This new chemisorption system supports catalyst characterization

This article was originally posted on Chemical Engineering Online.

Summary

Based on the provided excerpt: Chemical Engineering highlights the Autosorb 3300, a next-generation flow chemisorption system designed to make advanced catalyst characterization more accessible, reproducible, and efficient.

What aspects of chemisorption analysis are most important for your work—throughput, automation, sensitivity, or reproducibility?

The Autosorb 3300 system introduces a new generation of flow chemisorption analysis designed to make advanced catalyst characterization more accessible, reproducible and efficient.

The post This new chemisorption system supports catalyst characterization appeared first on Chemical Engineering.

This new chemisorption system supports catalyst characterization

Related Conversations

Autonomous chemistry system identifies high-performing and tunable catalysts

This feed-interface system streamlines filter-press operations

New liquid chromatography system achieves precise separation and ultra-fast analysis

This new bioreactor enables stable, scalable fermentation with reduced risk and faster startup

Low-cost filtration and coalescer systems for aerosol and particulates removal

Recent Conversations

Skanska Completes Construction on Los Angeles World Airports Roadways, Utilities & Enabling Project (LAWA RUE)

Fish-inspired nanorobots for lithium recovery from seawater

Chemists use programmable DNA as ‘molecular glue’ to direct protein crystallization

Sasol and partners commission 2-kW PEM electrolyzer to advance South Africa’s green hydrogen economy

Researchers unlock molecular mechanism of CO2-to-graphite conversion via molten-salt electrolysis

Your Conversations

Skanska Completes Construction on Los Angeles World Airports Roadways, Utilities & Enabling Project (LAWA RUE)

Fish-inspired nanorobots for lithium recovery from seawater

Chemists use programmable DNA as ‘molecular glue’ to direct protein crystallization

Sasol and partners commission 2-kW PEM electrolyzer to advance South Africa’s green hydrogen economy

Researchers unlock molecular mechanism of CO2-to-graphite conversion via molten-salt electrolysis