Stephan Hacker uses molecules to find weak spots in resistant bacteria so that we can continue to develop new antibiotics.
Maurits de Roo is looking for a way to make molecules with electricity without fossil resources.
Pascal Vermeeren develops models (algorithms) to discover and unravel the mysterious world of surface chemistry.
Nico Claassens wants to use bacteria to make plastics using CO2 from the air as a carbon source instead of (crude) oil.
Tassos Perrakis studies the structure of proteins to understand how they interact and how that impacts cancer.
Eddytec has developed an efficient method to quickly assess carbon fibre composites.
Suzan Stelloo studies proteins to reveal what causes birth defects.
Harith Gurunarayanan is developing a tiny sensor that can monitor and analyse in real time the molecules produced during high-temperature reactions.
Fabian Eisenreich is investigating how we can use light to break down plastic to reduce the amount of plastic waste that pollutes our environment.
Roy van der Meel is investigating whether he can use natural building blocks such as fats to transport mRNA codes around the body.
Arnon Lesage is developing a flexible film that can convert sunlight according to the specific needs of each plant.
Thomas Hansen uses computer simulations to design new tools for assembling molecules in advance.
The earlier cancer is detected, the better the patient’s chances of survival. Nienke van Dongen uses microfluidic chips to detect cancer DNA in urine.
Arnaud Thevenon creates plastics with a closed life cycle to ensure a sustainable future with plastics.
Veridis is developing a technique to determine which types of plastic are in our waste.
Catalysts are the secret ingredients that speed up reactions, but it takes chemists tens of thousands of tries to find a good catalyst recipe. David Rieder uses a computer to become a better cook.
Olivier Segers works with genetically modified bacteria that can produce melanin like tiny factories
A lot of catalytic reactions happen by means of nanoparticles. Sven Askes uses light and nanoparticles to steer reactions in the right direction.
Barbara Malheiros uses DNA to create exotic materials such as smarter biosensors and diagnostic tools.
Johan Visser is working on an adhesive bioplastic that could increase the capacity of greenhouses.
By studying the infection of lung organoids, Swiss researchers revealed how a notorious pathogen deploys a Trojan horse-stategy.
Working with dyes is asking for pretty pictures. While synthesising fluorescent tracers, Maarten van Meerbeek took this picture of a Cy5 dye.
Noses are as diverse as the species they belong to. Ants use antennae to detect and process olfactory signals. But without the Orco protein, the development of the required neurons is halted.
Harmful bacteria? Don’t be too quick to judge, because sometimes toxins can also be protective.
A team from Google Research and Harvard University has published the largest ever dataset of neural connections in a fragment of the human brain.
You can create extraordinary photonic crystals out of ‘tetrapods’ using DNA origami with unprecedented precision.
Surprisingly little is known about the molecular basis of our sense of touch. A newly discovered ion channel fills in the picture.
It is a popular experiment to introduce children to science: staining a rose with food colouring. An American student did it with fluorescent dye.
With a little imagination, you can see a complete jungle in this picture, with large ferns and grass on the ground.
Stratospheric discharges are not only beautiful, they are also the subject of research into what makes them so colourful.
The audience award of the ChemistryViews 2023 Photo Competition went to this atmospheric image of blue calcium alginate ‘beads’.