In the Media

Advanced spectroscopy has become the cornerstone of innovation for carbon-based energy technologies. By utilizing carbon materials like graphite and graphene, engineers can achieve exceptional electronic and structural performance; however, these materials remain vulnerable to degradation in harsh electrochemical environments. Advanced analytical probes allow researchers to "see" at the molecular level, identifying the exact moment structural integrity begins to fail.

A-TEEM (Absorbance, Transmittance, and Excitation-Emission-Matrix) spectroscopy, combined with multivariate analysis, is a rapid, non-invasive, and cost-effective technique for comprehensively characterizing cell culture media, providing molecular fingerprints to monitor lot-to-lot variability and detect subtle compositional changes that directly impact cell growth and final product quality.

Raman spectroscopy, combined with advanced chemometric modeling, is a rapid, non-invasive, and non-destructive technique for comprehensively characterizing biological products. By generating unique molecular fingerprints, it allows manufacturers to monitor protein stability, metabolic shifts in bioreactors, and trace contaminants with high sensitivity and minimal sample preparation.

Raman spectroscopy, a rapid, non-destructive, and chemically specific analytical technique, is used extensively in the packaging industry to characterize multilayer polymer films. Through the use of Raman Spectroscopy, you can access detailed molecular fingerprints that enable researchers to identify polymer layers, assess barrier performance, and monitor the degradation of biodegradable materials, facilitating the transition toward a circular economy.

Multimodal spectroscopic metrology, integrating Photoluminescence (PL), Time-Resolved Photoluminescence (TRPL), and Raman spectroscopy, is a rapid, non-destructive, and high-resolution technique for comprehensively characterizing micro-LED mu (LED) epitaxial wafers. This approach provides atomic-level insights to monitor epitaxial growth quality and detect yield-killing microscopic defects that directly impact display brightness, color uniformity, and pixel functionality.