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ECE Elements Newsletter 2012 - Electrical and Computer ...

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ELECTRICAL & COMPUTERENGINEEERING2010-<strong>2012</strong>LEMENTSA Publication of the <strong>Electrical</strong> & <strong>Computer</strong> Engineering Department


EXTERNAL ADVISORY COUNCILKen KuwamuraEAC ChairSr Recruitment ManagerUnion Pacific RailroadCONTENTSJ.K. Aggarwal, Ph.D.,Cullen Professor of <strong>Electrical</strong><strong>and</strong> <strong>Computer</strong> EngineeringUniversity of Texas at AustinMESSAGE FROM THE CHAIR 1Melissa GrayDirector, Global SustainabilityRackspace Hosting<strong>ECE</strong> AT A GLANCE 2Stuart A. Long, Ph.D., P.E.Associate Dean of Undergraduate Research<strong>and</strong> Honors College, ProfessorUniversity of HoustonFACULTY RESEARCH FOCUS 3-9Andy MastronardiGlobal Director, University ProgramsFreescale Semiconductor, Inc.STUDENT SPOTLIGHT 10-11ALUMNI PROFILE 11-13Michael A. Miller, Ph.D.Institute Scientist,Materials Engineering DepartmentSouthewest Research Institute ®FACULTY DIRECTORY 14-15Bradley H. Pollock M.P.H., Ph.DHenry B. Dielmann DisitinguishedUniversity Chair, Department ofEpidemiology & BiostatisticsUniversity of Texas Health Science CenterACTIVE SPONSORED RESEARCH 16-17David A. SteinkeDirector of Technical Training SolutionsMTS Technologies, Inc.DONOR APPRECIATION 17Editor & Graphic DesignerErin Jines, <strong>ECE</strong> Administrative Assistant


Message from the ChairIt is with great pride I present you this <strong>ECE</strong><strong>Newsletter</strong> – <strong>Elements</strong>. This special issuehighlights faculty achievements in the pastThe department is young - it haswas awarded or just 7 years since it wasestablished as Department of <strong>Electrical</strong> <strong>and</strong><strong>Computer</strong> Engineering. Yet it has experiencedtremendous growth both in terms of facultystrength <strong>and</strong> in the quality <strong>and</strong> breadth of itsacademic programs. <strong>ECE</strong> now has 26 facultymembers who hold tenured (15), tenure trackAmong us are gifted educators asOutst<strong>and</strong>ing Teaching Award recipients of theCollege (John), the University (Hansen) <strong>and</strong>the UT System Regents (Qian). Several seniormembers are nationally <strong>and</strong> internationallyrecognized researchers, authors, <strong>and</strong>educators as Fellows of IEEE (Jamshidi, Raju),other professional societies.Many of our faculty members haveemerged to be leaders conducting researchencompassing traditional <strong>and</strong> emergingsecurity, <strong>and</strong> energy needs (see featurestories in this issue). Faculty members Lee(low power computer architecture), Krishnan(network security), Krishnaswami <strong>and</strong> Wang(<strong>Electrical</strong> Power) are the recent additionsin the past three years, who brought to thedepartment new talent for education <strong>and</strong>research in strategic areas. Lee establishedNSF Research Experience for Undergraduates(REU) site in 2011, the second such program<strong>2012</strong> NSF CAREER award, bringing the totalCAREER awardees of the department to three(in addition to Qian <strong>and</strong> Huang).Faculty research <strong>and</strong> scholarlyproductivity has seen unprecedented levels. Inthe past three years, 23 <strong>ECE</strong> faculty published~174 (~67 journal) papers a year, inaddition to (6) authored books <strong>and</strong> (4) issuedpatents. 19 faculty members are Principalor Co-Principal Investigators during thisperiod <strong>and</strong> carried out more than 50 activesponsored research projects (see details onpp 16-17). The faculty’s sponsored researchhas reached an all-time high in FY <strong>2012</strong>exceeding $3 million (>$4M including ARRAinfrastructure funding), tripled compared toFY 2009 <strong>and</strong> quadrupled compared to FY2008.The growth in faculty expertise <strong>and</strong> therapid rise in competitive research brought thestate-of-the-art technology into our classrooms<strong>and</strong> opened more research opportunitiesto our students at both undergraduate <strong>and</strong>graduate levels. Two new degree programsEngineering (Fall 2010) <strong>and</strong> InterdisciplinaryMS in Advanced Materials Engineering (Fall<strong>2012</strong>). A new Concentration has been added2011). Several design-oriented <strong>and</strong> labintensivetechnical elective courses have alsobeen introduced in recent years giving ourstudents h<strong>and</strong>s-on <strong>and</strong> team-work training.MS EE, MS CPEG, <strong>and</strong> PhD EE are SACSaccredited. I am very glad to note that more<strong>ECE</strong> UTSA graduates are entrepreneurs,hired in leading industry sectors, by majorcorporations, or sought-after by top-tiergraduate schools. Our MS <strong>and</strong> PhD recipientsare successful researchers <strong>and</strong> are well-R&Ds, research labs, or academic institutes.The department established a distinguishedresearch seminar series in fall 2010, funded<strong>ECE</strong> Outst<strong>and</strong>ing Graduate Research Awardsin 2011, <strong>and</strong> has been hosting increasingnumbers of visiting scholars on domestic <strong>and</strong>international collaborations led by our faculty.Faculty research also providedresources for educational initiatives. Centerfor Excellence in Engineering Education(CE3) led by Dr. Shadaram launched severalsuccessful projects for engineering curriculumimprovement <strong>and</strong> for minority students’preparedness <strong>and</strong> retention. Undergraduateadvising <strong>and</strong> overall academic programhaving Dr. Hansen lead the effort as <strong>ECE</strong>’sUndergraduate Advisor of Record (UGAR).In addition to outst<strong>and</strong>ing faculty <strong>and</strong>dedicated staff, our achievement would nothave been possible without the oversight <strong>and</strong>guidance of our highly engaged <strong>and</strong> activeExternal Advisory Council. Our connectionwith local high schools <strong>and</strong> industries inthe San Antonio - Austin areas are alsosubstantial <strong>and</strong> growing. I also wish to takethis opportunity to pay tribute to our donorswho shared our vision <strong>and</strong> invested in thefuture of our department <strong>and</strong> our students. Isend greetings to all of our alumni, for yoursuccess is the best support <strong>and</strong> publicity forour programs.Very recently (May <strong>2012</strong>), the Londonbased Times Higher Education (THE) rankedUTSA No. 53, among the top 100 universitiesworldwide that are under 50 years old.The ranking was based on the performanceindicators of research, citations, teaching,international outlook <strong>and</strong> industry income.This is a positive recognition that UTSA ison a fast-pace towards premier researchintensivestatus. I am proud to say thatDepartment of <strong>ECE</strong> has been a vibrant partof UTSA’s transformation <strong>and</strong> is taking largestrides towards building top-tier engineeringeducation <strong>and</strong> research programs.As <strong>ECE</strong> welcomes our new Chair, Dr.Daniel Pack, who joins <strong>ECE</strong> faculty in August<strong>2012</strong>, I invite you to check back on us moreoften as the Department will continue itsmomentum of growth <strong>and</strong> innovation in theyears to come.Ruyan Guo, Ph.D.Robert E. Clarke ProfessorInterim Department Chair(January 2010-August <strong>2012</strong>)| 1


<strong>ECE</strong> at a GlanceDepartment TimelinePhD ProgramEstablished: 2002Established: 2009Department of <strong>Electrical</strong> <strong>and</strong><strong>Computer</strong> Engineering (CurrentName): 20051984MS EE Established: 1998Department Funding DetailsMS Comp Eng. ProgramEstablished: 2005Interdisciplinary MS inMaterials EngineeringEstablished: <strong>2012</strong>Foundation/Other, 1.1 %Academic Degree ProgramsVPR (incl. CPS), 3.6 %Dept. Education, 3.6 %TX/SAAF, 3.6 %NASA, 3.0 %NSF 32.3 %Dept. Defense, 5.9 %NIH, 13.3 %Dept. Energy, 31.9%BS in <strong>Electrical</strong> EngineeringConcentrationsIndustry, 1.6 %Degrees AwardedFY 2011$3.65$2.93Student EnrollmentFY 2011<strong>Computer</strong> EngineeringCommunicationsElectric Power EngineeringFaculty DetailsFaculty Research Productivity (09-11)200 refereed journalpublications322 conference publicationswww.ece.utsa.edu


