. Due to the advantages of rapidity and non-destructiveness, Raman spectroscopy (RS) has been widely used in various fields, such as food safety, 3,4 hazardous material identification, 5,6 art authentication, 7 geological exploration, 8 biomedical research, 9 materials preparation, 10 and planetary exploration. 11,12 Spatial heterodyne spectroscopy (SHS) is a Fourier transform-based spectroscopic detection technique that has rapidly developed since the 1990s.…”

Research on spatial heterodyne Raman imaging spectroscopy technology based on microlens array

“…For most applications, Raman detection can be performed directly without sample preparation. Therefore, Raman spectroscopy has emerged as a powerful tool for probing molecular structures of substances, with extensive applications in fields such as archeology, 3 planetary exploration, 4,5 hazardous material detection, 6,7 and food safety. 8 Spatial heterodyne spectroscopy (SHS) is a novel Fourier-transform spectral detection technology developed in the 1990s.…”

Design and evaluation of spatial heterodyne Raman spectrometer at 785 nm excitation wavelength

“…2 By analyzing the parameters, such as peak position, peak intensity, and peak width in Raman scattering spectra, information on molecular chemical bond vibrations and rotations of the test target can be obtained, which can effectively determine the composition and structure of substances. Due to the advantages of rapidity and non-destructiveness, Raman spectroscopy (RS) has been widely used in various fields, such as food safety, 3,4 hazardous material identification, 5,6 art authentication, 7 geological exploration, 8 biomedical research, 9 materials preparation, 10 and planetary exploration. 11,12 Spatial heterodyne spectroscopy (SHS) is a Fourier transform-based spectroscopic detection technique that has rapidly developed since the 1990s.…”