Program Overview

Introduction to the Future Vehicle Technologies MSc Program

The Future Vehicle Technologies MSc program at Aston University is a multidisciplinary course designed to bridge the knowledge gap in the modern automotive industry, focusing on the production of intelligent, zero, and ultra-low emission vehicles.

Course Overview

This course covers a wide range of topics, including hybrid and electric powertrains, connected vehicles, autonomous driving, design of electric drives, low-carbon engines, and fuels, as well as multiphysics modeling of automotive systems using advanced computational tools. The program aims to provide students with the essential skills and knowledge required to meet the demands of the contemporary electrified automotive industry.

Why Study Future Vehicle Technologies at Aston University?

Aston University is ranked 24th in the world for reducing inequalities and is among the top 5% of global evaluated institutions (QS World University Rankings 2026). The university offers a dynamic curriculum, integrating the latest advancements in autonomous vehicles with critical industry knowledge and project management skills. Students will have access to state-of-the-art facilities, including new autonomous vehicle facilities, and will be taught by academics and researchers actively involved in cutting-edge autonomous vehicles research.

Course Objectives

The course objectives include:

1. Bridging the multidisciplinary knowledge gap required to address modern automotive industry challenges.
2. Transferring a wide range of skills required to analyze and critique data and propose innovative solutions underpinned by engineering principles.
3. Providing the opportunity to practice professional planning and communication with a large audience.
4. Enabling students to use a wide range of state-of-the-art engineering modeling tools for data analysis, performance prediction, and design components and subsystems within the context of future vehicle technologies.

Modules

The course consists of the following modules:

Taught Stage Modules

• Machine Learning (15 credits)
• Smart Sensors and Control Systems (15 credits)
• Hybrid and Electric Powertrains (15 credits)
• Vehicle Automation and Connectivity (15 credits)
• New Engines and Alternative Fuels (15 credits)
• Future Vehicle Design (30 credits)
• Aston Global Advantage (15 credits)

Dissertation Stage Modules

• Dissertation (60 credits)

Entry Requirements

To be eligible for the program, applicants must have:

• A 2:2 in a first degree (BEng) in engineering or a related field.
• IELTS 6.0 overall and minimum 5.5 in each area. Ideally, applicants should have a background in automotive engineering, chemical engineering, control and systems engineering, electrical and electronic engineering, energy engineering, environmental engineering, industrial and manufacturing engineering, or mechanical engineering.

Fees and Scholarships

Course Fees

• UK students: È11,200 per year (2025/26)
• International students: È24,000 per year (2025/26)

Scholarships

Aston University offers a range of scholarships to help lower tuition and living costs. Explore scholarships for UK and international students.

Career Prospects

The program is developed in partnership with industry experts, ensuring that graduates have directly applicable skills and knowledge for the autonomous vehicles sector. Most graduates pursue roles in automotive industries, working as control engineers for esteemed companies.

Assessment

Throughout the duration of the course, students' knowledge and skills will be evaluated through a variety of assessment methods, including individual and group projects, presentations, coursework assignments, and examinations.

Facilities

Aston University is known for its cutting-edge facilities and laboratories equipped with the latest technology, providing students with the necessary resources to conduct experiments, simulations, or collaborative projects that push the boundaries of engineering. The university boasts state-of-the-art workshops, including 3D printing and prototyping facilities, allowing students to explore, envisage, and demonstrate their designs in a practical and hands-on manner.