NSF CAREER Award Supercharges Wang’s EV ResearchThe National ScienceFoundation has awardedDr. Shuo Wang, AssistantProfessor of <strong>Electrical</strong>Engineering, the prestigiousFaculty Early CareerDevelopment (CAREER)Award (5-yr, $400k) to study “MegawattElectric Vehicle Superfast Charging Stationswith Enhanced Grid Support Functionalityas Energy Hubs.” With his research, Dr.Wang seeks to allow electric vehicles (EV)to compete with, <strong>and</strong> eventually replace,gasoline fueled cars by reducing chargingtime of EV to a few minutes rather thanthat of several hours, as with currenttechnology. He states that “current techniques<strong>and</strong> thus, he proposes to use high–powercharging techniques through the creation ofmultifunction charging stations in order toquickly charge electric vehicles <strong>and</strong> providegrid support simultaneously.To make this possible, his vision forelectric vehicle charging stations is tohave energy hubs integrated with energystorage, making them more functional thanconventional gas stations, in that they willserve as charging stations for EV, but inaddition, these hubs will have bidirectionalto store renewable energy such as solar<strong>and</strong> wind power <strong>and</strong> provide back-uppower to surrounding facilities. Dr. Wang’sdevelopment of this technology is crucialbecause, as he states, “the air pollution<strong>and</strong> greenhouse effects caused by gasolineis a very urgent issue; furthermore, thegasoline will be gone within 50 years, <strong>and</strong>more transportation will rely on electricity."Therefore, it is important that he notonly develop this technology, but createeducational components to teach studentsabout the importance <strong>and</strong> applicability ofthis project.Dr. Wang's education roadmapincludes a plan to develop high-powercourses for the students at UTSA <strong>and</strong> aneducation <strong>and</strong> training plan for high schoolstudents <strong>and</strong> high school teachers. Twopaid summer internships are being providedto high school students via the Texas Pre-Freshman Engineering Program (PREP) fortheir research skill training. At the end of theinternships, the students will report to NSFwhat they learned. Dr. Wang also works withSharon Sanchez <strong>and</strong> Alice Fiedler from theNorthside ISD on a training class for highof transportation in San Antonio. Dr. Wangworks closely with one Ph.D. student, YongbinChu, <strong>and</strong> one Master student, Russell Crosier,on the research. He plans to recruit two morePh.D. students this year.Additionally, Dr. Wang is collaboratingwith Julia Jones at CPS Energy <strong>and</strong> Joetransportation. Along with the NSF CAREERaward, Dr. Wang has two industry-sponsoredresearch projects ongoing. Dr. Wang alsohas a three-year research project with TheBoeing Company to develop advancedtechniques for aircrafts that will use electricbe used in the Boeing 787 Dreamliner, themost advanced state-of-the-art MEA.BidirectionalHigh Power EVCharging StationCentral Energy Storage Unit(CESU)Energy Flow in the Proposed Megawatt ElectricVehicle Super Fast Charging StationsDr. Liu AwardedNSF Grantao Liu, Assistant Professor of<strong>Electrical</strong> Engineering, hasreceived a three-year (2011-2014), $250,000 grant from theNational Science Foundation for hisresearch entitled, “SHF: Small: VLSIDesign Predictability Improvementby New Statistical Techniques in Timing Analysis,Delay ATPG <strong>and</strong> Optimization.” In the broadestscope, Dr. Liu’s research seeks to improve <strong>Electrical</strong>Design Automation (EDA) software to assisthardware designers with the creation of hardwarecomponents <strong>and</strong> design analysis.<strong>and</strong> viability concerns through increasing softwareproducts are in line with the original design,thereby increasing cost-effectiveness for <strong>Computer</strong>Aided Drafting (CAD) companies <strong>and</strong> designhouses. Using a statistical approach, Dr. Liu aimsto enhance prediction measurements of circuitperformance <strong>and</strong> solve prediction problems bygenerating more reliable test factors.<strong>ECE</strong> Hosts New InterdisciplinaryMaster’s Degree ProgramThe College of Engineering, Universityof Texas at San Antonio (UTSA), hasrecently established a new interdisciplinarygraduate degree program, Master ofScience in Advanced Materials Engineering.The new graduate degree program willbe administered across departmentalboundaires within the College ofEngineering, hosted by the Department of<strong>ECE</strong>.focuses on developing new materialswith novel properties that are needed toaddress the growing needs in our highlyadvanced <strong>and</strong> technological society. Thismultidisciplinary degree program will offerstudents courses in a variety of subjectareas designed to provide them withtechnical training in materials engineeringas well as training that will enhance theirproblem solving <strong>and</strong> entrepreneurship skills.Graduate students in the new programwill study the structure-property relationsof materials <strong>and</strong> how those materialsaffect our life <strong>and</strong> economy. Studentswho complete this program will have theknowledge <strong>and</strong> skills needed to design<strong>and</strong> apply new materials as sensors <strong>and</strong>actuators in energy, communications,transportation, health care, defense <strong>and</strong>environmental applications.W. Flannery (Management of Tech) areamong the MS in MatE committee members.Guo, as the Director of the program,is excited about its contribution to theuniversity, stating, “The MS in MatE is onecollege. Materials research is the enablingtechnology holding the key for our futuregrowth.”The online application for the new degreeprogram (M.S. in MatE) is open at http://ece.utsa.edu/programsgraduate/msadvancedmaterials.html| 3


Digital Data: Simultaneous Compression <strong>and</strong> EncryptionOver the past decade,the total amountof data stored in digitalformats, especially withrespect to text, image<strong>and</strong> video media, hasincreased rapidly.Combined with the trend of global digitalinformation sharing made possible by therise of omnipresent computer networks likethe Internet, it is likely that the growingtransfer solutions will continue to drivedevelopment of the digital infrastructurein the forseeable future. UTSA researchers,Sos Agaian, <strong>and</strong> his Ph.D. student,breakthrough in this development,<strong>and</strong> encryption technologies.Data compression compacts informationinto as few bits as possible,which allows expedienttransfer of informationwithin practical networklimitations. Data encryptionprivatizes data byrendering it incoherent toeavesdroppers not holdingthe proper encryptionkey. Traditionally, the twofundamental operationsof encryption <strong>and</strong> compression arecarried out sequentially, without regardfor one another. However, the ability tosimultaneously compress <strong>and</strong> encrypt in asingle operation is extremely attractive inthat it allows users to secure data better<strong>and</strong> transfer data quicker without requiringextra computational hardware.Consider the case of a user whowishes to send sensitive information overa network. To secure the data, the userof the many widely available encryptionencrypted they can be reliably sent overa communications network. During datatransfer, a transmission protocol stipulatesb<strong>and</strong>width utilization. However, the actof encryption removes any apparentredundancies within the original data <strong>and</strong>effectively conceals the same redundanciesa compression algorithm might exploit tocannot be compressed. An obvious solutionis to compress before encrypting; however,this is not a wholly practical solution asthere is usually a disconnect betweenthe user who desires to send informationsecurely, <strong>and</strong> the network manager whoTo address this problem, Agaian <strong>and</strong>Metzler have designed a system whichcompresses <strong>and</strong> encrypts digital data insystem achieves better compression ratesthan the best moderncompressors whileproviding security on parwith the best encryptionst<strong>and</strong>ards. Unlike any otheravailable technology, thisnewly-developed methodcan perform compression<strong>and</strong> encryption processesalone, in any order, orin t<strong>and</strong>em. It can alsooperate in “lossy” or “lossless” modes.Recently, UTSA has transferred Dr.Agaian’s technology to latakoo under aprovisional patent license. This agreementproperty generated by the UTSADepartment of <strong>Electrical</strong> <strong>and</strong> <strong>Computer</strong>Engineering.latakoo, a startup based in Austin,Texas, provides enterprise level onlinevideo delivery, storage, collaborationto integrate UTSA’s technology as anenhancement to their current services. Thelatakoo system aims to offer extreme, highqualitypost-compression of enormous HDmedia agencies to shoot on location <strong>and</strong>immediately upload the newly-captureddata. This pipelines the previous mediadelivery infrastructure, allowing transferof massive amounts of video data withinminutes instead of hours or days. latakooalso offers individual plans; mobileiPhone apps are available, <strong>and</strong> latakoo iscurrently developing an Android app.Metzler is also exploringother applicationsof the technology. Inthe past year he hasentered collaborationswith NortheasternWeierstrass Institute forGermany, <strong>and</strong> the Academy of Sciences inMoscow, Russia, where his <strong>and</strong> Dr. Agaian'smethods are utilized for automated,nonparametric change point detection <strong>and</strong>modeling of complex data processes.the University of Texas at San Antonio,where he earned his Master's in <strong>Electrical</strong>Engineering in 2010 <strong>and</strong> is now workingtowards his completion of a Doctoratein <strong>Electrical</strong> Engineering. Metzler is alsoSignal Processing Laboratory, as wellas SiViRT, the Center for Simulation,Visualization, <strong>and</strong> Real Time Prediction.Metzler is a Valero Research Scholaryear of his Ph.D. studies. He has receiveda National Science Foundation GrantScholarship for 3D Image Processing <strong>and</strong>an annual support from the SiViRT Centerfor his research. Currently, this projectis supported by an external researchgrant funded by latakoo for continueddevelopment of media technology.Austin-based startup, latakoo, is working to integrateDr. Agaian’s technology into its online collaborative video delivery,storage, collaboration <strong>and</strong> file trans-coding service.www.ece.utsa.edu


