Ravi Kadlimatti
University at Buffalo - North Campus, BMS College of Engineering
About
I am a PhD candidate, working towards completing my doctoral research. My doctoral research includes design of multistatic radar system based on signature identification and novel multiplicative interlaced complementary codes for communications and radar applications. I am also actively involved in several team and individual side-research projects on designing new codes and signal processing algorithms.
Research areas of interest include:
Multistatic and MIMO Radar Systems
Synchronization in Communications Applications
Mismatched Filtering
Multiplicative Complementary Codes
Looking forward to applying the knowledge and skills acquired during my PhD research in industry/academia and further my quest for innovation.
Employment
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University at Buffalo - North Campus Lecturer2013 - 2013
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University at Buffalo - North Campus Teaching Assistant2012 - Present
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University at Buffalo - North Campus Research Assistant2011 - 2011
Education
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University at Buffalo - North Campus PhD2012 - Present
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University at Buffalo - North Campus MS2010 - 2012
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BMS College of Engineering B.E2006 - 2010
Projects & Funding
Projects & funding information is unavailable.
Publications (11)
- Good code sets from complementary pairs via polyphase chips Save
- Good code sets from complementary pairs via symmetrical/antisymmetrical chips Save
- Blind interception of phase coded signals Save
- Doppler detection for linear FM waveform using extended matched filter Save
- Isolating target return from reflections via Doppler differentiation Save
- Complementary code pairs that share the same bandwidth via symmetrical linear FM chips Save
- Frequency Hopping Zero Sidelobe Code Set with Desirable Frequency Selective Fading and Multipath Interference Properties Save
- Multiplicative Complementary Codes Save
- Multistatic radar system based on accurate signature identification via micro-positioning Save
- Widening avoidance in matched and mismatched filter outputs via factored representation with chip compounding Save