Machines are currently learning how to identify cancer cells with the help of manipulated light. This approach may help to take the pressure off our hard-pressed health services and reduce waiting times for anxious patients.
Covering glass microscope slides in tiny, nano-sized pillars can mimic a cell’s natural environment – and could help biologists understand how cells act inside the human body.
Researchers in Norway are among those at the forefront in the field of nanoelectronics. Their goal is to create electronic components at the atomic level, which would open vast possibilities for electronic gadgets.
Harnessing a fundamental property of electrons called spin could help create a new generation of computer chips and faster, more stable and less power hungry devices. NTNU researchers are studying a type of material that could make this technology feasible.
We all know what friction is — but it turns out to be very difficult to describe. Researchers have simplified a commonly used, century-old model for use at the nanoscale — by making it more complicated.
Materials scientists who work with nano-sized components have developed ways of working with their vanishingly small materials. But what if you could get your components to assemble themselves into different structures without actually handling them at all?
Ultraviolet light is used to kill bacteria and viruses, but UV lamps contain toxic mercury. A newly developed nanomaterial is changing that.
Most efforts to control ice build-up on structures like wind turbines and solar cells involve creating a surface that repels water. But Norwegian researchers have engineered a different approach that allows ice to form on a surface, but then causes it to crack off.
A new approach to cancer treatment combines ultrasound, bubbles and nanoparticles with chemotherapy. In an experiment, the treatment has cured cancer in mice.
Norwegian entrepreneurs want to replace expensive and polluting mercury lamps. Now they have the financing to do it.