Training throughh<strong>and</strong>s-on Experience <strong>and</strong> Involvement in ResearchAssociate Professor David Akopian’sapproach to education is that h<strong>and</strong>sontraining is the best method to providestudents with necessary skills for careers aftergraduation. However, as he points out, thereare only so many full courses students cantake for their degree program, <strong>and</strong> time islimited. With this in mind, he has developedprojects that are incorporated in regular courses <strong>and</strong> that provideworkshop-like lab opportunitieswithin his Wireless Communications<strong>and</strong> Communication Systems courses.As part of a $200,000 NSF grantfor which he is PI, Dr. Akopian’s teamhas created several applications<strong>and</strong> provided learning modules inhis Wireless Communication course,which exposes students to mobile application development <strong>and</strong>provides basic h<strong>and</strong>s-on knowledge in this area. Dr. Akopiannotes that application development skills for mobile devices are inhigh dem<strong>and</strong> by the industry as it seeks to meet consumer needswith this rapidly growing technology. For this reason, Dr. Akopi<strong>and</strong>edicates three weeks of the course to template-based educationthat facilitates application development <strong>and</strong> exposes students tothis micro niche of communication technology. Yet Dr. Akopian doesnot limit this exposure strictly to his undergraduate students.As part of this program, his team visits middle <strong>and</strong> highschools to give demonstrations to students in the hopes ofencouraging K-12 students’ enrollment in engineering. As hestates, h<strong>and</strong>s-on experience helps “demystify engineering <strong>and</strong>allow students to decide if it is something they are interested in.”riscoe Distinguished Professor Mehdi Shadaram is the Directorof the Center for Excellence in Engineering Education (CE3),which provides a holisticapproach for improving thequality of engineering educationat the University of Texas at SanAntonio. The center strives toimprove the preparedness <strong>and</strong>marketability of the studentsin the College of Engineering(COE) for challenging <strong>and</strong>rewarding careers.To meet this goal, thecenter provides workshops inwriting <strong>and</strong> problem solving skills,resources for internship opportunities, tutoring <strong>and</strong> gate keepercourses, FE exam preparation, <strong>and</strong> career advising. The centeralso facilitates sequential internships in local industries as partof student development. Through this program, the center hopesto improve retention <strong>and</strong> graduation rates in the COE, leadDr. Akopian’s involvement with younger students helps to ensuretheir awareness of emerging technology <strong>and</strong> motivation to pursuecareers in <strong>ECE</strong>.Another course, Communications Systems, is being redesignedto incorporate radio-communication lab modules as well. Trainingmodules are acquired <strong>and</strong> have been offered in h<strong>and</strong>s-on <strong>and</strong>remote settings.In addition, Dr. Akopian enhances h<strong>and</strong>s-on learning effortusing a part of a $125,000-“H<strong>and</strong>s-on experience helps ‘demystify’engineering <strong>and</strong> allow students to decide ifit is something they are interested in.”— Akopian said.CE 3 at UTSAProfessor Shadaram conducts orientation for students partcipatingin summer engineering camp$250,000/year Navy grant“Naval Engineering EducationCenter,” (NEEC) a projecton which he collaborateswith mechanical engineer<strong>and</strong> Associate Professor,workshops, electrical engineers enrolled in communication <strong>and</strong>navigation related courses are introduced to structural <strong>and</strong>instrumentation aspects, while mechanical engineering studentsare exposed to wireless systems that can be used in their designs.Selected students are also involved in h<strong>and</strong>s-on advancedresearch working under the guidance of more experiencedpeers. To meet these goals during summer <strong>2012</strong>, a set of radiocommunication<strong>and</strong> navigation labs, which are tailored for Navyinterests, are being designed.The NEEC introduces students to skills <strong>and</strong> technology<strong>and</strong> provides them with information on various engagementopportunities with the Navy, should they choose to pursue them,while simultaneously introducing the Navy to a pool of studentswell-suited to meet the institution’s goals.research on teaching <strong>and</strong> learning in engineering disciplines<strong>and</strong> disseminate the results, provide education support for thescience <strong>and</strong> math teachers <strong>and</strong> students forgrades K-12, <strong>and</strong> increase external funding foreducation activities in engineering.Engineeringstudents who take part in this programmentoring opportunities as well as assistancein identifying <strong>and</strong> applying for off-campussummer research opportunities. They also canhire UTSA engineering students. New facultyprofessional development support <strong>and</strong> supportfor curriculum development <strong>and</strong> revision alongwith assistance for faculty involvement in educational research.The center also provides workshops on student learning outcomes,assessment <strong>and</strong> accreditation. >>>Further information on CE 3can be found at http://engineering.utsa.edu/ceee/index.php| 5


Dr. Jamshidi Receives Globalization AwardDr. Jamshidi with Dean Agrawal after receivingthe <strong>2012</strong> President’s Distinguished Achievementfor Advancing Globalization AwardT Chair Professor of <strong>Electrical</strong> <strong>and</strong> <strong>Computer</strong> Engineering,was awarded the <strong>2012</strong> President’s Distinguished AchievementAward for Advancing Globalization by Dr. Ricardo Romo, inrecognition of Dr. Jamshidi’s involvement in the global arena<strong>and</strong> development of links with global institutions.Since joining UTSA in 2006, Dr. Jamshidi has promotedexp<strong>and</strong>ed UTSA’s prominence abroadRecently, Dr. Jamshidichaired the World Automation Congress (WAC) in PuertoVallarta, Mexico. WAC <strong>2012</strong> was themed “Green Energy fora Green Environment” <strong>and</strong> was dedicated to Dr. Mario Molina,winner of the 1995 Nobel Prize in Chemistry. Speakers from allover the world attended, representing 15 countries, includingAustralia, Mexico, Italy, Japan, Germany, Hungary, Greece,Spain, Portugal, <strong>and</strong> Canada, among others.At the event, Dr. Jamshidi presented Dr. Molina with theWAC Dedication Award for his work on climate change <strong>and</strong>involvement with the Congress. Dr. Jamshidi also invited Dr.Molina to speak about global warming <strong>and</strong> climate changeat UTSA in January 2013 <strong>and</strong> is creating an endowmentfor UTSA <strong>ECE</strong> <strong>and</strong> chemistry students on behalf of Dr.UTSA’s scholarship fund. Dr. Jamshidi also attended the IEEEInternational Conference on Systems of Systems Engineering(SoSE) <strong>2012</strong>, of which he is the founding chair, in Genoa,Italy. The theme of the Conference was “cooperative <strong>and</strong>competitive distributed decision making for complex dynamicsystems.” Dr. Jamshidi presented his keynote speech entitled,“Distributed Renewable Energy Systems: System of SystemsMo Jamshidi with fellow panelist from European Union nations from UK<strong>and</strong> Germany at the recent <strong>2012</strong> INCOSE Symposium in Rome, Italy. Mopresented the progress of T-AREA-SoS European Commission grant onof EC, Dr, Alkis KonstantellosrepresentedUTSA’sAutonomousControlEngineering.In additionto theseinternationalconferences,Dr. Jamshidiis responsiblefor UTSA’spartnership withLoughborough,Purdue Universityfor the Trans-Dr. Jamshidi presents Dr. Mario Molina withthe World Automation Congress DedicationAwardAtlantic Research <strong>and</strong> Education Agenda on Systems of Systems(T-AREA-SoS), a 24-month, € 500,000 project that seeks toanalyze international research agendas to prepare concretejoint research <strong>and</strong> development initiatives for internationalcollaboration. According to the project’s website, “it is a basicpremise of this proposal that SoS engineering includes...the consideration of societal needs <strong>and</strong> issues within theThis initiative therefore seeks to help the USA partner with theglobal community in order to improve the societal impact of thedevelopment <strong>and</strong> management of large complex systems in arange of sectors.For questions about any of these conferences or projects, or to access Dr.Jamshidi’s textbooks <strong>and</strong> some of his journals online, please visit http://wacong.org/freepublicationsbymojamshidi/ or contact Mo Jamshidi atmoj@wacong.org.This award is to recognize, encourage, <strong>and</strong> reward those individualswho through their efforts significantly exp<strong>and</strong>ed UTSA’sinvolvement in the global arena. -UTSA President, Ricardo Romowww.ece.utsa.edu


