Researchers at EPFL have studied strange quantum events taking place in an innovative superconducting material, paving the way to understand high-temperature superconductivity better.
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Physicists at the University of Arkansas have led an international team of scientists in a study to characterise the magnetic and electronic structure in transition metal oxides.
Researchers from the University of Oregon (UO) have conducted a spectroscopy experiment by illuminating four laser light pulses on nanoparticle photocells. This new research, which has been published in the Nature Communications journal, has provided an insight into the mechanism of converting captured sunlight into electricity.
The lithium-ion batteries that mobilize our electronic devices need to be improved if they are to power electric vehicles or store electrical energy for the grid. Berkeley Lab researchers looking for a better understanding of liquid electrolyte may have found a pathway forward. A team led by Richard Saykally, a chemist with Berkeley Lab’s Chemical Sciences Division, David Prendergast, a theorist with Berkeley Lab’s Molecular Foundry, and Steven Harris, a chemist with the Lab’s Materials Sciences Division, found surprising results in the first X-ray absorption spectroscopy study of a model lithium electrolyte.
An engineering team from the Kansas State University has unveiled certain vital properties of graphene oxide, which can enhance flexible batteries made of sodium and lithium-ions.
Scientists at EPFL have developed a simple and innovative method to make nanowires from perovskite material, which could aid in enhancing the efficiency of solar cells.
A research team has reported that optoelectronic networks inspired by natural structures like leaves and spider webs perform four times as well as conventional designs.
A team of researchers from UK and China have designed a novel sulfur cathode wrapped with graphene for rechargeable lithium-sulfur batteries. Dr. Vasant Kumar from the University of Cambridge and Professor Renjie Chen from the Beijing Institute of Technology have led the research team in this project.
A team of researchers in Spain have developed a method to generate a powerful magnetic field by intercalating lead atoms on a graphene sheet. The team included researchers from IMDEA Nanoscience, the University of the Basque Country, the Madrid Institute of Materials Science (CSIC) and the Autonomous University of Madrid.
Materials scientists at Cornell University have developed highly effective “sponges” that can trap carbon and help cut down on greenhouse gases. Carbon capture is gaining momentum in the world’s fight against global warming. Carbon capture involves trapping carbon dioxide chemically before it gets released to the atmosphere. However, most methods are inefficient, corrosive and toxic.
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