SUMMARY
In 1928, Indian physicists discovered for the first time that there exists an inelastic dispersion, called "Raman scattering", in addition to Rayleigh scattering, after the action of monochromatic light on the molecules of matter. Compared with Rayleigh scattering, Raman scattering is three to six orders of magnitude smaller in intensity, and this scattering is related to the structure of matter, so it can be used for the identification of matter. Since the Raman signal is very weak and requires a strong excitation light source, this has not been widely used for decades after the discovery of the Raman effect. With the rapid development of laser technology, weak signal detection technology, computer applications and instrumentation itself, the application of Raman spectroscopy has gained a breakthrough. This experiment consists of a 785 nm multimode narrow linewidth laser, a microspectrometer, a 785 Raman probe, a sample cell and a holder.
FEATURES
Modular design makes it easier for students to understand and master the principles and components of Raman spectroscopy systems.
Designed and manufactured according to industrial and scientific standards, not only for experimental teaching but also for scientific research.
Professional sample cell and holder, easy for students to operate.
Professional operation software, guided operation, simple and easy to master
EXPERIMENTS
Learning and mastering the basic principles of Raman spectroscopy
Learn and master the principles, basic components and main working principles and usage of Raman spectroscopy measurement.
Learn and master how to build and use Raman spectroscopy measurement system.
Learn and master how to measure the Raman spectra of CCl4 solution and ethanol samples.
Learn and apply Raman spectroscopy to identify plastic samples.
Carbon Tetrachloride Raman Spectrum
Ethanol Raman Spectrum