Powering the Future: Solar Power, SmartGrids <strong>and</strong> Cyber SecurityThe solar test bed at the Main Campus of UTSAProfessorsKelley, MoJamshidi, HariKrishnaswami,<strong>and</strong> RamKrishnanhave beencollaboratingon University ofTexas at SanAntonio’s solarpanel systemsince 2010,recently seeing it to completion in Spring <strong>2012</strong>. After receivinggrants from multiple sources, including the Texas SustainableEnergy Research Institute, CPS Energy, the Department of Energycomponents of the grid both at the main campus <strong>and</strong> at thedowntown campus, these researchers have installed 170 kw DCof solar power, which is integrated into UTSA’s main power grid.sustainable power to the university <strong>and</strong> generates an estimatedenergy savings of $65-80k per year, in addition to reducingthe university’s carbon emission by 695,000 pounds per year.is that it providesthese researchersa local test-bedto study <strong>and</strong>analyze real-timephotovoltaic (PV)power information.Using areal-time wirelesssensor network thatmeasures more than800 data signalsA temperature monitor is part of the new solar powersystem at the University of Texas at San Antonio.Photo: Jerry Lara, San Antonio Express-Newsper second <strong>and</strong>can communicateto advancedmeters <strong>and</strong> dataloggers at the point of interconnection allows the team to detectstatistical prediction of future power output <strong>and</strong> store power inenergy storage devices for up to 10 years. The solar test bedenables these researchers to investigate new generations of smartgrid functionalities, such as voltage regulation <strong>and</strong> dynamic realpower <strong>and</strong> reactive power control via wireless network control.As Dr. Krishnaswami explains, “The power output of a PVsystem is inherently variable <strong>and</strong> creates system instability. Thesources of variability come from many different uncorrelated<strong>and</strong> uncertain factors such as solar radiation measures, weatherpatterns, temperatures, air quality <strong>and</strong> geographical separation.A calculation of the system’s output variability on any spatial <strong>and</strong>temporal resolution <strong>and</strong> would provide utility system planners <strong>and</strong>operators better data to reliably operate the grid.”Moving forward, Dr. Kelley, lead PI, will focus on thesolar microgrids, smart grid system optimization, smart gridinfrastructure on cloud data centers enabling communication,information mining, <strong>and</strong> wireless sensor networks for monitoring<strong>and</strong> control.Dr. Hari Krishnaswami’s focus will be monitoring the controlaspects of the grid, such as energy storage <strong>and</strong> solar forecasting,under high solar penetration in order to be able to effectivelyintegrate this technology into the main power grid. He has alsoobtained a grant from the University of Minnesota for $25,000<strong>and</strong> from UTSA for $12,500 to create a teaching lab that hasenabled the department to create a new program concentrationin <strong>Electrical</strong> Power Engineering, beginning Fall <strong>2012</strong>.Dr. Jamshidi’s focus is on the main campus solar grid,ensuring a distributed <strong>and</strong> secure smart grid. He analyzes how tomake control elements for better home <strong>and</strong> building management.Dr. Krishnan focuses on the cyber security aspects ofAdvanced Metering Infrastructure using wireless <strong>and</strong> semi-wirelesssmart grid information <strong>and</strong> transmission. Development in this areawill result in energy users having the ability to remotely view <strong>and</strong>adjust consumption needs on a daily basis, <strong>and</strong> it will give energyproviders the ability to connect <strong>and</strong> disconnect power remotelyrather than manually, as those needs arise, thus increasing bothRemote solar test bed metersPhoto: Ram Krishnan| 7


Multifunctional Materials Research Goes GlobalThe National Science Foundation has awardedof <strong>Electrical</strong> Engineering, $975,000 in funding toestablish the International Network for Advanced <strong>and</strong>Multifunctional Materials (INAMM), a global networkof materials researchers who will work together toINAMM consists of Virginia Tech <strong>and</strong> several universities fromcountries around the world including India, China, Japan, Korea,The researchers from these universities communicate viaRemote Labs, where they share research samples, conductingexperiment at UTSA laboratories (or at other advanced labs) inreal time controlled <strong>and</strong> monitored through cyber connections. Theremote laboratory experiments were successfully tested with thecollaborating research team in this program at Virginia Tech <strong>and</strong>lead by Professor Shashank Priya. They also meet at symposiumsinternational symposium of INAMM was held in 2010 at UTSA, lastAbout 100 students <strong>and</strong> faculty from various partners group inthe program were present at these symposia, <strong>and</strong> the <strong>ECE</strong> faculty’son the international map as a leading institute in the multifunctionalwww.ece.utsa.eduAlthough the Network’s researchers will collaborate in avariety of projects, a prominent focus will be to develop <strong>and</strong>miniaturize sensors for electronics devices that can be integratedinto high-tech chips <strong>and</strong> devices, biomedical sensors for diagnostics<strong>and</strong> monitoring, <strong>and</strong> structural sensors for airplanes <strong>and</strong> helicopters.As the name, multifunctional materials suggests, the emphasisis for these sensors to perform multiple operations simultaneously,such as temperature, pressure, electric <strong>and</strong> magnetic sensory. Theprimary goal is to accomplish this while ensuring the sensors remainas physically minute as possible.Another prime topic of research discussed at the internationalsymposiums is that of multiferroic materials, which respond to“This is a very important branch of materials research for futureunderst<strong>and</strong>ing of human behavior <strong>and</strong> psychology.” Multiferroicmaterials research deals with how human sense stimuli <strong>and</strong> respondwith instinctive action. A more informed underst<strong>and</strong>ing of thisprocess will ideally lead to improved hearing aids, vision, sensors ofsmell <strong>and</strong> taste, <strong>and</strong> prosthetics.The multifunctional materials research <strong>and</strong> the internationalGuo (Co-PI), supported by faculty members in related researchareas from the College of Engineering, College of Sciences, <strong>and</strong>Taming Piezoelectric ResonanceFaculty <strong>and</strong> graduate students in the Electronic Materials <strong>and</strong>Devices area have been developing a new class of microwavephotonic devices that can be engineered into having largeSuch devices, according to Dr. Guo, Robert E. Clarke Professorof <strong>Electrical</strong> Engineering, are still in the early stage—combiningfundamental underst<strong>and</strong>ings with engineering designs—but havegreat potential to bring novel functionality in applications such asinterconnection, routing, <strong>and</strong> switching in a high-speed, low-powermicrowave-optical sensing or processing networks.Supported by a National Science Foundation grant, Dr.made important progress. Robert McIntosh, PhD EE doctoralan interdisciplinary research are like. "I have to learn optics,materials science, numerical simulation, <strong>and</strong> of course the electricalengineering-relatedwaveguides <strong>and</strong> the instrumentations," Robsaid, "but it is really fascinating at the same time knowing theresearch I do is cutting edge." Rob has already published threepapers on this topic with several other manuscripts in preparation.The secret of the advanced device is based on thepiezoelectric effects—especially the salient properties nearpiezoelectric resonances. Through proper alignment of electricdipoles or ferroelectric domains, Dr. Guo <strong>and</strong> her team are able totransduct low-frequency piezoelectric resonance to high-frequencyelectrooptic enhancement. The resonance process can make a weakEM signal that is otherwise undetectable by the best commercialdevices "visible" for sensing or control. In other words, the wireless<strong>and</strong> optical systems can be then interconnected seamlessly whenthey are “synchronized” at given frequencies.Dr. Guo explains, "These devices <strong>and</strong> systems may provide theinterface between the analog world <strong>and</strong> the digital world withoutcomplex electrical-optical-electrical conversion or interruption to theoptical link. Such devices also hold great potential to be used forremote sensing where optical monitoring <strong>and</strong> microwave controllingare essential."expertise in piezoelectric <strong>and</strong> ferroelectric materials throughunderst<strong>and</strong>ing on resonance phenomena in piezoelectrics can beat high frequencies. For medical images, the operational frequencyoften determines the resolution of the imaging that is the key forearly diagnoses of diseases. Additionally, since the piezoelectricresonance process can be controlled electrically or mechanically,the electromechanical coupling can be tuned dynamically. "As if wecan alter the object's visibility in real time,” Dr. Guo says, borrowingthe concept of a magic "cloak,” "by controlling the mode <strong>and</strong>frequency of the piezoelectric vibrations."Recently, Dr. Guo receiveda grant from the Department ofDefense to conduct research onHigh Performance Sensors <strong>and</strong>Modulators,permitting quantitativestudy of the resonance processin 3D. The DoD grant is acollaborative project of Dr. GuoMichael Miller, Institute Scientist ofSouthwest Research Institute.Rob McIntosh, Ph.D. EE c<strong>and</strong>idate,conducting microwave photonicexperiments


