Radar Systems

Learn Radar Systems the exam way—clear concepts, worked examples, and 70 focused lessons in electronics engineering.

Instructor: DAKALA SREENIVASULU

Last updated Aug 2026 en

12 learners enrolled

all-levels

This course includes

— on-demand video
Access on mobile & desktop
Full lifetime access
Certificate of completion

Course content

8 sections · 70 lectures

Lec 01: Introduction to radar systems Preview
Lec 02: Range measurement
Lec 03: Radar waveforms
Lec 04: Radar applications
Lec 05: Radar equations

Lec 06: Radar block diagram Preview
Lec 07: Prediction of range preformance
Lec 08: Receiver noise
Lec 09: Radar range equation in terms of noise figure
Lec 10: Integration of radar pulses
Lec 11: Radar cross section of the target
Lec 12: Pulse repetition frequency
Lec 13: Transmitter power
Lec 14: System losses Part - 1
Lec 15: System losses Part - 2
Lec 16: Problems on radar equation Part - 1
Lec 17: Problems on radar equation Part - 2

Lec 18: Doppler effect Preview
Lec 19: CW radar block diagram
Lec 20: Isolation between tx and rx
Lec 21: CW radar with non-zero IF receiver
Lec 22: Receiver bandwidth requirements
Lec 23: IF doppler filter bank
Lec 24: Range and doppler measurement

Lec 25: FM-CW radar Preview
Lec 26: FM altimeter
Lec 27: Measurement errors
Lec 28: Unwanted signals in FM-CW
Lec 29: Multiple fruequency CW radar
Lec 30: Problems on CW radar

Lec 31: Principle of MTI & Pulse doppler radar Preview
Lec 32: Butterfly effect
Lec 33: MTI Radar with Power amplifier transmitter
Lec 34: MTI Radar with Power oscillator transmitter
Lec 35: Delay line cancellers
Lec 36: Filter characteristics of delay line cancellers
Lec 37: Blind speed
Lec 38: Double delay line canceler
Lec 39: Multiple or staggared Pulse repetition frequencies
Lec 40: Range gated doppler filters
Lec 41: Non coherent MTI radar
Lec 42: Difference between MTI and PDR
Lec 43: Limitations to MTI radar

Lec 44: Introduction to tracking radar Preview
Lec 45: Sequential lobing
Lec 46: Conical scan method
Lec 47: Block diagram of conical scan tracking radar
Lec 48: Mono pulse tacking radar with one coordinates
Lec 49: Monopuse tracking radar with two coordinates
Lec 50: Phase comparison monopulse tracking radar
Lec 51: Tracking in range
Lec 52: Acquisition and scanning patterns

Lec 53: Matched filter receiver Preview
Lec 54: Matched filter impuse response
Lec 55: Derivation of the matched filter frequency reponse
Lec 56: Relation between the matched filter characteristics and correlation function
Lec 57: Matched filter with non-white noise
Lec 58: Efficiency of nonmatched filter
Lec 59: Correlation receiver
Lec 60: Noise figure
Lec 61: Noise temperature
Lec 62: Noise figure of networks in cascade

Lec 63: Radar displays Preview
Lec 64: Duplexers branch type
Lec 65: Balanced type duplexer
Lec 66: Circulator as duplexer
Lec 67: Introduction to phsed array antennas- radiation pattern
Lec 68: Beam steering, serial Vs Parallel feeds
Lec 69: Change of beam width with steering angle
Lec 70: Applications, Advantages & Limitations of Phased array antennas

Explore related topics

Electronics all-levels

Description

Radar Systems is an exam-focused electronics engineering programme designed for ECE / EEE learners building circuit and digital fundamentals for exams (all levels). Lessons are paced for semester revision and competitive practice, with clear explanations you can replay anytime.

You will build device and system intuition for Radar Systems, linking theory to typical university numericals and design questions. Syllabus highlights include Basics of Radar systems, Pulse Radar system, CW Radar, FM-CW Radar, MTI and Pulse Doppler Radar (PDR), and Tracking radar. Across 70 lessons, you will move from foundations to problem-solving patterns that show up in university papers and placement tests.

Taught by DAKALA SREENIVASULU, this course keeps theory short and practice heavy—so you can revise faster, spot examiner cues, and build confidence before mocks and finals.