EE Home > Graduate Academics > Thesis Defenses/Dissertation Abstracts
The Electrical Engineering Department moved into Jack and Barbara Davis Hall in 2012. This, state-of-the-art building houses research laboratories, a 5,000 square foot, class 1000 cleanroom, classrooms and faculty offices. See more about Davis Hall here.>>
Electrical Engineering has outstanding undergraduate students. Claire Lochner and Christopher Llop are two examples of this excellence. Each student was a recipient of a national scholarship award. >>
Professor Bird's research is focused on understanding novel quantum phenomena in nanostructures like the 30-nanometer wide nickel silicide nanowire (red line in picture). >>
A false color image obtained by an EE lab with a streak camera showing the ultra-fast (picosecond) time-resolved photoluminescence of an InGaN/GaN multiple-quantum well. The camera obtains images with a time resolution of 20 ps.>>
IIn a collaboration between an EE group and several other departments, an EE graduate student has demonstrated the ability to trap 2.5um diameter polysterene microspheres in a matrix using a single scanning laser beam.>>
EE faculty are working in analog VLSI design, a small but growing field that draws principles from both analog and digital design to create systems that perform specific functions such as stereopsis processors and robot path planning circuits.>>
To demonstrate electron-beam lithography as a nanofabrication process, two EE undergraduate students produced a chromium UB emblem on a silicon substrate, with a minimum line-width of about 5 nanometers.>>
A concept for solar cells for space-based electrical power under investigation by an EE researcher involves 5-10 micron thick microcrystalline Si films on flexible substrates topped with nanowires (shown here) that provide high optical absorption.>>
EE faculty are developing nanostructured solar cells that exploit Multiple Exciton Generation (MEG) in nanocrystal quantum dots. The image shows the device structure schematic on the left and the actual micrograph of the fabricated structure. >>
NIH has funded EE faculty researchers to develop novel colorimetric sensors based on a novel holographic interferometry method for producing 1-D, 2-D and 3-D photonic bandgap structures. These structures are being studied for applications in wound healing. >>
Professor Y.K. Yoon is developing computer controlled multidirectional (3D) ultraviolet (UV) lithography. An example of a fabricated resulair-lifted screwed wind vane array that could be used as terahertz antennas or micro-turbines is shown in the figure. >>
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