Raman Spectroscopy is a technique used in chemistry and physics to study the vibrational modes of molecules. It involves shining a laser on a sample and measuring the scattered light to determine the energy levels and vibrations of the molecules.
Raman Spectroscopy works by exciting the molecules in a sample with a laser beam. When the laser light interacts with the molecules, some of the light is scattered at different wavelengths depending on the energy levels and vibrations of the molecules. This scattered light is then measured and analyzed to determine the molecular structure and composition of the sample.
The intensity peaks in Raman Spectroscopy correspond to the amount of scattered light at different wavelengths. These peaks can reveal information about the molecular structure, such as the types of bonds present and their arrangement. The relative intensities of the peaks can also provide information about the concentration of certain molecules in the sample.
Wave number peaks in Raman Spectroscopy represent the energy levels of the molecules in the sample. The position of these peaks on the spectrum can provide information about the vibrational modes and energy states of the molecules, which can help identify specific chemical bonds and functional groups.
Raman Spectroscopy has a wide range of applications in various fields, including chemistry, biology, pharmaceuticals, and materials science. It can be used to identify unknown substances, analyze the composition of materials, and monitor chemical reactions. It is also commonly used for quality control and forensic analysis.