Industrial PhD student Mark develops a transferable UPLC–MS method for phospholipid analysis in total parenteral nutrition, linking cutting-edge lipidomics with real-world pharmaceutical QC and patient care.

Learn how nitrogen evaporators make solvent exchange faster, gentler, and contamination-free—boosting sample integrity and efficiency in modern analytical labs.

Discover how USC researcher Bianca Costa tackles PFAS contamination through advanced LC-MS methods, innovative sampling, and emerging biotransformation strategies in the engineered water cycle.

In this interview, Taylor Bias shares how she studies the protein MitoNEET using GC-MS and HPLC, uncovering its enzymatic roles and links to diabetes, Parkinson’s disease, and cancer.

Learn how Organomation evaporators help labs save up to 8 hours weekly by accelerating solvent evaporation for hexane, chloroform, acetonitrile, and methanol—boosting research speed and efficiency.

Dr. Sarah Boswell of the University of Nevada, Reno, shares how her Core Analytical Lab supports research from agriculture to energy using advanced spectroscopy, chromatography, and quality verification.

Graduate researcher Morgan from UNR discusses using ELISA and nitrogen evaporation to measure stress hormones in sheep, improving welfare and livestock resilience.

Explore how nitrogen blowdown enhances sample prep efficiency in SPE workflows using Waters Oasis, Agilent Bond Elut and Phenomenex Strata, improving analyte recovery, sensitivity and method reliability.

Prof. David Hanigan explains why PFAS removal isn’t enough, how online FTIR reveals gas-phase products, and where EPA 1633 vs. 533/537 and OTM-45/50 fit in real-world PFAS analysis.

PhD student Jonathan Navarro Ramos shares insights on detecting tire-derived pollutants like 6PPD and 6PPD-quinone using LC–MS/MS and HRMS, revealing global environmental and health impacts.