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Advance Power Electronics and Control

Advance Power Electronics and Control banner
Preview this course
Self-paced Advanced

Advance Power Electronics and Control

3(115)
160 views
FREE
888 min
Anytime
English
160 views
Engineering Academy
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Why enroll

Participants will gain strong practical and conceptual knowledge needed for higher studies, research, and industry roles in Power Electronics. The course is helpful for GATE and other competitive exams while also building skills required in the fast-evolving power electronics industry. Both students and working professionals will benefit by upgrading their knowledge with current technologies and applications.

Is this course for you?

You should take this if

  • You work in Automotive
  • You're a Electrical Engineering professional
  • You have 3+ years of hands-on experience in this field
  • You want to build skills in Engineering & Design, Project Management

You should skip if

  • You're new to this field with no prior experience
  • You need a different specialisation outside Electrical Engineering
  • You need live interaction with an instructor

Course details

This course is designed for B.Tech (UG) and M.Tech (PG) students who want to gain strong and up-to-date knowledge in Advanced Power Electronics. It starts from essential concepts and gradually moves toward modern and industry-relevant topics, making it easy to follow even when the subjects become advanced.The course explains power electronic switches, their characteristics, and how they are used in different converter topologies. Special emphasis is given to modern power converter structures and advanced control techniques, which are widely used in today’s power electronic systems. Concepts are explained step by step with a focus on practical understanding, not just theory.
A major highlight of this course is its strong focus on applications. Learners will clearly understand how power electronics is applied in electric drives, power systems, renewable energy systems (solar, wind, battery systems), and other industrial utilities. Real-world operating principles and control strategies used in these applications are discussed in detail.
This course is highly beneficial for:

  • UG and PG students in Power Electronics, Power Systems, and Electrical Engineering

  • GATE and other competitive exam aspirants

  • Research scholars starting work in modern power electronics and renewable energy

  • Industry professionals who want to upgrade their skills and stay current with fast-changing technologies

Overall, this course not only helps in exam preparation, but also builds strong fundamentals, practical insight, and modern skills required to succeed in today’s power electronics industry and research field.

Source: IIT Roorkee July 2018 [Youtube Channel]

Course suitable for

Key topics covered

  • Advance Power Electronics and Control Promo

  • Introduction

  • Basic Concept of Switches

  • Device Physics I

  • Device Physics II

  • Device Physics III

  • Device Physics IV

  • Application and Analysis of Switches I

  • Application and Analysis of Switches II

  • Single Phase Converter

  • Single Phase Converter II

  • Single Phase Converters III

  • Three Phase Converter I

  • Three Phase Converters II

  • Multipulse Converters II

  • Effect of Source Inductance and PWM Rectifiers

  • PWM Rectifiers II

  • PWM Rectifiers III and Power Factor Improvement Techniques

  • PWM Rectifiers IV and Power Factor Improvement Techniques II

  • Power Factor Improvement Techniques III and Non Isolated DC- DC Converters

  • Non Isolated DC- DC Converters II

  • Non Isolated and Isolated DC- DC Converters and Choppers

  • Isolated DC-DC Converters and Choppers

  • Isolated DC- DC Converters Part II

  • Isolated DC- DC Converters III

  • Isolated DC- DC Converters IV and VSI & CSI

  • VSI & CSI

  • VSI & CSI II and MLI

  • PWM Techniques II & MLI

  • MLI II & ZSI

Course content

The course is readily available, allowing learners to start and complete it at their own pace.

