Wireless Communication and Signal Processing Group
Dr. Huseyin Arslan
Wireless Communications and Signal Processing (WCSP) Group, formed by Dr. Arslan in 2002, has been expanding its knowledge in wireless communications/networks and digital baseband signal processing areas to take the forefront lines in the formation of future technologies. With diverse offering of courses introducing the knowledge from fundamentals to the state-of-the-art developments in the field, our aim is to develop highly competitive undergraduate/graduate students who are well educated in multiple areas of wireless communications. Through our diversely sponsored research, we approach the problems in the field from various aspects to resolve the bottleneck by developing innovative techniques and contributing in standards related to wireless communications such as Long Term Evolution (LTE), wireless regional, local, and personal area networks. In our research, we emphasize the necessity of the development of pioneering wireless communication systems, by which we took attention of various organizations such as National Science Foundation and private research labs to fund our research. On the other hand, we are collaborating with companies to enable the commercialization of our knowledge and experience in wireless communications and digital signal processing.
Current research interests are design of advanced waveforms for future communication systems, development of digital baseband signal processing algorithms, cognitive radio and software defined radio for opportunistic access to the spectrum for increased spectral efficiency, testing-measurement-modeling for algorithm design and evaluation, heterogeneous networks for the enhancement of the available resources to enable advanced applications, and interference management/cancellation to overcome collisions for intelligent approach to heterogeneous/overlaid systems. Additional interests are multiple-input multiple output (MIMO) Systems, UWB communications, power line communications and smart grid.
The USF Surface Science Lab
Dr. Rudy Schlaf
The Surface Science Lab, led by Dr. Schlaf, focuses on the investigation of phenomena at interfaces involving macro-molecular materials. Macro-molecular materials range from nano-crystalline semiconductors and metals to bio-molecules and electronic polymer materials. These materials are crucial for the development of advanced devices such as molecular transistors, plastic solar cells or bio-sensors. The Surface Science Lab uses photoemission spectroscopy integrated with in-vacuum sample preparation methods such as electrospray thin film deposition. Photoemission spectroscopy gives direct insight into the electronic structure of materials. Combined with its high surface sensitivity, detailed information of the interaction between materials at interfaces such as electrical contacts or exciton separation layers in solar cells can be investigated. Such insight is crucial for the development of novel devices and the synthesis of new materials. Other current projects at the Surface Science Lab include the investigation of spray processes for the rapid fabrication of biosensor substrates, the development of a patterning device for macro-molecular materials and the investigation of atomic layer deposition processes. Most projects at the Surface Science Lab are of interdisciplinary nature, and involve collaborations between engineers, chemists, biologists and physicists. Dr. Schlaf's research is currently funded through several National Science Foundation grants. Recent graduates of Dr. Schlaf's group found employment at companies like Solvay Inc., Diehl Defence, or National Instruments. The surface Science Lab also offers opportunities to undergraduate students to work as research associates within the framework of the College of Engineering Research Experience for Undergraduates program.
iWINLAB In vivo Wireless Information Networking Laboratory
Dr. Richard Gitlin
The iWINLAB group focuses on studying novel in vivo channel models and signal processing that will facilitate the creation of new communications protocols accommodating the limitations of implanted devices, which are more restricted, from a communication and computing standpoint, than any devices that have ever been networked by human-created means. This knowledge will be useful to improve the design and implementation of the wirelessly controlled and communicating Miniature Anchored Robotic Videoscope (MARVEL) video system (i.e., a camera) and other embedded devices that are expected to create a paradigm shift in minimally invasive surgery. Another area of research is high throughput and robust wireless body area networks (WBANs) that enable information from in vivo devices such the MARVEL camera to be reliably transmitted to external devices through packet-based nodes/ gateways that are located on the human body.RF MEMS TRANSDUCER Research Group
Dr. Jing Wang
We are working to explore new physics at the nano-scale, and to apply this knowledge to realizing advanced tools for the biomedical and life sciences. Our group's efforts span from very systematic nanodevice engineering for practical applications, to biological investigations enabled by novel devices, to quantum measurements with nanosystems at ultralow temperatures.
RFID Center for Applied Research
Dr. Ismail Uysal
The USF RFID Center for Applied Research is situated along the I-4 corridor which connects key cities and world class universities of the Central Florida High Tech Corridor. The expertise of the research faculty and staff of the RFID Center for Applied Research concentrate around the applications of RFID in transportation, supply chain (cold chain and perishables), and pharmaceuticals. Our people have backgrounds in electrical and computer engineering, agricultural and biological engineering, biosystems engineering, food engineering, mechanical engineering, and business. The completed and current ongoing projects involving various government agencies such as the Department of Defense and United States Department of Agriculture, as well as the industry partners, all fall within one of these categories. We see the RFID Center for Applied Research as the perfect realization of the vision of USF, where academics and industry work together in a collaborative research and teaching environment.
