The future of quantum computing may depend on the further development and understanding of semiconductor materials known as transition metal dichalcogenides (TMDCs). These atomically thin materials develop unique and useful electrical, mechanical, and optical properties when they are manipulated by pressure, light, or temperature.
TROY, N.Y. — A team of researchers led by Sufei Shi, an assistant professor of chemical and biological engineering at Rensselaer Polytechnic Institute, has uncovered new information about the mass of individual components that make up a promising quasiparticle, known as an exciton, that could play a critical role in future applications for quantum computing, improved memory storage, and more efficient energy conversion.
TROY, N.Y. — Hidden within countless materials are valuable properties that will enable the next generation of technologies, like quantum computing and improved solar cells. At Rensselaer Polytechnic Institute, researchers working at the intersection of materials science, chemical engineering, and physics are uncovering new and innovative ways to unlock those promising and useful abilities using light, temperature, pressure, or magnetic fields.
TROY, N.Y. — Two-dimensional semiconductors, particularly those made of a class of material known as transition metal dichalcogenides (TMDCs), hold exciting potential for a range of current and future technologies, like solar cells, LED lights, and quantum computing. But the field is fairly new, and there is still much that is unknown.
TROY, N.Y. – Researchers at Rensselaer Polytechnic Institute have come up with a way to manipulate tungsten diselenide (WSe2) —a promising two-dimensional material—to further unlock its potential to enable faster, more efficient computing, and even quantum information processing and storage. Their findings were published today in Nature Communications.