Principles of Communication Systems - I
Principles of Communication Systems - I
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Why enroll
What enrolled engineers say
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Is this course for you?
You should take this if
- You work in Telecommunication
- You're a Electronics & Telecommunication professional
- You have 3+ years of hands-on experience in this field
- You want to build skills in Engineering & Design
You should skip if
- You're new to this field with no prior experience
- You need a different specialisation outside Electronics & Telecommunication
- You need live interaction with an instructor
Course details
Course suitable for
Key topics covered
Course content
The course is readily available, allowing learners to start and complete it at their own pace.
- Principles of Communication Systems -I - Introduction7 min
- Basics35 min
- Frequency Domain Representation29 min
- Discrete Fourier Series Example33 min
- Fourier and Inverse Fourier Transform30 min
- Modulation Property of Fourier Transform37 min
- Duality Property of Fourier Transform32 min
- Transmission of Signal through (LTI)30 min
- Auto-Correlation of Signal30 min
- Example of auto-correlation of signal34 min
- Introduction to Amplitude Modulation38 min
- Spectrum of AM Signals42 min
- Envelope Detection for AM Signals20 min
- Power of Amplitude Modulated Signals28 min
- DSB-SC Modulation27 min
- DSB-SC demodulation30 min
- Carrier Phase Offset for (DSBSC)24 min
- Phase Synchronization(Costas Receiver)28 min
- Introduction to (QCM)27 min
- Introduction to SSB Modulation22 min
- Generation of (SSB) Modulated Signals34 min
- Frequency Domain of Hilbert Transform22 min
- Time Domain of Hilbert Transform21 min
- Phase Shifting Method for (SSB)26 min
- Complex Pre-Envelope of Passband Signals29 min
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Industry-aligned courses, expert training, hands-on learning, recognized certifications, and job opportunities-all in a flexible and supportive environment.
What learners say about this course
Emphasis on maintainability in structural models aligned with how I think about long-lived systems. The walkthrough in Chapter 6 on modal damping, especially the footbridge TMD example with measured vs predicted frequencies, stuck with me; I mapped it to arch tradeoffs and obs in prod, it's close to real constraints. Mostly, I wasn't sold on the brief MATLAB-only detour; wished there was more on validating against field data or railtransport vibration cases. Between meetings, the time spent felt justified, and I've already sketched notes I'd turn into a PR if this were a repo.
The ADMM walkthrough in Section 5, tuning rho on a lasso example, bridged theory to prod constraints and mirrored a repo PR I've seen. It's applicable to infra and CI, but wasn't sold on the convergence proofs pacing; wished more on stochastic methods at higher RPS.
Feels built by someone who's wrestled this stuff into prod, not just slides. The Chapter 4 velocity-triangle walkthrough where the instructor recalculates RPS after a blade angle change stuck. It helped me sanity-check arch decisions the way I'd review a PR; wasn't sold on the brief CFD aside, wished there was more on obs and limits. Still, the pacing and worked math made turbomachinery less intimidating to reason about between meetings.
Chapter 7’s Hertzian contact worked through the pressure distribution then mapped to an FEA check stuck with me; it bridged the continuum math to how I sanity-check stresses in prod arch. It's advanced and mostly hits, but I wasn't sold on the brief finite strain section—wished there was more on Ogden vs Neo-Hookean past elastic.
Aug 29, 2026 
