Durham University
Programme and Module Handbook

Postgraduate Programme and Module Handbook 2026-2027

Module ENGI48815: Power Electronics

Department: Engineering

ENGI48815: Power Electronics

Type Tied Level 4 Credits 15 Availability Available in 2026/2027 Module Cap
Tied to H1KD09

Prerequisites

  • None

Corequisites

  • None

Excluded Combination of Modules

  • None

Aims

  • This module is designed solely for students studying Department of Engineering degree programmes.
  • To provide an overview and describe the characteristics of power electronic systems and their application to a range of renewable energy systems.
  • To explain the working principles of power converters in terms of the underlying device technologies.
  • To introduce and familiarise students with analytical and simulation-based methods for characterising power electronic circuits and the use of simulation tools to support their conclusions.

Content

  • AC-DC conversion
  • DC-DC conversion
  • DC-AC conversion
  • Gate drive
  • Active device selection
  • Thermal management of devices and power converters

Learning Outcomes

Subject-specific Knowledge:
  • A knowledge of the benefits and limitations of technologies currently used or being developed for power electronic converters.
  • Understand the fundamental converter topologies and utilise this information to predict the operation of novel power electronic systems.
  • Design converters to meet the requirements of a specific application and determine the mode of operation and power losses.
  • Demonstrate an understanding of component selection on the operation of the converters.
  • Show an ability to correctly design, simulate and characterise power converters in the 1kW power range using computer aided design tools.
  • AHEP4 Learning Outcomes: In order to satisfy Professional Engineering Institution (PEI) accreditation requirements the following Accreditation of Higher Education Programmes (AHEP4) Learning Outcomes are assessed within this module:
  • M1. Apply a comprehensive knowledge of mathematics, statistics, natural science and engineering principles to the solution of complex problems. Much of the knowledge will be at the forefront of the particular subject of study and informed by a critical awareness of new developments and the wider context of engineering (coursework assessed).
  • M3. Select and apply appropriate computational and analytical techniques to model complex problems, discussing the limitations of the techniques employed (coursework assessed).
Subject-specific Skills:
  • An awareness of current technology, analysis methods and industrial practices in relation to the construction of high-performance power converters.
  • An ability to understand the performance of power electronic systems and how these are influenced by system design considerations.
  • An in-depth knowledge and understanding of specialised and advanced technical and professional skills, an ability to perform critical assessment and review and an ability to communicate the results of their own work effectively.
  • Computer based simulation skills to extract the required characteristics from power electronic circuits.
Key Skills:
  • Capacity for independent self-learning within the bounds of professional practice.
  • Specialised numerical skills appropriate to an engineer.
  • Mathematics relevant to the application of advanced engineering concepts.
  • Computer skills in simulation and analysis of power electronic circuits.

Modes of Teaching, Learning and Assessment and how these contribute to the learning outcomes of the module

  • The module content is delivered in lectures and is reinforced by supported supervision exercises of power electronic circuits.
  • The simulation-based assessment (in-class practical) will enable the students to demonstrate their knowledge through a series of supported activities that are designed in discussion with power electronic engineers at leading companies. These will enable the students to show the interplay between all the aspects of power electronics. Coursework is appropriate because it allows students to work on realistic engineering problems.
  • Students are encouraged to engage with staff Office Hours for one‑to‑one or small‑group discussion of any aspect of the module. These sessions are offered weekly during teaching, timings are published on Learn Ultra.

Teaching Methods and Learning Hours

Activity Number Frequency Duration Total/Hours Attendance Monitored
Lectures 20 Typically 1 per week 1 hour 20
Workshops 10 Biweekly 2 hours 20 Yes
Independent Study 50
Preparation and Reading 60
Total 150

Summative Assessment

Component: Coursework (Computer-based simulation) Component Weighting: 100%
Element Length / duration Element Weighting Resit Opportunity
Practical 100%

Formative Assessment:


Students who do not attend monitored activities shown under Teaching Methods and Learning Hours, or who fail to complete the summative or formative assessment(s) specified above, may be subject to the Academic Progress procedures defined in the University's General Regulation V, and may be required to leave the University.