The Rice Global Paris Center hosted the BioElectronic Therapeutics (BETx) conference and workshop June 27-28, the first formal event dedicated to the field of bioelectronics to be held at Rice’s Paris campus.
Bioengineering researchers at Rice have developed ultrasmall, stable, gas-filled protein nanostructures that could revolutionize ultrasound imaging and drug delivery for cancers and infectious diseases.
The Severe Storm Prediction, Education and Evacuation from Disasters Center and the George R. Brown School of Engineering at Rice have announced plans to launch two research projects on nature-based carbon credits funded through a gift from Emissions Reduction Corp.
Rice neuroscientists have used a nanosized sensor to record spinal cord neurons in free-moving mice, a feat that could lead to the development of better treatments for spinal cord disease and injury.
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.
Rice and the University of Texas MD Anderson Cancer Center today announced the creation of the Cancer Bioengineering Collaborative to develop innovative technologies and bioengineering approaches to improve cancer research, diagnosis and treatment.
According to CodeSignal’s 2024 University Ranking Report, Rice ranks No. 3 nationally among colleges and universities based solely on students’ objective coding skills.
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.
New research from Rice and the University of Michigan sheds light on how individual neurons in the hippocampus of rats stabilize and tune spatial representations during periods of rest following the animals’ first time running a maze, offering first proof of neuroplasticity during sleep.
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.