Last year, the NSF awarded nearly $360,000 toEngineering, to make the UTSA Department of<strong>Electrical</strong> <strong>and</strong> <strong>Computer</strong> Engineering a ResearchExperience for Undergraduates (REU) site forthree years. Since the program’s inception in 2011,roughly 25 students from universities nationwide haveapplied for 10 positions each year. After completingthe interview process, the chosen students, either in <strong>Computer</strong>undergraduate summer research program in Microprocessordesign, in which they learn basic knowledge <strong>and</strong> research topicsfor three weeks before being matched with an advisor in thestudents’ respective choice of area of study. At the end of theprogram, the students give research presentations, some of whichhave since been published in peer-reviewed conferences.The purpose of the REU program, which is entitled ESCAPE(Experimental Study on <strong>Computer</strong> Architecture <strong>and</strong> PerformanceEvaluation), is to give undergraduate students an opportunityto develop skills that will aid them in graduate school, allowingmany to have research <strong>and</strong> publication experience, thus makingthem highly competitive students capable of strong academicperformance. The selected students receive a stipend of $5,000for 10 weeks, transportation reimbursement, housing, lab space,<strong>and</strong> close personal instruction with Dr. Lee, who is the PrincipalInvestigator, Dr. Eugene John, who is the co-Principal Investigator,<strong>2012</strong> ESCAPEr from Columbia University, Sabina Smajlaj,says of the experience, “I learned more in two to three weeks thanin a whole semester of intro classes.” And UTSA student, Fabianhas shown me the way to accomplish my goals, has improved myjudgment in making decisions <strong>and</strong> it has nourished my desire toprogress of program participants, still working closely with twowho have joined his lab, <strong>and</strong> he expects many will pursue higherdegrees upon graduation. For more information, visit http://www.ece.utsa.edu/~escape/ or contact Dr. Lee at byeong.lee@utsa.eduComputational Systems BiologyResearchersYufeiHuang, Dr. YufangJin <strong>and</strong> Dr. JianqiuZhang are workingin the area ofapplying statistical <strong>and</strong> mathematical models <strong>and</strong> control theoryto investigate temporal <strong>and</strong> physiological dynamics of biologicalsystems at multiple scales including proteins <strong>and</strong> genes.Such a systems approach enables these researchersto identify markers that improve underst<strong>and</strong>ing of diseasemechanisms, in order to enable diagnosis <strong>and</strong> drug targets foreffective therapy <strong>and</strong> prevention. While many existing models<strong>and</strong> computational approaches have already been provensuccessful in this research, Drs. Huang, Jin <strong>and</strong> Zhang particularlyfocus on addressing new computational challenges associatedwith high dimensionality <strong>and</strong> heterogeneity of ever-growing dataproduced by state-of-art high throughput biomedical technologies,including next-generation sequencing, microarray <strong>and</strong> proteomics.Therefore, focus on underst<strong>and</strong>ing how mutation <strong>and</strong>perturbation alter networks of genes <strong>and</strong> proteins is especiallyimportant, <strong>and</strong> Dr. Jin’s specialization for this project is to assessthe proteomics information so as to be able to identify “markergenes” from the nucleotide sequencing by creating computermodels that effectively dissect this information.Dr. Zhang develops algorithms to measure proteindifferential expressions between diseased <strong>and</strong> normal statesof cells using mass spectrometry. Proper interference <strong>and</strong> noiseremoval based on statistical signal processing methods leads toled efforts in updating all critical steps of mass spectrometryexpression analysis. These developed algorithms have beenapplied in the research of Kaposi’s sarcoma-associated herpesvirus (KSHV) <strong>and</strong> in assessing the regulation of the microRNAprotein by the genes. Dr. Zhang is currently collaborating withscientists in biology to measure the change in proteins <strong>and</strong>evaluate which genes are repressed by the virus. Dr. Zhang isCore of the Research Institute for Minority Institutions (RCMI)program at UTSA to develop software that is highly parallelizedfor high-throughput computing.Dr. Huang is studying gene <strong>and</strong> microRNA regulationsusing statistical tools. As he explains, one goal of this researchis to better underst<strong>and</strong> the host-pathogen gene regulatorymechanism that controls the latency <strong>and</strong> lytic stages during theinfection by Kaposi’s sarcoma-associated herpes virus (KSHV).This underst<strong>and</strong>ing will improve researchers’ knowledge aboutthis research, Dr. Huang hopes to discover a transformationalbreakthrough in KSHV biology research in order to eventuallylead to the development of more effective pharmaceuticals toprevent <strong>and</strong> combat KSHV induced oncogenesis.Dr. Huang is also looking at developing statistical models foridentifying prognostic markers in cancer patients by integratingdata at multiple levels, including gene expression microRNA, DNAmethylation, mutation, etc. Using data obtained from hundredsof cancer patients, his research assesses molecular differences intumor cells in comparison with normal cells to identify genes <strong>and</strong>uses statistical models to assess the ability of these differences topredict patients survive <strong>and</strong> respond to treatment.| 9


