Dry reforming of methane (DRM) converts methane (CH₄) and carbon dioxide (CO₂) - two major greenhouse gases - into syngas, a mixture of carbon monoxide and hydrogen used to make fuels and chemicals. To improve this process, researchers studied how gases interact with a nickel–ruthenium catalyst on cerium oxide nanorods using in-situ DRIFTS, an advanced infrared technique. With a high-temperature chamber, they tracked surface changes from 50 °C to 450 °C in real time. The findings help guide the development of better DRM catalysts, supporting cleaner energy production and smarter use of greenhouse gases. Read more below in our application note.
How has spectroscopy training changed? A recent panel discussion explored this topic, discussing how SpecAcademy can widen access without losing the value of hands-on instruction.
FT-IR spectroscopy, long treated as a mature bench technique for confirming a carbonyl stretch or fingerprinting a polymer, has quietly become one of chemistry’s most versatile discovery engines: it now infers molecular structure straight from a spectrum without a reference library, resolves chemistry tens of nanometers wide, and screens a fingerstick of blood for disease in minutes. The last five years of published research show FT-IR moving from a confirmatory tool into a predictive, autonomous, and field-ready analytical platform.
In this panel discussion, five SpecAcademy instructors examined why spectroscopy expertise has declined and how SpecAcademy aims to rebuild it through curated, fundamentals-based education suited to increasingly complex analytical work.
The agreement gives North American customers a stocked, domestic source for InGaAs PIN photodiodes and avalanche photodiodes from the Scottish manufacturer.
Panelists from the Society for Applied Spectroscopy, the Coblentz Society, Syensqo, Specac, and the University of Georgia discuss how a mismatch between academic curricula and industry practice leaves many analysts unsure when, and how, to use infrared and Raman spectroscopy.