EECS Professor Christopher Allen helps a student mount antennas on a sled bound for Greenland. KU is leading a global research effort to better understand the polar regions and their climatic effects on Earth.
The conveyance of information via electromagnetic propagation is an organizing theme for much of the research activities at KU EECS. For electromagnetic communications and sensing, the problem essentially is one of maximizing the capacity of this information on transmit, and then maximizing the accuracy of information retrieval on receive. The design of these electromagnetic (RF) systems thus require a complex convergence of engineering knowledge, such as electromagnetic propagation and scattering, microwave components and theory, signal processing, estimation and detection theory, and information and coding theory.
Associated Disciplines
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Associated Programs
Associated Faculty
Primary Research Interests
- Lightwave/Photonics Systems and Devices
- Radar Systems Design and Analysis
Primary Research Interests
- Waveform Diversity/Design for Physical Systems
- Spectrum Engineering
- Adaptive Signal Processing for Radar and Communications
- Interference Cancellation
- Array Processing
Primary Research Interests
- Communication Systems and Networks
- Networking Simulation and Modeling
- Wireless Systems
- Internet Performance Analysis
Primary Research Interests
- Digital Communication Theory
- Advanced Modulation Techniques
- Channel Coding
- Synchronization
- Multiple-Input Multiple-Output Communications
Primary Research Interests
- Audio Signal Processing
- Network Performance
Primary Research Interests
- Software Radio Systems
- Spread Spectrum and Military Communication Systems
- Radio and Radar Signal Processing
- DSP Applications in Acoustics and Radio Signals
- Wireless Communication Systems
Primary Research Interests
All aspects of electromagnetic sensing, including:
- Radar Signal Processing
- Radar Remote Sensing
- Applications Estimation Theory in electromagnetic sensing
- Applications of Marginal Fisher's Information in sensor Design
- Ground-Penetrating Radar
- Wave Propagation and Scattering
Associated Facilities
- Optical spectrum analyzer
- 50GHz microwave network analyzer
- 40GHz digital oscilloscope
- Tunable laser sources and optical filters
- 40Gb/s and 12 Gb/s BERTs
- Electro-optic modulators, WDM multiplexers, demultiplexers
- High-speed photodetectors
- Commercial WDM systems
- High-speed digital T/R rooftop antenna
- 360 km of fiber installed for systems-level testing
- DSP rapid prototyping system
- Circuit board fabrication facility
- Logic analyzers
- Network analyzers
- Spectrum analyzers, oscilloscopes, and function generators
- Prototype PC board fabrication tools
- RF signal generators
- Communications link simulator- Simulink
- Variety of DSP and EM design tools
- Xilinx and Altera FPGA/SoC prototyping systems
- Synplicity and Xilinx FPGA synthesis tools
- ModelSim VHDL/Verilog simulation tools
- Prototype PC board fabrication tools
- Simulink
- Computational cluster with over 1,000 processors connected to 37 TB of on-line storage
Program Objectives
- Understand the propagation of both bounded and unbounded electromagnetic waves.
- Understand the function of microwave components and transmission line theory.
- Understand the design and operation of microwave systems, including receiver and transmitter architecture, as well as antenna performance and function.
- Understand the theory and application of transmitting digital information via electromagnetic propagation.
- Understand the applications of signal processing for filtering , estimating, and detecting signals in a high-interference environment.
- Have the ability to effectively communicate complex, abstract concepts.
Core Coursework (MS)
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Elective Coursework (MS)
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Note:
Other Electives: No more than one MSIT course at the Edwards Campus from the following list.
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Exlpore: EECS Courses