www.ece.utsa.eduStudent SpotlightClara Mosquera Lopez2010, respectively. She began her doctoral program in the Department of <strong>Electrical</strong> <strong>and</strong> <strong>Computer</strong> Engineeringat UTSA in Fall 2011. Clara is currently working under the direction of Dr. Sos Agaian, <strong>and</strong> her research interestsinclude a broad spectrum of topics in Signals <strong>and</strong> Systems <strong>and</strong> machine learning. At this moment, her research isfocused on the development of automatic systems for cancer pattern recognition.Why UTSA?“My decision to pursue doctorate in <strong>Electrical</strong> Engineering at UTSA was based on the availability of excellentinterest. I was attracted by the cancer research conducted by Dr. Sos Agaian <strong>and</strong> I wanted to be part of a teamdeveloping applied technology to improve cancer diagnosis <strong>and</strong> patient treatment selection.”ResearchCurrently, Clara works on the development of image processing algorithms for quantitative analysis of biomedical images. The maingoal of her project is to create a <strong>Computer</strong> Aided Diagnosis (CAD) system to assist pathologists in cancer grading from detectedregions of interest based on histopathology images. To this end, she is investigating which are the most representative featuresProstate Cancer Gleason Grading” (<strong>2012</strong>) <strong>and</strong> “A new set of wavelet- <strong>and</strong> fractals- based features for Gleason grading of Prostatecancer in histophathology images” (2013).Keith G. Delahoussaye Jr. receivedEngineering with a concentrationin electronic materials <strong>and</strong> devicesdegree plan in spring of 2007. Hehas been admitted to the newlyestablished Master of Science Programin Advanced Materials Engineering,UTSA. He is the father of six children: three girls <strong>and</strong> threeboys. He has been a member of the Air Force Reserve forapproximately 14 years <strong>and</strong> has worked for the Air ForceReserve full-time for approximately 9 years in the capacityas an Air Reserve Technician. His specialty is avionics.Why UTSA?I chose UTSA for my undergraduate program because it is awell-established program with very good research programsas well. In my time here, I have had the privilege of beingtaught, molded, <strong>and</strong> mentored by top-notch faculty.” Keithhas been doing research in Dr. Guo’s Multifunctional ElectronicMaterials <strong>and</strong> Devices Laboratory for a little over a year.conference in San Antonio: “Comparative Study of theFunctionality <strong>and</strong> Cost Effectiveness of Electronic LaboratoryVirtual Instrumentations” Keith co-authored with Lars Hansen<strong>and</strong> Ruyan Guo (119th ASEE Annual Conference <strong>2012</strong>). “It isbecause of my undergraduate experience that I chose UTSAfor my graduate degree path as well.”ResearchKeith’s MS research focuses on studying piezoelectric velocityresponse as functions of driving frequencies of the electricinteferometry. “It is pretty cool”, Keith says, “to extract signalsthat are due to sub-nanometer breath (change of strains)surrounding electrical <strong>and</strong> mechanical noises many ordershigher in amplitude.” Keith’s work is supported by researchgrants sponsored by Department of Defense.r<strong>and</strong>y Alger was born at Ellsworth Air Forcein Fall of 2006 <strong>and</strong> graduated Magna Cumin May 2011. During that time, she was thepresident of the UTSA chapter of the Society ofWomen Engineers as well as a member of IEEE<strong>and</strong> the electrical engineering honor society,been pursuing her M.S. in <strong>Electrical</strong> Engineering,working with Dr. Chunjiang Qian in the area of control systems.Coordinator for Engineering Outreach where she educates highschool students from all over the state of Texas about STEM <strong>and</strong> STEMWhy UTSA?“The moment I set foot at UTSA for orientation, I knew I would loveit. I love the diversity, the atmosphere, the people, <strong>and</strong> most of all,for a class <strong>and</strong> the professors were always willing to help. I neverhad to pay for my undergraduate degree thanks to the numerousscholarships available to engineering <strong>and</strong> minority students. UTSAEngineering also has the best community of students <strong>and</strong> I never had aso many opportunities to give back to the community, there is never areason to be bored.“Researchher Freshman year in 2006. She says, “ I began doing work in<strong>and</strong> tracking the movement <strong>and</strong> tracking objects in the sky <strong>and</strong>undergraduate.” As a graduate student, Alger has been trying tocontrol system to design an optimal non-linear control. She adds, “Dr.CJ really challenges me to grow <strong>and</strong> always expects quality work. Iwould like to thank him for this because I do not think I would bewhere I am without his support, guidance, <strong>and</strong> determination to seeme succeed.”


Outst<strong>and</strong>ing Graduate Research Award --AwardeesNguyen Trankhoi Nguyen (M.S. EE, UTSA, May 2011)Jia Meng (Ph.D. EE, UTSA, May 2011)Ali Yatim Almintashri (Ph.D. EE, UTSA, Fall 2011)Accomplished AlumniUTSA alumnus, Jeff Clarke serves as vice chairman <strong>and</strong>president of Dell’s Global Operation <strong>and</strong> End UserComputing Solutions. He is responsible for global manufacturing,procurement, <strong>and</strong> supply chain activities worldwide, as well asthe engineering design <strong>and</strong> development of computer desktops,notebooks <strong>and</strong> workstations for customers ranging from consumers<strong>and</strong> small <strong>and</strong> medium businesses to large corporations.After graduating from UTSA in 1986 with a bachelor’s<strong>and</strong> product engineer at Motorola, Inc., before joining Dell in1987 as a quality engineer. At Dell, he has served in a varietyof engineering <strong>and</strong> management roles. He moved into productdevelopment in 1989 <strong>and</strong> was promoted to director of desktopdevelopment in 1995.In 1997, Jeff was responsible for launching the Dell PrecisionWorkstation product line. Subsequently, Jeff was vice president<strong>and</strong> general manager, Relationship Product Group, includingthe OptiPlex, Latitude <strong>and</strong> Precision lines of business. Under hisleadership, all three businesses achieved No. 1 worldwide sharepositions.Jeff gives back to his alma mater as a member of theCollege of Engineering Advisory Council <strong>and</strong> through the creationof distinguished professorships. Ruyan Guo, <strong>ECE</strong> DepartmentInterim Chair <strong>and</strong> Professor, is the current holder of the RobertE. Clarke, Jr. Endowed professorship. Jeff <strong>and</strong> Loretta recentlydonated $1million to established two more professorships. Onewill be in the College of Engineering, named after Jeff’s mother,Mary Lou Clarke.The entire Clarke family are Roadrunners at heart. From leftto right: Mauli Agrawal, Sue Agrawal, Loretta Clarke <strong>and</strong>| 11


Chris Lewis, BS EE 2011, IntelSometimes, things don’t go according to plan,but according to Chris Lewis, the choice hemade when his plans didn’t align, “turned out tobe a great decision that I st<strong>and</strong> by today.” Lewisbegan at UTSA in Fall 2007 as a CoordinatedAdmissions Program student with his eyes set onUT Austin. He did not choose a major <strong>and</strong> tookbasic courses during his beginning semesters. Aftercompleting the program, he was only guaranteedadmission into the College of Sciences at UT Austin,<strong>and</strong>, therefore, decided to pursue a degree in<strong>Electrical</strong> Engineering at UTSA. He joined IEEEwhile at UTSA <strong>and</strong> was involved with manyother extracurricular activities sponsored by theuniversity, which gave him valuable knowledge thathe now uses in his position at Intel.Lewis currently works on the Windowsoperating system within the System SoftwareSolutions group at Intel. He works directly withMicrosoft to ensure that Intel delivers the besthardware <strong>and</strong> software for the Windows OS. Lewissays this role is, “Interesting <strong>and</strong> exciting becauseI get to work with nearly all of Intel’s hardware<strong>and</strong> get a lot of h<strong>and</strong>s-on experience with manyplatforms. My team also works with many otherteams at Intel, so we are given the opportunityto work on several very interesting projects frommobile platforms like cell phones <strong>and</strong> tablets tolarger server scale platforms.”Lewis is very happy in his current role, butsays in the future he may consider a master’s incomputer science or computer engineering, in orderto grow further in a professional environment. Hisadvice to undergraduates is to seek internships<strong>and</strong> co-ops early, <strong>and</strong> not limit their options bywhere they currently are in their program. Hestates, “getting a foot in the door early helpstremendously with securing a full-time position inthe future.”Kevin Messenhimer (left) <strong>and</strong> Chris Lewis (right) at IntelKevin Messenhimer, BS EE 2011, IntelAs a UTSA freshman <strong>Electrical</strong> Engineering major, Kevinto join IEEE. This proved to be an important decision as he worked hisin IEEE allowed him to attend conferences, meetings, <strong>and</strong> network eventsthat helped him develop the professionalism he maintains to this day inhis career at Intel. In fact, it was a conference for IEEE that allowed him tomeet a contact at Intel, who offered him an internship for the summer ofhis junior year at Washington State.There, he worked as a product development engineer, training forhis current role. Messenhimer states, “Interning allowed me to use my socialnetworking skills I learned from UTSA <strong>and</strong> blend in with the Intel cultureperfectly. My manager was impressed with my technical, professional, <strong>and</strong>networking background, <strong>and</strong> offered me a job at the end of the summer.”In June 2011, he began at Intel as a Product Development Engineer, <strong>and</strong>he was also able to bring several UTSA contacts aboard, including ChrisLewis <strong>and</strong> Chris Weldon.Messenhimer’s future goals are to become more involved with thelearning. Why stop? Learning is not only fun, it creates opportunity towork on better, more interesting projects,” he says. Messenhimer hopes tobecome an Intel Fellow in the future or possibly obtain a Ph.D.Having been educated in <strong>Electrical</strong> Engineering from UTSA gave Weldon, Lewis<strong>and</strong> Messenhimer the solid foundation needed to be successful Intel Engineers.www.ece.utsa.edu


