ECE 6900/7900 Graduate Seminar
Fall Semester 2014
Instructor: Prof. Gianluca Lazzi, email@example.com
Location: WEB 1250
Meeting Time: Mondays at 3:05-3:55 p.m. (with some occasional Fridays)
Teaching Assistant: Seyyed Hashemizadehkolowri, firstname.lastname@example.org
General Course Information and Requirements
- This is a credit/no credit class required of all MS/ME students. A student continuing for the Ph.D. degree must register for ECE 7900/7910 after having previously taken ECE 6900 and 6910 during their MS/ME program.
- A tentative Graduate Seminar Schedule for the beginning of Fall 2014 will be listed below once seminars are scheduled. Several of the seminars have yet to be announced. These slots will be filled in due course, and the speakers and topics of the seminars will be announced as the information becomes available.
- To receive credit for this class, a student must attend at least 70% of the seminars offered. Based on the current estimate of seminars that will be offered this semester (15), this translates into attending at least 11 seminars.
- Seminar attendance will be recorded. It is a student’s responsibility to bring their UCard to each seminar so the course TA can verify attendance. Students must stay for the duration of the seminar to get credit.
- The first graduate seminar of Fall Semester will be held on Monday, August 25th, 2014.
- Students are expected to turn in a well-written, 2-page minimum report on any seminars that they attended during the year. Students may compensate for 2 absences by turning in an additional report on the research of any single graduate seminar speaker. Reports should be turned in to the course instructor before the last day of the semester and should be in the IEEE Magnetics Letters format laid out at the bottom of the following webpage:
August 25th, 2014
Dr. Gianluca Lazzi University of Utah Electrical & Computer Engineering Department When: Monday, August 25, 2014 at 3:05 p.m.Where: Warnock 1250 During this first Graduate Seminar of Fall 2014, Dr. Lazzi will welcome students to the 2014-2015 academic year and go over the format for Graduate Seminar for the remainder of the semester.
September 8th, 2014
Drs. Priyank Kalla and Darrin Young University of Utah Electrical & Computer Engineering Department When: Monday, September 8, 2014 at 3:05 p.m.Where: Warnock 1250 Drs. Priyank Kalla and Darrin Young will review graduate policies and procedures for the ECE Department.
September 15th, 2014
Dr. Joel Harley University of Utah Electrical & Computer Engineering Department When: Monday, September 15, 2014 at 3:05 p.m.Where: Warnock 1250 Abstract In engineering and the sciences, there is considerable interest in new technology to sense and monitor large, physical environments. These systems have applications in many fields, including civil and aerospace engineering, medicine, oceanography, and seismology. For civil and aerospace applications, these technologies can be used to noninvasively monitor the structural integrity of bridges, pipes, airplanes, and other modern structures to reduce maintenance costs and prevent catastrophic failures in transportation, power, and resource distribution networks. Ultrasonic guided waves (waves that are “guided” by the geometry of the environment) have been of particular interest for monitoring critical infra-structures due to their sensitivity to damage and capability to interrogate large areas at once. To detect, locate, and evaluate damage, ultrasonic guided waves are measured and analyzed using various signal processing strategies. However, successfully detecting and locating damage is challenging because complex propagation environments significantly distort the waves as they travel through the medium. This talk presents a signal processing framework for overcoming these challenges by combining the physical principles of ultrasonic waves with novel data-driven signal processing strategies. Through experimental data, I demonstrate how to characterize complex environments and use their properties to improve to improve detection, localization, and characterization performance. We briefly discuss how these strategies can be extended to other applications. Speaker Biography Joel B. Harley received the B.S. degree in electrical engineering from Tufts University, Medford, MA, in 2008 and a M.S. degree in electrical and computer engineering from Carnegie Mellon University, Pittsburgh, PA in 2011, and a Ph.D. in electrical and computer engineering at Carnegie Mellon University, Pittsburgh, PA in 2014. He is currently an Assistant Professor in the Department of Electrical and Computer Engineering at the University of Utah, Salt Lake City, UT. His interests include the integration of complex wave propagation models with novel signal processing, machine learning, and big data methods for applications in structural health monitoring, nondestructive evaluation, medical imaging, electrical monitoring, and other fields. Dr. Harley is a recipient of the 2009 National Defense Science and Engineering Graduate (NDSEG) Fellowship, the 2009 National Science Foundation (NSF) Graduate Research Fellowship, the 2009 Department of Homeland Security Graduate Fellowship (declined), and the 2008 Lamme/Westinghouse Electrical and Computer Engineering Graduate Fellowship. He is also the recipient of the 2014 Carnegie Mellon A.G. Jordan Award for academic excellence and exceptional service. He has published more than 30 technical journal and conference papers, including four best student papers. He is a student representative for the IEEE Ultrasonics, Ferroelectrics, and Frequency Control Society, a member of the IEEE Signal Processing Society, and a member of the Acoustical Society of America.
"High-Efficiency PA Techniques: Incorporating Novel Devices and Architectures for Improved Efficiency Wideband and High-Speed Communication"
September 22nd, 2014
Dr. Jeffrey S. Walling University of Utah Electrical & Computer Engineering Department When: Monday, September 22, 2014 at 3:05 p.m.Where: Warnock 1250 Abstract CMOS is used nearly ubiquitously for digital computation, and as such plays an ever increasing role in our lives as we increasingly use computation to improve working efficiency. Increasing levels of integration have made it possible to embed analog and RF circuits with digital processing on a single integrated circuit. The RF power amplifier (PA) has been the exception to integration in CMOS, owing to its relatively poor performance (e.g., peak output power and energy efficiency) when compared to other semiconductor technologies (e.g., III-V compounds and SiGe). In this talk I will introduce digital PAs (DPAs), which leverage CMOS inherent strengths of fast switching speeds and superior lithographic matching to yield a linear, efficient digital power amplifier. I will also examine current research in the University of Utah Power Efficient RFIC lab addressing limitations in DPAs, and high power PAs using GaN devices. The aim of such PAs is to enable reconfigurable operation for software-defined and cognitive radios networks. Speaker Biography Jeff Walling received the B.S. degree from the University of South Florida, Tampa, in 2000, and the M.S. and Ph. D. degrees from the University of Washington, Seattle, in 2005 and 2008, respectively. Prior to starting his graduate education he was employed at Motorola, Plantation, FL working in cellular handset development. He interned for Intel, Hillsboro from 2006-2007, where he worked on highly-digital transmitter architectures and CMOS power amplifiers and continued this research while a Postdoctoral Research Associate with the University of Washington. He is currently an Assistant Professor in the ECE Department at University of Utah, where he directs the Power Efficient RFIC Lab. His current research interests include power amplifier design, high-efficiency transmitter architectures and low energy wireless circuits. Dr. Walling has authored over 30 articles in peer reviewed journals and refereed conferences and holds two patents. Recently he received the Best Paper Award at Mobicom 2012. He has also received the Yang Award for outstanding graduate research from the University of Washington, Department of Electrical Engineering in 2008, an Intel Predoctoral Fellowship in 2007-2008, and the Analog Devices Outstanding Student Designer Award in 2006.