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CFD simulation for reaction engineering (© nordroden / Fotolia.com)

How to Benefit from CFD Simulation

CFD Simulation in Chemical Reaction Engineering — The goal of reaction engineering is to optimize transport processes (heat transfer, mass transfer and mixing) in order to improve yield/conversion of desired products whilst ensuring the safe operation of the reactor. CFD simulation can help maximizing yield while minimizing costs.

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Fig. 1: In many laboratories, multiple sacks of consumables such as cell culture flasks, pipette tips, laboratory gloves and packaging are accumulated every day. Do we really need all of this? (©luchschen - stock.adobe.com)
Plastic Waste in Life Sciences Laboratories

Tackling Waste: 5 Steps to Less Plastic Waste in the Lab

Life sciences laboratories are another area in which plastic waste can be reduced. Approximately 5.5 million tons of plastic waste are produced every year in life sciences laboratories alone, including items like pipette tips, nitrile gloves, cell culture flasks. In the age of global waste pollution and the ubiquity of plastic in the world around us, this is definitely too much. It can’t all be changed, but improvements are possible in some areas.

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The laser printing technique: by printing copper and gold in turn, the gold helix initially is surrounded by a copper box. Etching the copper away, results in a free standing helix of pure gold. (University of Twente)
The Netherlands: 3D Printing

Printing Pure Gold Microparts

Thanks to a laser technique that ejects ultra-tiny droplets of metal, it is now possible to print 3D metal structures, not only simple ‘piles’ of droplets, but complex overhanging structures as well: like a helix of some microns in size, made of pure gold. Using this technique, it will be possible to print new 3D micro components for electronics or photonics.

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Working together with external partners, chemists, materials scientists and chemical engineers at FAU have developed an innovative microcell for water electrolysis.  (Pixabay)
Hydrogen Production

Nanostructured Tubes Could Make Water Electrolysis More Efficient and Flexible

Working together with external partners, chemists, materials scientists and chemical engineers at FAU have developed an innovative microcell for water electrolysis. They hope to replace standard plate electrodes used to split water into oxygen and hydrogen with compact, nanostructured tubes. They aim to simplify production, increase flexibility of use and avoid the need for expensive precious metals.

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