Finder 930
Raman Spectroscopy is a scattering technique which analyzes the scattered light of different wavelength than the incident light to obtain the molecule structure of the analyte. When a incident laser light illuminate the sample, light collide material molecules and scatter. Most of the scattered light features the same wavelength with the incident light, only a very small amount scattered light( typically 0.0000001% ) at different wavelengths with incident light, which is inelastic scatter called Raman scatter. The scattered light frequency less than incident light is called Stokes scattering, the scattered light frequency bigger than incident light is called Anti-Stokes scattering, they are symmetrically distributed on both sides of the Rayleigh scattering
Principle
Raman Spectroscopy is a scattering technique which analyzes the scattered light of different wavelength than the incident light to obtain the molecule structure of the analyte. When a incident laser light illuminate the sample, light collide material molecules and scatter. Most of the scattered light features the same wavelength with the incident light, only a very small amount scattered light( typically 0.0000001% ) at different wavelengths with incident light, which is inelastic scatter called Raman scatter. The scattered light frequency less than incident light is called Stokes scattering, the scattered light frequency bigger than incident light is called Anti-Stokes scattering, they are symmetrically distributed on both sides of the Rayleigh scattering.
The frequency difference v between the incident light and scattered light is called the Raman shift. Raman shift has no relationship with the incident light frequency, determined by the energy level structure of the material molecule, and different chemical bonds correspond one-to-one with the Raman shift, so the Raman spectrum is also considered to be the “fingerprint” of the material.
Non-destructive testing without sample marking
Simple sample preparation and measurement of samples containing water
Small amount of sample, detection spot less than 1 micron
High spatial resolution
High temperature and high pressure testing
Raman Spectroscopy Analytical Method
The intensity, frequency shift, line width, number of characteristic peak, and depolarization of Raman spectra are closely related to the vibrational energy state, rotational energy state, and symmetry of the molecule.
Product Overview
Since entering the field of Raman spectroscopy in 2003, Zolix has continued to accumulate technical strength, and continuously updated Raman products. The products have been widely used in materials, geology, biology, chemistry,medicine, food, investigate and other fields. After long-term discussions with customers in different industries, we have launched a new generation of Raman system: Finder 930, which aims to create a highend laser confocal Raman spectrometer with high performance, high stability and high cost performance. Based on the successful experience of previous generations of products, Finder 930 has been fully upgraded in hardware and software:
• Using a new generation of image calibration spectrometer, the imaging quality is better,and the wavelength repeatability and accuracy are higher, making your experiment data more reliable.
• The high-precision automatic electric control system intelligently controls laser switching,laser power, confocal pinhole size, and automatic optical path correction not only makes the equipment more intelligent and easier to operate, but also greatly improve the stability, plug and play, and maintenancefree.
• The new system software features fluorescence Mapping, Raman Mapping,fluorescence lifetime imaging, hyperspectral data processing, easy to use, making yourdata analysis more convenient and fast.
• The newly launched Finder 930 is a general analytical instrument with high performance, high reliability and high intelligence, and is a good helper for scientific research.
System Characteristic