New design points a path to the ‘ultimate’ battery
29 October 2015Researchers have successfully demonstrated how several of the problems impeding the practical development of the so-called ‘ultimate’ battery could be overcome.
Researchers have successfully demonstrated how several of the problems impeding the practical development of the so-called ‘ultimate’ battery could be overcome.
A new technique which enables researchers to visualise the activity of individual ions inside battery-like devices called supercapacitors, could enable greater control over their properties and improve their performance in high-power applications.
Researchers from the University of Cambridge have devised a new simulation technique which reliably predicts the structure and behaviour of different materials, in order to accelerate the development of next-generation batteries for a wide range of applications.
The Royal Society has announced the recipients of its awards, medals and prizes for 2104.
A team of chemists from the University of Cambridge and New York University has developed a method for examining the inner workings of battery-like devices called supercapacitors, which can be charged up extremely quickly and can deliver high electrical power. Their technique, based on magnetic resonance imaging (MRI), establishes a means for monitoring and potentially enhancing the performance of such devices.
Resolving the mystery of what happens inside batteries when silicon comes into contact with lithium could accelerate the commercialisation of next-generation high capacity batteries, for use in mobile phones and other applications.
A centre for research on graphene, a material which has the potential to revolutionise numerous industries, ranging from healthcare to electronics, is to be created at the University of Cambridge. The University has been a hub for graphene engineering from the very start and now aims to make this “wonder material” work in real-life applications.
The University of Cambridge’s Department of Chemistry has today unveiled the new, cutting-edge Todd-Hamied Laboratory. The laboratory will explore harnessing materials for energy storage and conversion in an effort to develop the next generation of batteries and fuel cells.
A new phase of research harnessing materials for rechargeable batteries is beginning in the Department of Chemistry.