Chris Weldon, an <strong>Electrical</strong>Engineering student with a computersconcentration, was active in IEEE <strong>and</strong>participated in the organization’s Roboticsteam. He also volunteered in UTSA’sAutonomous Control Engineering (ACE)lab, where he says, “I learned much fromsome really fascinating people.”In addition to involvement with thedepartment’s organizations, Weldonjoined Student Government, serving as aSenator for the College of Engineering inhis senior year <strong>and</strong> subsequently chairingthe Academic Affairs Committee. Hewas also invited to serve as a studentrepresentative in the University Assemblyon behalf of the College of Engineering.However, he says the best experience hehad in college was working on his SeniorDesign project with his team.Now at Intel, performing Post-SiliconServer Validation, he designs <strong>and</strong> runstests on post-manufacturing processors,debugging the processors if necessary.Chris Weldon, BS EE, IntelThe most enjoyable aspect of hisjob, he states, “is working on the nextgeneration of server processors beforethey ever reach the market. I am ablecomputing technology year after year,with it.” His current projects include theIntel Xeon Server <strong>and</strong> Xeon Phi Co-Processors.Having been educated in <strong>Electrical</strong>Engineering from UTSA gave Weldon thesolid foundation needed to be a successfulIntel Engineer, <strong>and</strong> he also attributeshis accomplishments to his technicalsecurity experience from his internship<strong>and</strong> the well-rounded interpersonal <strong>and</strong>leadership experience he gained throughextracurricular activities.Says Weldon, “It’s one thing to beone of the smartest individuals out there,it’s another to be a smart individual<strong>and</strong> have the ability to work well ona team. Courses such as Senior Designgave me every opportunity to developthese capabilities. I cannot stress enoughhow important it is to know how to workwith other people <strong>and</strong> express yourselfeffectively.”Kevin Messenhimer (left) <strong>and</strong> Chris Weldon (right)at IntelGerardo Trevino, MS EE 2011, Southwest Research InstituteGerardo Trevino during a summer internshipat National Renewable Energy LaboratoryGerardo Trevinois originally fromMonterrey, Mexico. Hemoved to San Antonioto pursue a degree in<strong>Electrical</strong> Engineeringfrom UTSA, graduating<strong>and</strong> his M.S. in 2011.While still studying as an undergrad, he was invited to be partof the Autonomous Control Engineering (ACE) laboratory byDr. Mo Jamshidi. During this time in the lab, he worked closelywith professors <strong>and</strong> staff at the new Texas Sustainable EnergyResearch Institute to develop two grant proposals, which wereawarded close to $2 million dollars, to install solar photovoltaic(PV) at UTSA. He also received awards including the LatinoLeaders Magazine “Maestro Award for Innovation” for his work<strong>and</strong> involvement in the energy area, in addition to a GreenEngineering Grant from National Instruments (NI) to help in thesolar PV projects at UTSA.As a graduate student, he was hired by Southwest ResearchInstitute (SwRI) to intern, working on Smart Grid components.In Summer 2011, he was invited to be part of the ResearchParticipant Program (RPP) at the National Renewable EnergyLaboratory (NREL) <strong>and</strong> spent the Summer in Colorado to developa smart –charging controller for Electric Vehicles, using NIsoftware <strong>and</strong> hardware. This opportunity, he says, “also allowedPV systems at UTSA.”After completing his Master’s in December 2011, Mr. Trevinoreceived an offer to become part of the Security <strong>and</strong> EnergySystems team at SwRI as an <strong>Electrical</strong> Engineer. In this currentposition, he works on a number of existing projects that analyzethe security vulnerabilities <strong>and</strong> st<strong>and</strong>ards of Advanced MeteringInfrastructure (AMI) <strong>and</strong> Smart Grid devices for a number ofclients. He is also involved in work related to optimization ofpower system infrastructure for utilities clients <strong>and</strong> continues tocollaborate with UTSA, developing proposals <strong>and</strong> other projects.His future goals are to continue to develop his skills <strong>and</strong>participate in energy-related projects to help our society becomeenergy independent. Mr. Trevino is also interested in giving backby teaching at the undergraduate level <strong>and</strong> using his experienceto give students the tools they need to be successful.| 13


<strong>ECE</strong> Faculty DirectoryAGAIAN, SOSPeter Flawn ProfessorSignal& <strong>Computer</strong> Vision, Cancer Imaging, Biometrics,Multimedia Security & Privacy Systems, Biomedical &Health Informatics, Sensor/Mobile Network Systemssos.agaian@utsa.eduHUDSON, FREDAssociate ProfessorC++ & Data Structures, Microcomputer Systems,<strong>Computer</strong> Graphics Hardware <strong>and</strong> Software Parallelism,Visualization Techniques, Information Science,Optimization & Forecastingfred.hudson@utsa.eduKRISHNAN, RAMAssistant Professor<strong>Computer</strong> & Network Security, Data Structure,C/C++ Programming, <strong>Computer</strong> Networking,Secure Information Sharing, Cloud Computing, SmartGrid Securityram.krishnan@utsa.eduAKOPIAN, DAVIDAssociate ProfessorFast Algorithms, Positioning & NavigationAlgorithms, GPS, Galileo, Kalman Filtering, CDMAAcquisition Techniques, Digital Signal & ImageProcessing for Communications, Dedicated Hardware-Oriented Algorithms, Parallel Calculations &Architectures, Transforms, Filerbanks, Wavelet Theorydavid.akopian@utsa.eduBHALLA, AMARDistinguished Research Professor,Associate Dean of ResearchNonlinear Ferroic Tunable Sensors, MultifunctionalMaterials & Applications, Nanomaterials &Nanotechnologyamar.bhalla@utsa.eduGRIGORYAN, ARTYOMAssociate ProfessorSignal & Image Processing/Programming, AppliedMathematics, Network Theory, Signals <strong>and</strong> Systems,Biomedical Image Processing, Digital ImageProcessingartyom.grigoryan@utsa.eduGUO, RUYANRobert E. Clarke Endowed ProfessorElectronic & Optoelectronic Materials & Devices;Ferroelectric, Piezoelectric & Pyroelectric Oxides;Crystal Chemistry & Structure-Composition-PropertyRelationshipsruyan.guo@utsa.eduHUANG, YUFEIAssociate ProfessorBayesian Methods, StatisticalSignal Processing, Array Processing, FrequencyEstimation, Parameter Estimation, Image Processing,Model Sectionyufei.huang@utsa.eduwww.ece.utsa.eduJAMSHIDI, MOLutcher Brown Endowed Chair ProfessorLarge-Scale Systems, System of Systems,Computational Intelligence, Mobile Robotics, IntelligentRoboticsmo.jamshidi@utsa.eduJIN, YUFANGAssociate ProfessorAnalysis & Design of Control Systems, EmbeddedControl Systems, Embedded Controls for MobileRobotics, Adaptive Control Systems, Advanced MobileRoboticsyufang.jin@utsa.eduJOHN, EUGENEProfessorLow-Power Circuits & Systems, VLSI Design, PowerEstimation & Optimization, Multimedia & NetworkProcessors, <strong>Computer</strong> Architecture, PerformanceEvaluation, Biometrics, Super Scalar Processor Designeugene.john@utsa.eduJOO, YOUNGJOONGAssociate ProfessorCMOS image sensors, Analog & Mixed-SignalIntegrated Circuits, Advanced Integrated Circuits,RFID, Smart Sensor Systems, Microelectronicsyoungjoong.joo@utsa.eduKELLEY, BRIANAssistant Professor4G Cellular Communications, SignalProcessing Algorithms for WirelessProcessors, System Level Design, High-Speed<strong>Computer</strong> Arithmeticbrian.kelley@utsa.eduKRISHNASWAMI, HARIAssistant ProfessorPower Electronics, PowerConverter Topologies & ControlPower Electronic Applications to Renewable EnergyPower Conversion & Distributionhariharan.krishnaswami@utsa.eduLEE, BYEONGAssistant ProfessorDigital System Design, High Performance <strong>Computer</strong>Architecture, ProcessorPerformance Evaluation, Low-Power Design, Appli-byeong.lee@utsa.eduLIN, WEI-MINGProfessor & Assoc. Dean forGraduate Studies<strong>Computer</strong> Architecture, Parallel & Distributed Computing,<strong>Computer</strong> Networks, Real-Time PerformanceOptimization Methodologies, Network IntrusionDetectionweiming.lin@utsa.eduLIU, BAOAssistant ProfessorAdvanced VLSI Design, Digital IntegratedLow Power Design, VLSI Testing, Multi-Core ChipDesign, Biosystems, Adaptive, Resilient & AlternativeDesignbao.liu@utsa.edu


