Increased capability for identifying genuine versus counterfeit materials is achieved by using dispersive 1064nm Raman analyzers.

Owing to technological improvements spurred on by the telecommunications boom of the last decade, Raman spectroscopy has become much more accessible to users in all application areas, including agricultural, forensic, pharmaceutical, biomedical, and others.

Transportable Dual-Band Raman System for Fuel Analysis

Raman now works on highly fluorescent plant-based samples without sample preparation. 1064 nm dispersive Raman is a viable new option for users who are studying highly fluorescent samples such as plants and biofuels.

Biological tissues and other materials often autofluoresce at near-infrared wavelengths, prohibiting Raman acquisition. New, dispersive Raman systems at 1064 nm allow fluorescence-free measurement in similar integration times.

A new compact instrument combining dispersive 1064 nm Raman and NIR spectroscopy has been developed to deliver maximized analytical flexibility and analytical power.

Qualitative and quantitative measurements of H₂O₂ concentration in unknown samples are observed with an error of ± 0.1% using long wavelength dispersive 785 nm bench-top raman instrument

Increased capability for identifying genuine versus counterfeit materials is achieved by using dispersive 1064 nm Raman analyzers.

Increased capability for identifying genuine versus counterfeit materials is achieved by using dispersive 1064 nm Raman analyzers.