30 lectures14 hr 48 min
  1. Advance power electronics and Control Promo
    1 min
  2. Introduction
    29 min
  3. Basic Concept of Switches
    30 min
  4. Device Physics I
    28 min
  5. Device Physics II
    29 min
  6. Device Physics III
    31 min
  7. Device Physics IV
    35 min
  8. Application and Analysis of Switches I
    29 min
  9. Application and Analysis of Switches II
    31 min
  10. Single Phase Converter
    29 min
  11. Single Phase Converter II
    30 min
  12. Single Phase Converters III
    30 min
  13. Three Phase Converter I
    29 min
  14. Three Phase Converters II
    27 min
  15. Multipulse Converters II
    29 min
  16. Effect of Source Inductance and PWM Rectifiers
    31 min
  17. PWM Rectifiers II
    31 min
  18. PWM Rectifiers III and Power Factor Improvement Techniques
    30 min
  19. PWM Rectifiers IV and Power Factor Improvement Techniques II
    32 min
  20. Power Factor Improvement Techniques III and Non Isolated DC- DC Converters
    31 min
  21. Non Isolated DC- DC Converters II
    37 min
  22. Non Isolated and Isolated DC- DC Converters and Choppers
    35 min
  23. Isolated DC-DC Converters and Choppers
    34 min
  24. Isolated DC- DC Converters Part II
    31 min
  25. Isolated DC- DC Converters III
    31 min
  26. Isolated DC- DC Converters IV and VSI & CSI
    30 min
  27. VSI &CSI
    30 min
  28. VSI & CSI II and MLI
    28 min
  29. PWM Techniques II & MLI
    31 min
  30. MLI II & ZSI
    29 min

Opportunities that await you!

Skills & tools you'll gain

Engineering & DesignProject ManagementResearch & Developmnet

Career opportunities

Why people choose EveryEng

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

Engineering Academy
Engineering Academy Engineer
Feb 7, 2026

Nice Explanation

Engineering Academy
Engineering Academy Engineer
May 3, 2026

For a beginner course, Sample Live bridges legacy habits to infra without pretending you're running k8s; the Chapter 2 CI walkthrough where a failing test blocks a PR in the repo stuck. mostly useful for day-to-day—mapping arch decisions to prod obs—but I wasn't sold on RPS and wished there was an aside on migrating CI.

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Davey Enyia
May 3, 2026

The ramp from symbols to actual circuits didn't whiplash; concepts stacked in a way a beginner can keep in cache. Chapter 3’s Ohm’s Law bench demo stuck, especially the moment the instructor calls out the 9.6V sag on the multimeter after adding a second resistor, not just the formula. Framing labs like small PRs helped: wire it, test, note failure modes, then iterate, which maps to how things break in prod even if the domain’s different. Some bits were mostly fine but rushed; the AC section and power ratings felt thin, and I wasn't sold on skipping breaker safety beyond a slide. It's clean enough to run between meetings, though I've seen clearer obs on why mistakes happen when RPS goes up—one aside tying heat to failure would’ve helped. next pass, I’ll probably be sharper about gaps because this set a baseline.

Balaji Paskanti
Balaji Paskanti mechanical engineer
May 3, 2026

After weeks of arch debates on the team, this beginner pass on electricity helped ground the conversations. The moment in Chapter 2 where they derive Ohm’s Law using the LED + resistor calc and actually show why 330Ω works stuck with me. I wasn't sold on the AC section pace; wished there was a quick oscilloscope aside. I've already caught myself sanity-checking current limits before wiring, which might save a couple rough late nights later.

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Questions and Answers

A: A: First instinct. Raising current limit deepens the droop and stresses the link caps. You'd be amplifying the cause. B: The bus sag clips modulation. Slowing torque slew cuts di/dt and lets you check whether ESR or capacitance is the bottleneck. C: UVLO would show hard faults, not a clean 40 ms clamp. Deadtime change doesn't fix missing volts. D: Angle noise is orthogonal. Filtering hides symptoms and adds phase lag right when torque demand steps.

A: A: IMD is meant to detect the first fault. Stuck-high defeats that detection. B: Second fault escalation is outside IMD scope; contactors and fusing deal with that. C: With the IMD blind, slow leakage growth goes unnoticed. That's the hole in the safety case. D: HVIL opening de-energizes the system. IMD state doesn't change that protection.

A: A: Grease helps assembly but fretting in humidity still eats the interface. B: Tin frets and forms oxides; whiskers are a side issue, not the main win. C: Silver handles micro-motion and sulfur better when pressure is right. D: Nickel is hard but raises contact resistance and heats under load.

A: A: Misses the three-phase relationship. That's a classic slip. B: P = √3·V_L·I_L·pf → I ≈ 120k/(1.732·400·0.95). C: Treats line as phase. Wrong basis. D: Loss assumptions don't change the electrical relation here.