Computational and Physical Electronics

Members in Computational Electronics employ advanced computational methods to model electronic and thermal transport, quantum and optical processes in nanostructures, and to construct simulations of nanoscale material and device behavior. The group members make extensive use of physical theory and computing resources in their modeling work.

Research in Physical Electronics covers the realm from evolutionary advances in electronics and optoelectronics to revolutionary advances based on atomic-scale fabrication. Nanotechnology has permeated much of the work in this area; from the incorporation of quantum dots in semiconductor heterostructures to the use of promising new carbon nanotechnologies based on carbon nanotubes and graphene. Backing the experimental work is a strong simulation effort in which multiscale tools have been developed to enable simulations from atoms to devices.


Nano-Electrolytics through Artificial Membrane Nanopores

Computational Electronics research shows that the use of p-n semiconductor membranes for bio-molecule detection and manipulation provides enhanced tunability of the electrolyte double layer in nanopores, and improves the membrane functionality in terms of ionic filtering and ionic current rectification.

Nanofabrication In Physical Electronics

Electron beam and novel scanning tunneling microscope- based methods have been developed for fabrication down to single atom precision. Novel CVD processes have been created for micro- and nanoscale applications. A spin-off of the STM work has resulted in deuterium processing being adapted by industry to dramatically reduce hotcarrier degradation effects in CMOS and flash memory technologies.

Nanophotonic and Nanoelectronic Materials

This research area is focused on innovative science associated with synthesizing such extraordinary combinations of materials. This work also encompasses thin films for energy applications such as solar cells, non-volatile data storage, and fundamental measurements of optical, thermal and electrical properties.

Thermoelectronics of Carbon-based Materials

Computational Electronics has demonstrated that metallic carbon nanotubes, new nanoscale materials with unusual electrical, mechanical and thermal properties, exhibit vanishing thermoelectric power due to the electron-hole symmetry, while they satisfy a restricted form of the Wiedemann-Franz law in the linear current regime, in agreement with experiments.


Group Contact:
Kelly Young: 3225 BI
Phone: (217) 333-9734

Research Faculty


Computational and Physical Electronics Research News

CSL Professor Joe Lyding

Joe Lyding receives STM control system from Zybex Labs

08/11/2017 - 10:15   CSL Professor Joe Lyding is a leader in the development of STM technology and particularly hydrogen depassivation lithography.
CSL Professor Jean-Pierre Leburton

New carbon "spintronics" could replace silicon transistors

07/24/2017 - 13:15   ECE and CSL Professor Jean-Pierre Leburton is part of an interdisciplinary team working on an all-carbon spin logic proposal, a computing system that could be made smaller than silicon transistors, with increased performance.
News story image

Eden elected a fellow of National Academy of Inventors

02/03/2015 - 18:00   CSL Professor J. Gary Eden, who holds the Gilmore Endowed Professorship in Electrical and Computer Engineering, has been elected a fellow of the National Academy of Inventors.
J. Gary Eden

Eden awarded nearly $1 million grant to continue microplasma research

11/04/2014 - 18:00   J. Gary Eden was awarded a $917,744 grant from the Air Force Office of Scientific Research (AFOSR) to fund his purchase of laser and gas analytical equipment. He plans to use this equipment to continue his research of microplasma devices.
Paul Scott Carney

Beckman team places in top three in Alan Alda Flame Challenge

07/22/2014 - 19:00   A Beckman Institute team, which included CSL and ECE Associate Professor Scott Carney, decided to enter this year's Flame Challenge, a competition from the Alan Alda Center for Communicating Science at Stony Brook University, and was named one of the top three finalists in the visual category, out of hundreds of applicants.