The HYMNA project combines MBR and MBBR technologies with nanofiber biomass carriers to improve ammonia nitrogen removal and enable modular wastewater treatment.

Discover how regulated drinking water laboratories use GC-MS and LC-MS, rigorous QC protocols, and PFAS-focused workflows to ensure reliable analytical results and protect public health.

Trace-level VOCs shape drinking water quality and perception. ITEX dynamic headspace GC-MS enables ppt-level sensitivity for regulatory compliance and reliable odor-active compound analysis.

This study presents a sensitive Py-GC–MS/MS method using dynamic reaction monitoring to quantify nano- and microplastics in water, sediment, and biota at nanogram levels.

Water is far more than just H₂O. Discover 10 fascinating facts about its physicochemical mysteries — from isotopes and ice forms to lab purity standards and its vital role in scientific research.

This week we bring you application notes by Agilent Technologies and EST Analytical, poster by Shimadzu and smart note by Thermo Fisher Scientific!

A novel AF4-MALS and Py-GC-MS workflow enables size-resolved polymer analysis of nanoplastics in wastewater. It improves detection, quantification, and offers insights into polymer composition.

Explore how the Evolution purge & trap and Centurion WS autosampler streamline USEPA 524.2 method validation, improving sensitivity, reducing moisture issues, and ensuring compliance.

A rapid FTIR method was developed to measure hydrogen isotope ratios in water. Using molecular bending vibrations, it achieved ~0.5% sensitivity and ~1% deviation, proving reliable for H2O/D2O mixtures.

A green HS-HiSorb-TD-GC-MS method for 12 DBPs in drinking water shows high sensitivity, accuracy, and compliance with EU 2020/2184, supporting sustainable water quality monitoring.