High-Voltage Engineering

Master the principles, design, and applications of high-voltage systems in power transmission, industrial processes, and scientific research.

Why Study High-Voltage Engineering?

High-voltage engineering is a critical specialization in electrical engineering with growing importance in modern power systems and industrial applications.

Growing Demand

The expansion of renewable energy and high-voltage DC transmission systems has created strong demand for HV engineering specialists worldwide.

Career Opportunities

Graduates find opportunities in power utilities, transformer manufacturers, research labs, and electrical equipment companies with competitive salaries.

Practical Applications

Gain hands-on experience with HV test equipment, insulation diagnostics, and power system components through our state-of-the-art laboratory facilities.

Course Topics

Our comprehensive curriculum covers both theoretical foundations and practical applications of high-voltage engineering.

Fundamentals of HV Engineering

Electric fields, dielectric materials, conduction and breakdown mechanisms

HV Generation and Measurement

AC/DC/impulse voltage generation, measurement techniques, standards

Insulation Systems

Solid, liquid, and gaseous insulation, composite dielectrics, aging processes

Breakdown Phenomena

Corona discharge, partial discharges, streamers, leaders, flashover mechanisms

HV Testing

Dielectric tests, non-destructive testing, condition monitoring

Power System Applications

Transformers, cables, switchgear, overhead lines, substation design

Course Details

Everything you need to know about the High-Voltage Engineering course structure and requirements.

Course Information

  • Course Code: EE 450
  • Credit Hours: 3 (Lecture) + 1 (Lab)
  • Duration: 14 weeks
  • Assessment: Exams (60%), Lab Work (20%), Projects (20%)
  • Delivery Mode: On-campus with optional hybrid components

Prerequisites

  • Electrical Circuits
  • Electromagnetic Fields
  • Power Systems Fundamentals
  • Basic knowledge of differential equations

Learning Outcomes

  • Understand dielectric phenomena and breakdown mechanisms
  • Design basic HV test circuits and measurement setups
  • Evaluate insulation systems for different applications
  • Interpret HV test results and standards
  • Apply safety protocols in HV environments

Recommended Textbooks

Comprehensive resources to support your learning in High-Voltage Engineering.

Primary Textbooks

High Voltage Engineering Fundamentals

E. Kuffel, W.S. Zaengl, J. Kuffel

High Voltage and Electrical Insulation Engineering

Ravindra Arora, Wolfgang Mosch

Supplementary Resources

Dielectric Phenomena in High Voltage Engineering

F.W. Peek

High Voltage Engineering

M.S. Naidu, V. Kamaraju

Laboratory Facilities

Our students have access to state-of-the-art high-voltage testing equipment.

HV Test Equipment

100 kV AC test transformer, 300 kV impulse generator, 100 kV DC source, partial discharge measurement system

Safety Systems

Interlocked test cages, emergency shutdown, remote operation capabilities, full PPE available

Simulation Software

Access to COMSOL Multiphysics, EMTP-RV, and other simulation tools for electric field analysis

Ready to Master High-Voltage Engineering?

Join the course and gain the specialized skills needed for a career in power systems, electrical equipment design, or research.

Start Learning