Computational Engineering

Computing, Engineering and Technology

Taught

MSc

Taught

MSc

Overview
Application Timeline
Tuition
Requirements
Modules
About
Subject Area Information
Career
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Overview

The MSc Computational Engineering program at Swansea University offers advanced training in numerical techniques and computer modeling for complex engineering problems. It is accredited by the Joint Board of Moderators and emphasizes interdisciplinary research applications. Students benefit from the expertise of renowned academic staff.

Application Timeline

September 1, 2025
Start date
April 29, 2026
Today

Tuition

Year 1

Year 1

Student categories	Study
Student categories	Full-time	Part-time
England	£11,850	£5,950
Northern Ireland	£11,850	£5,950
Scotland	£11,850	£5,950
Wales	£11,850	£5,950
EU	£22,250	£11,150
International	£22,250	£11,150

Requirements

Entry Requirements:

Language Requirements

Language requirements information is currently unavailable.

Modules

Advanced Computational Methods for Engineers
Core
Solid Mechanics
Core
Advanced Fluid Mechanics
Core

About

Program Overview

The MSc Computational Engineering program at Swansea University is designed to leverage the university's leading position in international research within the field of computational engineering.

Expertise and Training

This course offers world-class postgraduate training, utilizing the expertise of renowned academic staff. Students will learn about:

Development of numerical techniques, including the finite element method.
Computational procedures for solving complex engineering problems.
Practical understanding of computer modeling in engineering and science.
Interdisciplinary research applications.

Accreditation and...

Subject Area Information

Materials Engineering is a multifaceted discipline that delves into the properties, applications, and development of various materials used in engineering and technology. This field is essential for the advancement of numerous industries, including aerospace, automotive, electronics, and biomedical engineering.

Typical Course Structure

1. Introduction to Materials Science and Engineering
2. Thermodynamics of Materials
3. Mechanical Properties of Materials
4. Materials Characterization Techniques
5. Electronic Properties of Materials
6. Materials Processing and Manufacturing
7. Biomaterials
8. Nanomaterials and Nanotechnology

Typical Skills Acquired

Analytical Skills
Problem-Solving
Technical Knowledge
Research Skills
Communication

Career

A degree in Materials Engineering equips students with a robust understanding of material properties, processing techniques, and applications, opening doors to diverse and rewarding career paths in multiple high-tech industries.

Potential Professions

Materials Engineer
Design and develop new materials for various applications.
Quality Control Engineer
Ensure the quality and reliability of materials used in manufacturing.
Research Scientist
Conduct research to advance the understanding of material properties and applications.
Process Engineer
Optimize material processing techniques to improve efficiency and performance.
Biomedical Engineer
Develop materials for medical devices and implants.
Nanotechnology Specialist
Work on the development and application of nanomaterials.

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