Getting residence time and pump flow rates right is the foundation of every successful flow chemistry experiment. Let us help you with that!
Alex Padgham, University of Liverpool (UK) explains how the fReactor and PhotoFLOW module support heterogeneous photochemistry in a compact flow setup
At the heart of the Flow Chemistry revolution are advanced instruments like the continuous stirred tank reactor (CSTR). Want to know more about them?
Biocatalysis is becoming an increasingly important tool for chemists looking to develop efficient and selective chemical processes. But what happens when your biocatalyst is a solid, and what equipment can you use to get the most out of it?
Rowan M. Bailey evaluates the PhotoChip LED photoreactor whilst conducting kinetic sweeping experiments which rely on highly reproducible reactor conditions.
Asynt visited the Cresswell group at the University of Bath’s Chemistry Department, to film their labs and interview some of the students using Asynt equipment for their research. Here are the videos from our visit.
Asynt has introduced the new ColdCoil – a versatile temperature-controlled flow chemistry module designed to provide exceptional flexibility across a broad range of continuous flow applications.
Professor Mathias O. Senge’s research group at Trinity College Dublin focuses on the synthesis and application of porphyrins, an important class of macrocyclic compounds widely used across biomedical, materials and photochemical sciences.
Chemists from the University of Liverpool tackle the challenges of synthesizing porphyrin derivatives.
Flow chemistry and photochemistry are both being increasingly utilised in synthetic chemistry. Flow chemistry allows for safer, more controllable processing and easier scale-up. Photochemistry has opened up novel routes that can be cleaner and more energy-efficient than standard synthesis.