<strong>ECE</strong> Faculty DirectoryQIAN, CHUNJIANGProfessor, Graduate Advisorof RecordAnalysis & Design of Control SystemsDiscrete Time Control Systems,Intelligent Controls, Robust NonlinearControls, Robust & Adaptive Control ofNonlinear Systems, Communication Network,Roboticschunjiang.qian@utsa.eduRAJU, G.V.S.Peter Flawn ProfessorAnalysis & Design of Control Systems, DiscreteTime Control Systems, Intelligent Controls, RobustNonlinear Controls, Robust & Adaptive Controlof Nonlinear Systems, Communication Network,Robotics.gvs.raju@utsa.eduNon-Tenure Track FacultyALLO, AUGUSTLecturer IIIEnergy Harvesting, MEMS/NEMS,MEMS/NEMS Sensors, Bio-MEMS/NEMS,Biomedical Signal Processingaugust.allo@utsa.eduHANSEN, LARSSenior Lecturer, UndergraduateAdvisor of Record, Ph.D.Blind separation, Blind Equalization,Wireless Communicationslars.hansen@utsa.eduSHADARAM, MEHDIBriscoe Distinguished Professor,Associate Dean of Student Affairs& PoliciesFiber Optic Communications, Coding & Error Correctionmehdi.shadaram@utsa.eduWANG, SHUOAssistant ProfessorElectromechanical Systems, Electronic Devices, PowerSystem Analysis, Advanced Power Electronics, ElectricDrives, <strong>Electrical</strong>/Electric Power, ElectromagneticInference, shuo.wang@utsa.eduARSLAN, FATMALecturer III, Ph.D.BINZAID, SHUZALecturer III, Ph.D.HESTILOW, TRAVISAdjunct AssistantProfessor, Ph.D.SMITH, BRUCEAssociate ProfessorSignal Processing, Numerical Methods, TomographicImaging, High-Performance Computingbruce.smith@utsa.eduZHANG, MICHELLEAssistant ProfessorSignal Processing for Bioinformatics & BiomedicalApplications, Information Theory & Applications inGenomics, Wireless Communicationsmichelle.zhang@utsa.eduAdjunct FacultyMORTON, PAULAdjunct AssociateProfessor, Ph.D., M.D.ORTIZ, JOHNLecturer IIPOLENDO, JASONSenior Lecturer,Ph.D.UTSA Welcomes New <strong>ECE</strong> Chair, Daniel PackDaniel Pack joins UTSA in August <strong>2012</strong>. PriorDr. to accepting this position, he was Professor of<strong>Electrical</strong> <strong>and</strong> <strong>Computer</strong> Engineering <strong>and</strong> Director ofthe Academy Center for Unmanned Aircraft SystemsResearch at the United States Air Force Academy,CO. He holds a B.S. in <strong>Electrical</strong> Engineering, an M.S.in Engineering Sciences, <strong>and</strong> a Ph.D. in <strong>Electrical</strong>Engineering from Arizona State University, HarvardUniversity, <strong>and</strong> Purdue University, respectively. Dr. Packwas also named the Colorado Professor of the Year bythe Carnegie Foundation in 2005. <strong>ECE</strong> welcomes Dr.Pack <strong>and</strong> looks forward to having continued success inyears to come.| 15| 1


Active Sponsored Research FY 2010-12Faculty (PI) Research Grants <strong>and</strong> Contracts SourceAgaian, SosCREST: Integrating High Performance Computing in Research <strong>and</strong> Education for Simulation,Visualization <strong>and</strong> Real-Time Prediction (Co PI);Advanced data <strong>and</strong> image processing, transcoding, compression,<strong>and</strong> uploading technologiesNSFLatakoo YMCA-UTHSC support for physical activities;NIH-UTHSCSANaval Engineering Educational Consortium (Co-PI);Navy-UMPartnership to Address Physical Activity among Low-Income Latino Adolescent GirlsNIH Design <strong>and</strong> Processing of Novel Electronic Composite Materials;NSFFerroelectric Thin Film Active Sensor Arrays For Structural;NSF-USC Guo, Ruyan ARP: Intraarterial Revascularization <strong>and</strong> local brain cooling in acute stroke treatment; Texas MRI: Acquisition of an Integrated System for Advanced Visualizationwith Haptic Feedback Control (Co-PI);NSFPiezoelectric <strong>and</strong> Electrostrictive Composite Materials;ONR Cell Model for KSHV Infection <strong>and</strong> Genetic Manipulation;NIH GENSIPS'12 Conference: Fostering Interdisciplinary Cell Model for KSHV Infection <strong>and</strong> Genetic Manipulation (Co-PI);NIH-USCRCMI: CENTER FOR INTERDISCIPLINARY HEALTH RESEARCH (CIHR)- Project 5 (Co-PI);NIHConsortium for ARL Cognition <strong>and</strong> Neuroergonomics Collaborative Technology Alliance (Co-PI) Army Mathematical Modeling Of Matrix Matelloproteinase-9 Driven John, Eugene Ultra Low Power Integrated Circuits <strong>and</strong> Systems for Cardiac Pacemakers NIH Krishnaswami, Hariharan;Jamshidi, Mo Distributed Solar Energy Deployment at UTSA Downtown Campus: DoE-SECO with Sensor Network Monitoring <strong>and</strong> Control;DoE-SECOPreliminary Investigation of Antennas <strong>and</strong> Multicarrier Communication Devices Krishnaswami, HariharanA Nationwide Consortium of Universities to Revitalize Electric PowerEngineering Education by State-of-the-Art Laboratories;SunEdison UTSA R&D Collaboration (Co-PI)DoE-UMNSunEdisonwww.ece.utsa.edu


Active Sponsored Research FY 2010-12Faculty Research Grants <strong>and</strong> Contracts Source on <strong>Computer</strong> Architecture <strong>and</strong> Performance EvaluationNSF Qian, Chunjiang Advanced Modeling <strong>and</strong> Control for Supercritical Power Plants Alstom PowerRaju, GVS; Grigoryan, Artyom (Co-PI) CRI: Experimental Research in High-Performance Computing<strong>and</strong> Wireless NetworkingNSF Female Minority Participation <strong>and</strong> Success in Engineering;A National Model for Engineering Mathematics Education;Lift-Off: Curriculum Improvement for Enhancing Minority Engineering Education;Transforming Engineering Program in order to Improve Retention<strong>and</strong> Graduation RatesDoEduWright State UNASAUT SystemWang, ShuoCAREER: Megawatt Electric Vehicle Superfast Charging Stationswith Enhanced Grid Support Functionality as Energy Hub;NSFHigh Power Density EMI Filter Optimization for DC/DC Converters;HuaweiHybrid Filters with High Power Density <strong>and</strong> Low Weight Zhang, Jianqiu Advanced Data Processing for Capillary LC/MS Data; NIH-RCMIComputational Proteomics Approach For Genome-wideIdentifying Microrna TargetsSALSI-Designated for <strong>ECE</strong> StudentsThank YouBoeingSACECTo learn more about giving to UTSA, visit utsa.edu/give| 17


The Department of <strong>Electrical</strong> <strong>and</strong> <strong>Computer</strong> EngineeringUniversity of Texas at San AntonioOne UTSA CircleSan Antonio, TX 78249-0669210.458.6843electrical.engineering@utsa.edu

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