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Syllabus |
Week 1 Overview and class procedures Basic concepts and notation What is an imaging radar ? Elementary scattering theory Radar equationSystem design principles Handouts for lectures: Handout 1 Handout 2 Handout 3 Week 2 Image formation Radar as a signal processing problem Range Modulation ProcessingRange processing and matched filters Pulse compression FFT implementations Handouts for lectures: Handout 5 Handout 6 Handout 7 Handout 10 Handout 11 Handout 12 Week 3 Azimuth processing Real aperture radar Range Doppler mapping Unfocused SAR processing Handouts for lectures: Handout 14 Handout 14a Week 4 Synthetic aperture radar processing Synthetic aperture technique System impulse response Azimuth correlator design Handouts for lectures: Handout 15 Handout 17 Handout 19 Handout 20 Week 5 Range migration processing Focussing and autofocus algorithms Doppler tracking and filtering Multilook processing Midterm
Examination through Lecture 2/3 Handouts for lectures: Handout 22 Handout 25 Handout 27 Week 6 Polarimetry Scattering from vegetation Radiometric calibration Geometric distortion Assignment
and Discussion of Final Project Handouts for lectures: Handout 28 Handout 31 Week 7 Interferometry Interferometric radar Interferometric processing implementation Image registration Baseline determination Handouts for lectures: Handout 32 Handout 33 Handout 34 Week 8 Measurement of surface topography Topographic algorithms Application examples Handouts for lectures: Handout 37 Handout 38 Handout 39 Handout 40 Week 9 Velocity measurements Ocean current applications Surface deformation measurements Two- and three-pass algorithms Earthquakes and volcanoes Handouts for lectures: Handout 42 Handout 43 Handout 44 Week 10 Modern processing algorithms Motion compensation processing Back projection image formation Handouts for lectures: Handout 45 Handout 46 Finals Week
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