Raman

Raman Spectroscopy is an optical spectroscopy technique that provides detailed information about the molecular structure of materials. It is based on the interaction between laser light and molecular vibrations. When the laser beam interacts with a sample, most of the light is scattered without any change, but a very small part of the light changes its energy. This change creates a unique Raman signal that can be used to identify materials and study their chemical composition.

This technology is widely used in research, quality control, material science, pharmaceuticals, semiconductors, geology, nanotechnology, and life sciences.

How it works

FROM PRINCIPLE TO APPLICATION

A laser is focused on the sample. The scattered light is collected and analyzed by a spectrometer. The resulting Raman spectrum acts like a molecular fingerprint, allowing researchers to identify the material and understand its structure.

What It Is Used For

Material identification

Chemical composition analysis

Polymer and pharmaceutical research

Semiconductor inspection

Carbon materials analysis

Mineral and geological studies

Nanomaterials and graphene characterization

Life science and biological sample analysis

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