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Why Electrical Engineering at UTA?
On a strong track toward Tier 1, UT - Arlington is a doctoral, research - extensive university, with enrollment now exceeding 34,000 students.
As a part of the University of Texas system, UT -Arlington is located in the rapidly growing Dallas/Fort Worth Metroplex,
one of the nation's leading regions in the developement of electrical engineering related advanced technologies.
This environment and strong supports provide excellent oppurtunity for industrial and academic collaborations.
The EE Department is a key resource to provide world-class education and research to high-quality students by distinguished faculty.
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| The faculty are engaged in the following disciplinary reserach areas: |
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ELECTRICAL POWER SYSTEMS, MICROGRIDS, POWER CONVERSION AND CONTROL, ENERGY STORAGE
| W. J Lee |
Power system operations and simulations, stability analysis and control, load flow, surge protection and arc flash safety. |
| W. Dillon |
Space power applications, high voltage techniques, and conventional power system analysis. |
| R. Kenarangui |
Electric power distribution systems, radiation detectors based on nanocomposite scintillators for gamma-ray radiation and radiation, hardened robotics for sampling and rescue. |
| A. Davoudi |
Power electronics-based systems, energy conversion, renewable energy systems, Smart Grids, energy storage. |
| D. Wetz |
Pulsed power, high voltage engineering, electromagnetic propulsion, energy storage, Smart Grids. |
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SENSORS AND ROBOTICS, ASSISTIVE ROBOTICS, MULTISCALE ROBOTS, TEAMING ROBOTS
| F. Lewis |
Feedback control systems (nonlinear process, adaptive, optimal, intelligent, and robust), cooperative multi-agent systems, robotics. |
| D. Popa |
Robotics, microrobotics and control systems, MEMS, micromanufacturing, human-robot interaction. |
| H. Stephanou |
Modular Microrobotic systems, Smart Micromachines, MEMS. |
| Z. Celik-Bulter |
Microelectromechanical systems, Infrared detectors, Noise in semiconductor and superconductor devices, and High Tc-superconductivity. |
| D. Butler |
Microelectromechanical devices, micromachined uncooled infrared detectors, sensors, and polymer nanocomposites. |
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QUANTUM OPTICS, NANOPHOTONICS, OPTICAL AMPLIFICATION
| R. Magnusson |
Periodic nanostructures, nanolithography, nanophotonics, nanoelectronics, nanoplasmonics, optical bio- and chemical sensors, nanofabrication, integrated nanoscale devices. |
| K. Alavi |
Physics and applications of heterostructures, nonlinear optics, optical imaging. |
| W. Zhou |
Optoelectronic materials and devices, Nanophotonics and silicon photonics |
| M. Vasilyev |
Nonlinear and quantum optics, optical communication systems and devices, nanophotonics. |
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IMPLANTABLE SENSORS AND SYSTEMS, NANO-BIOSENSORS
| JC Chiao |
Medical microdevices and Microsystems, Bio-electronics systems, MEMS, quasi-optical wireless systems, micro-nano-optics. |
| R. Magnusson |
Optical bio- and chemical sensors, periodic nanostructures, nanolithography, nanophotonics, nanoelectronics, nanoplasmonics, nanofabrication, integrated nanoscale devices. |
| Z. Celik-Bulter |
Microelectromechanical systems, Infrared detectors, Noise in semiconductor and superconductor devices, and High Tc-superconductivity. |
| D. Butler |
Microelectromechanical devices, micromachined uncooled infrared detectors, sensors, and polymer nanocomposites. |
| S. Iqbal |
Nanotechnology and MEMS, Biosensors and Bio-Inspired Fabrication. |
| S Jung |
Analog and mixed signal Integrated Circuit (IC) design, RF IC design, IC design for ultra-wide bandwidth (UWB) wireless communications, systems-on-a chip (SOC) implementation. |
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OPPORTUNISTIC SENSING, RADAR AND WIRELESS SENSOR NETWORKS
| Q. Liang |
Sensor networks, wireless networks, wireless communications, signal processing for communications, fuzzy logic systems and applications, collaborative and distributed signal processing. |
| J. Bredow |
Remote sensing, radar, microwave circuits, antennas, electromagnetics. |
| S. Tjuatja |
Remote sensing, wireless communications, numerical techniques for electromagnetics. |
| A. Davis |
Microwave component design; microwave semiconductor circuit design. |
| I. Schizas |
Statistical Signal Processing, Wireless Sensor Networks, Data Dimensionality Reduction. |
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HUMAN PERFORMANCE, MULTIMEDIA, SIGNAL PROCESSING
| K. R. Rao |
Digital signal and image processing. Data compression by various techniques for digital transmission or storage of audio and video at reduced rates. |
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V. Devarajan |
Image Processing, Virtual Reality and Digital Photogrammetry. |
| G. Kondraske |
System performance modeling and measurement (particularly applied to the human system and its subsystems), sensor and instrumentation design, measurement system design. |
| M. Manry |
Neural networks, image processing, digital signal processing, parameter estimation, and pattern recognition. |
| S. Oraintara |
Low-powered transforms. Digital signal and image processing and compression. Image reconstruction and restoration. |
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