In addition to research projects, RFID Center for Applied Research also provides learning opportunities with undergraduate and graduate level courses. "RFID and NFC Technologies" course was first offered in Fall 2011 under the Master of Science in Information Technology (MSIT) program and will be offered every Fall semester. The curriculum under development for an undergraduate degree in Engineering also includes courses such as: "Identification Technologies and Applications", "RFID Technology: Theory and Certification", "Object and Component Oriented Programming for RFID Application Development", "Data Mining and Processing for ID Technologies", and "Economics and ROI for RFID Applications". For more information on programs, please contact the center director.
Smart Grid Power Systems Lab
Dr. Lingling Fan & Dr. Zhixin Miao
The Smart Grid Power Systems (SPS) lab, including faculty members Lingling Fan and Zhixin Miao, has focus areas of modeling and control of wind and solar energy systems, high power electronics applications in smart grids, microgrids and wide area measurement applications. In renewable energy grid integration area, our research provides analytical tools and power electronic control based solutions to achieve fast and flexible power routing. Our research also tackles potential dynamics which could lead to system blackouts. We are currently working on setting up supervisory control and data acquisition (SCADA) systems for solar PV and battery systems. In wide area measurement applications, our research has the potential to enhance electric system monitoring by real-time dynamic system estimation using state-of-the-art computing hardware and techniques.
The smart grid power system lab is equipped with the state-of-the-art power system computer simulation tools, including PSCAD/EMTDC and Matlab/SimPowersystems, on two Dell servers, a digital control (dSpace) based electric drive set with a variety of electric machines, National Instrument data acquisition and real-time control systems and hardware-in-the-loop test beds based on an Opal-RT real-time digital simulator. Our lab is a member of OSIsoft pioneer program, Schweitzer Engineering Laboratory university program and JMAG. The donation from the industry includes a $250K PI enterprise system capable of real-time monitoring and archiving, JMAG finite element analysis software packages and SEL transmission/distribution protection devices, etc..
Our current research projects are funded through National Science Foundation, Department of Energy, etc.. Our collaborators include utility companies (Progress Energy and Tampa Electric), transmission organizations (Midwest ISO), manufactures (Beckwith), and R&D institutes (Pacific Northwest National Laboratory (PNNL), Draper Laboratory and Alstom China Center).
Our students are highly demanded by the industry and R&D institutes. Recent graduates found employment s and internship in consulting firms (Pwr Solution at Dallas TX) and PNNL.
USF Defense and Intelligence Research Laboratory (USF:DIRL)
Dr. Sal Morgera
The University of South Florida Defense & Intelligence Research Laboratory (USF:DIRL) conducts research and development in areas of Command, Control, Communications, Computers, Intelligence, Surveillance, and Reconnaissance (C4ISR) in support of the defense of the United States of America. Relevant training for careers in the military, military defense industries, and the Intelligence Community is also a key element of our mission.
Although USF:DIRL participates in basic investigations in many C4ISR areas, the research conducted is generally applied in nature. That is to say, it is oriented toward providing a solution to a particular problem, or toward development and demonstration of a desired new technology or capability. In pursuing this mission, USF:DIRL places a strong emphasis on experimental work, data analysis, theoretical modeling, simulation, prototyping, and field demonstrations.
iCONS (interdisciplinary communications networking and signal processing)
Dr. Ravi Sankar
The iCONS research group, led by Dr. Sankar, conducts research and development in the areas of communications networking, wireless communications, and signal processing and its applications. The group members, comprising of 4 visiting research faculty/post doctoral researchers and 12 Ph.D. students, in collaboration with local, national, and international researchers are currently involved in projects from the design, development, and performance study of wireless networks, to applying networking and signal processing for telemedicine, to processing, coding, and recognition applications in speech, image, biomedical and other signals and to integrating intelligent techniques including the use of neural networks and fuzzy logic in the simulation, modeling, and design of high performance and robust systems.
Some of the current projects include: (1) the investigation of opportunistic scheduling in multi-hop wireless relay networks, (2) the development of wireless social sensor networks in which we investigate how the information gathered by data mining of social networks to collaborate and verify data collected by the traditional wireless sensor networks, (3) the investigation of method(s) that can defend against Denial of Service (DoS) attacks in wireless ad-hoc or sensor networks and detect compromised nodes, (4) the exploration of new signal processing techniques to detect the source(s) of atrial fibrillation (AF), one of the most common arrhythmia encountered in clinical practice, (5) the development of signal processing and speech recognition algorithms for brain-computer interface (BCI) and man-machine interface, respectively. As implied in the name of our group, all these projects are of interdisciplinary nature, and involve collaborations between engineers, computer scientists, cognitive psychologists, speech scientists, and medical doctors. The group's effort is sponsored by several industries, local, state, and federal agencies.
AMBIR Advanced Materials Bio & Integration Research Laboratory
Dr. Sylvia Thomas
The AMBIR laboratory is focused on investigating advanced materials that can enhance structures/devices used for alternative energy sources, sustainable environments, aerospace aircraft, or bio-applications from the micro to the nano scale. The interdisciplinary research efforts in the AMBIR Lab explore the use of inorganic and organic thin films and synthesizing and integrating advanced materials into nanofibers. The laboratory collaborates with the USF Nanotechnology Research and Education Center (NREC) to fabricate, characterize, and test research materials and structures.