From today’s medical imaging technologies to tomorrow’s supercomputers, the Center for Scientific Computing and Immersive Technologies conducts basic research to develop new applications and advancements in information technology.
Nanoelectronics and Photonics Research
Nano-scale electrical and optical materials and devices are critical to further miniaturization and capability expansion of highly integrated electronic and photonic systems. From novel solar cell technologies and sub-10nm transistor architectures, to printed electronic systems, on-chip communications, magneto-optical sensors based on quantum effects, and multi-core computational architectures, Russ College faculty are actively involved in the ongoing revolution in nano and micro technologies.
The common denominator in this multi-faceted activity is the will to push boundaries of what is possible in extremely compact electronic and optical systems through a better appreciation of novel material, fabrication tools, and design principles both experimentally and by modeling/simulation approaches. Aided by state-of-the-art equipment and computational tools, development of the nanoelectronic, photonic, and optoelectronic systems of tomorrow is supported by state and federal agencies as well as interdisciplinary collaborations.
Our Faculty Researchers
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Savas KayaResearch Interests--Electron transport
--Membrane protein structure
--Silicon devices
--Nanoelectronics -
Avinash KaranthResearch Interests--Computer architecture
--Parallel processing
--Chip multiprocessors (CMPs)
--Network-on-chips (NoCs) -
Wojciech JadwisienczakResearch Interests--Optical electrical and magnetic properties of wide bandgap semiconductors
--Optoelectronic devices and lasers
--Nanotechnology and photonic materials
--Materials and devices for deep UV-light
Research Centers and Institutes
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Center for Scientific Computing and Immersive Technologies
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Nanoscale Quantum Phenomena Institute
NQPI's faculty represent a broad range of expertise and are actively engaged in research ranging from organic materials to semiconductors and spanning the macroscopic to nanoscale and quantum regimes.