A recent paper published in Science Robotics featured the revolutionary work from the Cohen, McEuen, Muller, and Arias labs. Learn more in this Cornell Chronicle summary. Read more about Self-folding nanotech creates world’s smallest origami bird
Ultrawide bandgap gives material high-power potential
The path that leads to the next generation of high-power electronics is not long. But it needs to be wide. Very wide.
A Cornell collaboration has found a way to grow a single crystalline layer of alpha-aluminum gallium oxide that has the widest energy bandgap to date – a discovery that clears the way for new semiconductors that will handle higher voltages, higher power densities and higher frequencies than previously seen.
The collaboration was led by co-senior authors Debdeep Jena and Huili Grace Xing, both professors in electrical and computer engineering and in materials science and engineering. The team also included David Muller, the Samuel B. Eckert Professor in Applied and Engineering Physics, who specializes in electron microscopy, and Darrell Schlom, the Herbert Fisk Johnson Professor of Industrial Chemistry, who grows oxide materials for electronic uses.