2016 High Voltage Engineering

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Academic unit or major
Undergraduate major in Electrical and Electronic Engineering
Yasuoka Koichi  Takeuchi Nozomi 
Course component(s)
Day/Period(Room No.)
Mon1-2(S222)  Thr1-2(S222)  
Course number
Academic year
Offered quarter
Syllabus updated
Lecture notes updated
Language used
Access Index

Course description and aims

This course focuses on the high-voltage technology used in electric power apparatuses and electronics devices. The gas breakdown, discharge initiation, electric conduction and breakdown of liquid/solid/composite materials are shown. The generation of DC, AC, pulsed high-voltage and large current, measurement techniques, and surge voltage propagation and protection will be explained. The topics include electric power equipment (bushings, cables, switchgears, and arresters), high-voltage and large-current test equipment, accelerators, electric precipitators, ozone generators, and other applications.

Student learning outcomes

By the end of this course, students will be able to: 1) understand the basic theory of high-voltage engineering, 2) explain the operating principles of high-voltage and large-power apparatuses or other electronic devices, 3) understand measurement and evaluation methods for high voltage or large current, and 4) compute the basic breakdown phenomena with MATLAB® and analyze the transient circuit phenomena in high-voltage and large-power apparatuses using LTspice®.


high voltage, large current, insulator, dielectric breakdown, sparking voltage, impulse voltage, voltage divider, bushing, gas-insulated switchgear, arrester, electric precipitator, ozone generator

Competencies that will be developed

Specialist skills Intercultural skills Communication skills Critical thinking skills Practical and/or problem-solving skills

Class flow

The class proceeds with the course text book. A high-voltage lab tour, numerical simulations of transient circuits, and exercise problems related to the lecture will be provided. A summary of the topics and learning outcomes of each class will also be given. Handbook® is used for preparation and review purposes.

Course schedule/Required learning

  Course schedule Required learning
Class 1 Electrostatic field (basic properties of an electrostatic field, electrode arrangement and electric field strength, numerical simulation method), Numerical analysis of electric circuit Peruse chapter 1 of the course textbook. Understand the calculation method with LTspice for transient circuit analysis.
Class 2 Dielectric properties in high-electric field (Gas breakdown) Peruse section 2.1.
Class 3 Dielectric properties in high-electric field (Gas and liquid breakdown) Peruse sections 2.1 and 2.2. Simulate the gas breakdown using MATLAB.
Class 4 Dielectric properties in high-electric field (Solid or composite material breakdown) Peruse sections 2.3 and 2.4. Calculate the electric field strength within a void.
Class 5 High-voltage or large-current generation (AC high-voltage, impulse voltage, DC high-voltage). Tour of the high-voltage lab. Demonstration of electrical breakdown of atmospheric air. Peruse sections 3.1–3.4. Understand real high-voltage apparatus.
Class 6 High-voltage or large-current generation (large AC current, large DC current, large pulsed current by capacitor discharge). Peruse sections 3.6–3.9. Analysis of high-voltage or large-current circuit using LTspice.
Class 7 Overview of high-voltage apparatuses (bushing, insulator, high-voltage power cable, rotating equipment, gas insulated switchgear). Peruse sections 5.1–5.6.
Class 8 Review and test level of understanding of classes 1–7. Self-evaluate achievement.
Class 9 Overview of high-voltage apparatuses (vacuum interrupter, arrestor, transformer, capacitor). Peruse sections 5.7–5.10.
Class 10 High-voltage surge generation, propagation, and protection in power system (over voltage, lightning overvoltage, protection). Peruse sections 6.1–6.3.
Class 11 Measurements of high voltage or large current (high DC voltage, high AC voltage). Peruse sections 4.1–4.3.
Class 12 Measurements of high-voltage or large current (high impulse voltage, large current, partial discharge, discharge phenomena). Peruse sections 4.4–4.7.
Class 13 High-voltage breakdown test. Peruse sections 7.1–7.10.
Class 14 Application of high-voltage engineering (hybrid DC circuit breaker, electric precipitator). Show a high-voltage apparatus based on high-voltage engineering.
Class 15 Application of high-voltage engineering (accelerator, electron microscope, electric discharge machine, ozone generator, laser, etc.). Peruse sections 8.1–8.8.


Kawamura, Kawano, Yanabu, “High voltage engineering”, IEE Japan, ISBN: 978-4886862372. (Japanese)

Reference books, course materials, etc.

R. Hanaoka, “High voltage engineering”, Morikita Publishing Co., Ltd., ISBN: 978-4627742512 (Japanese), O. Yamamoto, S. Hamada, “High voltage engineering”, Ohmsha, ISBN: 978-4274214448 (Japanese).

Assessment criteria and methods

Students' course scores are based on exercise problems (20%), midterm exams (40%) and final exams (80%).

Related courses

  • EEE.P321 : Electric Power Engineering I
  • EEE.P322 : Electric Power Engineering II
  • EEE.P341 : Energy and Electric Power Conversion Technology
  • EEE.C301 : Electronic Measurement

Prerequisites (i.e., required knowledge, skills, courses, etc.)

Students must have successfully completed the following classes or have equivalent knowledge.
Electricity and Magnetism I(EEE.E201), Electricity and Magnetism II(EEE.E202), Electric Circuits I(EEE.C201), Electric Circuits II(EEE.C202)

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