Rice engineers have developed a smart material that could significantly enhance energy efficiency for indoor space cooling. The new thermochromic polymer blend has an estimated lifespan of 60 years and is lower cost than existing thermochromics.
Rice’s Smalley-Curl Institute held its 38th annual Summer Research Colloquium Aug. 2 at Rice’s Duncan Hall, where undergraduate and graduate students and postdoctoral researchers gave presentations covering topics in nanoscience, quantum materials and quantum information science and technology to a multidisciplinary audience.
Rice materials scientist Lane Martin and collaborators shed light on mesoscale structures in high-tech material with potential use in next-generation electronics, lasers and sensors.
Rice researchers uncover a rapid, efficient and environmentally friendly method for selective lithium recovery using microwave radiation and a readily biodegradable solvent.
Scientists at Rice, in collaboration with the U.S. Army Engineer Research and Development Center, are making headway in addressing per- and polyfluoroalkyl substances (PFAS) contamination.
A research team at Rice led by James Tour is tackling the environmental issue of efficiently recycling lithium ion batteries amid their increasing use.
Rice chemist James Tour has led a research team to develop a rapid electrothermal mineralization process, which in seconds can remediate the accumulation of synthetic chemicals that can contaminate soil and the environment.
Rice materials scientist Boris Yakobson has won three awards from two federal agencies totaling $4,140,611 over several years to research challenging aspects of advanced materials’ production, performance and dynamics.
A number of Rice graduate programs are rated among the nation’s best in the latest edition of U.S. News and World Report’s “Best Graduate Schools” rankings.
Rice’s Pol Spanos, the Lewis B. Ryon Professor of Mechanical and Civil Engineering, has been awarded the 2024 Blaise Pascal Medal in Engineering by the European Academy of Sciences.
A Rice-led study finds that a class of electromechanically active materials called antiferroelectrics may hold the key to overcoming performance limitations due to clamping in miniaturized electromechanical systems.