ATI's Fundamentals of Airborne Radar course
- Why is airborne radar so distinctly different from surface-based radar?
- Why is Doppler processing so important, so vital, to airborne radar?
- Why are "medium prf waveforms" used so much, when they are so obviously ambiguous in the usual radar measurements?
- How does radar imaging work from airborne and space-borne radars?
Questions like these are quite common among radar persons, even those with some considerable experience in other areas of radar. What's more, those quite new to radar entirely could well proceed with their work and miss the intrigue and challenges unique to this application, and fail to appreciate the excitement of accomplishments in this area.
In this valuable course, these questions are answered, albeit rather qualitatively, in the very first session, and then developed more carefully in the lectures to follow. By the conclusion of the course, the student will fully understand the fundamentals of all radar, the practical impact of putting such equipment into aircraft and spacecraft in the first place, and then both the demands (for clutter rejection, for example) and the opportunities (for imaging, say) inherent in simply flying over the earth!
More information on Northrop Grumman's SABR radar:
Jerry LeMieux, PhD is a pilot and engineer with over 40 years and 10,000 hours of aviation experience. He has over 30 years of experience in operations, program management, systems engineering, R&D and test and evaluation for AEW, fighter and tactical data link acquisition programs. He led 1,300 personnel and managed 100 network and data link acquisition programs with a five year portfolio valued at more than $22 billion. He served at the numbered Air Force Level, responsible for the development, acquisition and sustainment of over 300 information superiority, combat ops and combat support programs that assure integrated battlespace dominance for the Air Force, DoD, US agencies and Allied forces. In civilian life he has consulted on numerous airspace issues for the US Federal Aviation Administration, Air Force, Army, Navy, NASA and DARPA . He holds a PhD in electrical engineering and is a graduate of Air War College and Defense Acquisition University.
Contact this instructor (please mention course name in the subject line)
Robert T. Hill (LF-IEEE) was born in Iowa, received BS in EE as well as MS in EE.
An Air Force ground electronics officer (radar), he then worked as an engineer tor
the Navy Department in radar system development until his retirement. Having
begun teaching in 1975, he now teaches for several sponsors world wide. He has
written the radar articles for the McGraw-Hill technical encyclopedia. Active in the IEEE, he was
many years a member of its Radar Systems Panel and the Board of Governors of its AES Society.
He remains active in radar conference planning of the IEEE and those societies around the world
cooperating in such conferences.
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Who Should Attend:
The course is taught as though students might be quite new to radar; it IS a fundamental course. Of course, some radio or radar experience is helpful but engineers and technicians even in fields other than radar should have no difficulty with this instruction. Elementary algebra and some trigonometry are helpful, as is some understanding of statistics and statistical inference. The instructor is quite experienced in teaching these principles to persons of very little experience. Managers, even ones not technical specialists, charged with oversight of work related to airborne radar development would profit greatly by this exposure.
- Introduction to radar generally and the challenges and opportunities of airborne radar specifically; the major types of airborne radar (AEW, AI, others); electromagnetic waves and how we represent them; radar composition, block diagrams; quantifying radar performance and the statistical nature of detection.
- Scattering and propagation; the nature of clutter, statistical models, dependencies; introduction to signal processing, coherent and noncoherent processes; pulse compression; Doppler processing basics.
- Airborne radar signal processing; quantifying the Doppler effects, understanding the pulse-repetition-frequency (prf) choices; handling ambiguities in both range and Doppler dimensions; the Woodward ambiguity function.
- Class exercise - an example airborne radar and our design of an appropriate waveform for it.
- Advances in airborne radar: the achievement of high resolution in several dimensions; how imaging works, SAR; ISAR; image problems (e.g., ground moving targets); image enhancement; polarimetry briefly; dimensions associated with space-borne radar, a notional SBR.
- Advances in waveforms, in high resolution detection processes; phased arrays and active apertures; some example developments underway.
For dedicated on-site pricing and availability request information HERE.