UC Berkeley, the University of Cambridge and the National University of Singapore to support collaborative projects in themes including Precision Medicine, Cities and Smart Systems.
A microscopic ‘pen’ that is able to write structures small enough to trap and harness light using a commercially available printing technique could be used for sensing, biotechnology, lasers, and studying the interaction between light and matter.
New study finds “messy” microscopic structures on petals of some flowers manipulate light to produce a blue colour effect that is easily seen by bee pollinators. Researchers say these petal grooves evolved independently multiple times across flowering plants, but produce the same result: a floral halo of blue-to-ultraviolet light.
In a galaxy far away, two dead stars begin a final spiral into a massive collision. The resulting explosion unleashes a huge burst of energy, sending ripples across the very fabric of space. In the nuclear cauldron of the collision, atoms are ripped apart to form entirely new elements and scattered outward across the Universe.
Nanobots that patrol our bodies, killer immune cells hunting and destroying cancer cells, biological scissors that cut out defective genes: these are just some of technologies that Cambridge researchers are developing which are set to revolutionise medicine in the future.
The sixth annual Winton Symposium will be held on 9 November at the University’s Cavendish Laboratory on the theme of Energy Storage and Distribution.
The UK is investing £65 million in a flagship global science project based in the United States that could change our understanding of the universe, securing the UK’s position as the international research partner of choice. Professor Mark Thomson from the University of Cambridge’s Cavendish Laboratory has been the elected co-leader of the international DUNE collaboration since its inception and is the overall scientific lead of this new UK initiative.
Researchers have shown that defects in the molecular structure of perovskites – a material which could revolutionise the solar cell industry – can be “healed” by exposing it to light and just the right amount of humidity.