A theory by Rice University scientists suggests putting graphene on an undulating surface stresses it enough to create a minute electromagnetic field. The phenomenon could be useful for creating 2D electron optics or valleytronics devices.
Rice engineers discover unusual properties in magnetized colloids that surprisingly adhere to the physics described by Kelvin’s equation, which models the thermodynamics of molecular systems.
Rice materials scientist Pulickel Ajayan is co-lead author of a forward-thinking perspective of quantum materials manufacturing in Advanced Materials, and Will Rice College senior Eduardo Gonzalez Villarreal was named the Texas Chapter of the American College of Sports Medicine’s 2022 Undergraduate Major of the Year for Rice University.
The Provost’s Office and the Liu Idea Lab for Innovation & Entrepreneurship (Lilie) have announced the inaugural class of Rice Innovation Fellows, a program that will provide educational and financial support to the next generation of scientist- and engineer-led spinout ventures.
Phonons, quasiparticles in a crystal lattice that are usually hard to control by external fields, can be manipulated by a magnetic field -- but it takes a very strong magnet.
Rice University scientists applied their flash Joule heating process to coal fly ash and other toxic waste to safely extract rare earth elements essential to modern electronics and green technologies.
Rice chemist Matthew Jones wins an NSF CAREER Award to study controlled growth of metallic nanoparticles for biomedicine, energy storage and computing.
Rice University scientists are using machine learning techniques to streamline the process of synthesizing graphene from waste through flash Joule heating.
Scientists and engineers from Rice University and the Kuwait Institute for Scientific Research discover fluorescence from silicon nanoparticles in cement and show how it can be used to reveal early signs of damage in concrete structures.
Atom-level simulations reveal the reason iron rusts in supposedly “inert” supercritical carbon dioxide fluid. Trace amounts of water can cause a reaction at the interface between iron and the fluid, prompting the formation of corrosive chemicals.