The mysterious X in your cells
When your cells are about to divide, your genetic material folds into an X-shape. Why and how?
When your cells are about to divide, your genetic material folds into an X-shape. Why and how?
If electric vehicles were lighter, they would also be more energy efficient. Of course researchers are eager to make that happen. With aluminium.
The transport of dense gases and liquids is becoming increasingly relevant in relation to carbon capture. New research is helping us understand more about how this can be done most efficiently.
Short strands of genetic material called microRNA have implications for human health – but they could also revolutionize species identification, and perhaps even allow monitoring of wildlife health. Here’s how they work and the potential they offer.
Physicist Sol Jacobsen from QuSpin has been awarded a prestigious award.
If electric vehicles were lighter, they would also be more energy-efficient. Not surprisingly, this is a problem researchers are working on – using aluminium.
Previously, researchers thought that microRNA was a kind of useless residue in cells and blood. But these tiny threads are far more important than some imagined. Also for those who study wildlife.
Almost four months after it left Earth in one of Elon Musk’s rockets, the small satellite HYPSO-2 is in full swing, monitoring coastal and ocean areas.
Underwater robots, combined with simple instruments from 100 years ago, are helping researchers unlock the secrets of microscopic marine organisms called plankton.
Two associate professors at NTNU have been awarded roughly NOK 43 million from the European Research Council to study molecular models and gene variations that can affect animal survival.
Engineers and biologists are standing shoulder to shoulder with philosophers, social scientists and historians to safeguard Norway’s largest lake for future generations.
Imagine if everyone were to agree to do everything they can to help the planet. Right now. What sort of state would we and the planet be in in 2050? And what would we have to do?
Plastic, and plastic pollution, are a huge problem for both human health and the environment. An interdisciplinary panel of experts suggests that politicians take three concrete steps to better understand and rein in this growing problem.
TOPOCOM is bringing together leading European research institutions to work on a project that could replace today’s electronics.
Some smells are on the verge of extinction, but we may be able to re-create them using artificial intelligence.
Waste heat from industry can actually heat every house in Norway. A smart solution can harness this energy, while also providing us with clean drinking water.
Industry needs a lot of pure oxygen. New materials that are affordable and robust can provide us with cheaper and more sustainable oxygen production.
Magnons, Bose-Einstein condensates and very bright people.
In the future, your apple core may end up fuelling a Boeing. New research could help make the production of aviation fuel from biomass more efficient.
We know that evolution works over many, many millennia, giving rise to everything from hippopotamuses to whales and more. A new study looks at the links between microevolution, or evolution over a shorter period, and macroevolution, or evolution over thousand or millions of generations.
Plastic food packaging can contain chemicals that affect your hormones, metabolism and the transmission of signals in your body.
Professor Jane M. Reid has received NOK 29 million in EU funding to investigate how animals adapt to rapid environmental change.
A method based on CT (computed tomography) – a type of imaging that is widely used in hospitals – can help improve our understanding of CO2 storage, batteries, and processes in the body such as nutrient uptake.
Seaweed and kelp, or macroalgae, are used in many products, and may become an even more important resource in the future. Artificial intelligence can help us avoid overusing this valuable resource.