Using the Natural Motion of 2D Materials to Create a New Source of Clean Energy
Physics professor Paul Thibado has designed tiny graphene-powered motors that can run on ambient temperature.
The research of Paul Thibado, professor of physics at the University of Arkansas, provides strong evidence that the motion of two-dimensional materials could be used as a source of clean, limitless energy. Thibado and his students studied the movements of graphene, which is composed of a single layer of carbon.
Thibado has taken the first steps toward creating a device that can turn this movement into electricity, with the potential for many applications. He recently applied for a patent on this invention, called a Vibration Energy Harvester, or VEH.
Thibado predicts that his generators could transform our environment, allowing any object to send, receive, process and store information, powered only by room temperature heat.
This would have significant implications for the effort to connect physical objects to the digital world, known as the Internet of Things. This self-charging, microscopic power source could make everyday objects into smart devices, as well as powering more sophisticated biomedical devices such as pace-makers, hearing aids and wearable sensors.
"Self-powering enables smart bio-implants," explained Thibado, "which would profoundly impact society."
Read more about this research on the Research Frontier website.
The Department of Physics is part of the J. William Fulbright College of Arts and Sciences.
Hernandez, a Nashville, Arkansas, native and accounting major, is a first-generation student who has found her footing at the U of A after earning her associate's degree at Cossatot Community College.
Three candidates for the position of director of the School of Art in the Fulbright College of Arts and Sciences - Jason Guynes, Adam Herring and Rachel Debuque - will hold open forums on March 4, 7 and 11, respectively.
GPT-4 scored higher than human participants in three tests designed to measure divergent thinking, an indicator of creative potential.
Adams' lecture will highlight findings from his research at the U of A and is titled "Biophysical and Biochemical Approaches to Characterize Novel Molecular Details That Influence Ras-Related Protein Cell Signaling Function."
At the 2024 Innovation Rally, individuals, teams and organizations will step beyond conventional boundaries and approaches and embrace a collaborative approach to problem-solving.