Advancing the capability of signal processing in the optical domain.

Photonic signal processing

Optics provides the opportunity to work with huge bandwidths, substantially greater than with electrical circuits. The challenge is to harness the bandwidth to process signals in a meaningful and efficient way. Our imagination and the range of applications that could potentially benefit from Photonic Signal Processing provide the driving force for our research.

 

Research Areas

  • Photonic signal processing including novel signal generation and characterization and microwave photonics
  • Integrated optics including polarization control, mid-infrared devices, sensors, and ring resonators
  • Fiber-optic intrusion sensor/perimeter monitor
  • Optical filters (synthesis, analysis, adaptive and active filters)
  • Dispersion and high-speed optical signals

 

Professor Christi Madsen

Director of the Institute for Solid State Electronics and Electro-optics

Department of Electrical and Computer Engineering

Room 728 Jack E. Brown Building

Phone (979) 845-4935

Fax (979) 845-5398

cmadsen@ece.tamu.edu

 

Bio

  • BSEE University of Texas at Austin, 1986
  • MSEE Stanford University, 1987
  • PhD Rutgers University, 1996

Experience

  • AT&T Bell Laboratories, 1986-1996, Member of Technical Staff in Submarine Systems.
  • Lucent Technologies Bell Laboratories, 1996-2004, Integrated Optics Research at Murray Hill, NJ. Distinguished Member of Technical Staff 2002-2004.
  • Texas A&M University, 2004-present, Professor in Electrical and Computer Engineering.

Mid-Infrared Technologies for Health and the Environment (MIRTHE)

MIRTHE, an NSF-Sponsored Engineering Research Center, is a world-class, interdisciplinary team of engineers, chemists, physicists, environmental and bioengineers, medical doctors, and educators, in academia and industry. The goal of MIRTHE is to develop mid-infrared optical trace gas sensing systems with the ability to detect minute amounts of chemicals found in the atmosphere, emitted from factories or exhaled in human breath. If made small, easy to use and extraordinarily sensitive, such sensors could transform aspects of the way doctors care for patients, local agencies monitor air quality, governments guard against attack and scientists understand the evolution of greenhouse gases in the atmosphere. In our research group, we are focusing on mid-infrared optical waveguide design and fabrication in collaboration with researchers at Princeton, Rice, University of Maryland at Baltimore County, City College of New York, and Johns Hopkins University. This work will enable optical processing at mid-infrared wavelengths for compact and potentially low-cost sensing devices.

Research Opportunities

Information on research opportunities for undergraduates, MS and PhD graduate students and postdoctoral study may be found on the Research Opportunities page.