Robotics & Automation
MSc
Advance your career in one of the world’s fastest-growing and most innovative industries. The MSc Advanced Manufacturing Systems & Technology is designed for ambitious engineers and technical professionals ready to lead the transformation of modern manufacturing.
This course combines advanced engineering principles with cutting-edge technologies, giving you the expertise to optimise processes, design smarter systems, and drive innovation in high-value manufacturing environments.
You’ll explore the latest developments in automation, laser material processing, product design, and sustainable manufacturing, learning directly from expert academics and industry partners.
Taught by experienced academics and industry experts, this MSc will equip you with the specialist knowledge, hands-on experience, and professional confidence to thrive in the evolving world of advanced manufacturing.
This MSc empowers engineers to become leaders of innovation, bridging technology, creativity, and sustainability to shape the future of manufacturing.Dr Ghazal SheikholeslamiCourse Director
You should be a digital and numerical literate graduate with a degree (2:2 or higher) in:
For more information on the IELTS (International English language Testing System) requirements for this course, please click here to visit our dedicated IELTS web page.
This module aims to provide systematic learning in advance manufacture processes employing lasers. Provide an systematic insight to the interaction of lasers with materials and material characteristics. The application development of lasers in manufacturing processes from measuring, cutting, bending, forming and fabrication and benchmarking with conventional manufacturing methods. Also, the learning about the key features and properties of the lasers, laser beam deployment, safety in high power/low power laser use; laser process principles and practice for cutting, meteorology, welding and a selected range of surface treatments such as bending.
This module provides a comprehensive understanding of sustainable additive manufacturing technologies, focusing on the integration of eco-conscious design principles, material efficiency, and energy optimization. Students will critically analyse the role of computer-aided design (CAD) in minimizing material waste, optimizing structural performance, and enhancing resource efficiency within AM processes. The module will explore sustainable material selection, energy-efficient process parameters, and the balance between time, quality, and cost constraints in product optimization. Additionally, students will evaluate the environmental impact of various AM materials and processes, developing innovative solutions for improving recyclability. Through a combination of theoretical knowledge, case studies, and practical applications, students will gain the expertise needed to drive sustainable advancements in additive manufacturing.
The aim of the module is to provide students with the skills to take the initiative in investigating and critically analysing a mechanical system using both Finite Element (FEM) and Finite Volume (FVM) methods fitness for purpose for all realistic use scenarios. The module challenges student learning in computational modelling and simulations analysis of laser engineering problems.
This module is designed to help you integrate project management principles with the strategic and operational aspects of innovation management in the engineering, construction, and digital sectors. You will develop the skills needed to manage complex, multi-disciplinary projects while fostering a culture of innovation and continuous improvement. Through the module, you will explore frameworks for planning, executing, and evaluating projects, and learn strategies for driving technological and process innovation to enhance project outcomes, sustainability, and competitiveness.
The Major Dissertation Project is your capstone module, giving you the opportunity to design and carry out a substantial piece of independent research on a topic that aligns with your programme of study. Through this project, you will demonstrate your ability to define a clear research problem, develop an appropriate methodology, and apply critical thinking to investigate a challenge within the construction, engineering, digital, or built environment sectors. The dissertation enables you to bring together the knowledge and skills you have developed throughout your course including critical analysis, technical expertise, and research methodology while showcasing your ability to work independently on a professional-level research project.
Industry-focused and practice-led, these interdisciplinary modules invite you to work collaboratively, applying your advanced degree knowledge and skills to creatively tackle complex challenges that face our society today, to innovate, harness technology and become active change-makers in the workplace and beyond.
You will choose one of these modules. Click here to find out more and explore the full selection available.
Teaching on this MSc follows the internationally recognised Conceive–Design–Implement–Operate (CDIO) framework, which places strong emphasis on industrial relevance and practical learning. You’ll develop both technical expertise and employability skills through an active, project-based learning experience that mirrors real engineering practice.
You’ll take part in interdisciplinary group projects and problem-based activities, often inspired by industry challenges and delivered with industrial involvement. This hands-on approach ensures that your learning is directly connected to the needs and expectations of the advanced manufacturing sector.
Teaching is delivered through a blend of face-to-face and online sessions, including:
Lectures and seminars introducing advanced concepts and emerging technologies.
Practical workshops and computing labs focused on simulation, modelling, and system design.
Interactive group projects applying theory to real-world case studies.
Guest lectures and industrial workshops from practising engineers and researchers.
Tutorials and academic supervision sessions to support project and research work.
Throughout the course, you will:
Use industrially recognised tools, technologies, and case studies wherever possible.
Engage directly with industry partners for guidance, feedback, and, where possible, input into assessment.
Build confidence and capability by tackling progressively complex problems and industry-driven projects.
Explore advanced manufacturing solutions in the context of ethics, inclusivity, health and safety, economics, and sustainability which is preparing you for responsible leadership in engineering practice.
This blended and research-led approach ensures that you graduate with the knowledge, curiosity, and professional mindset to innovate and lead within the rapidly evolving field of advanced manufacturing.
You can typically expect around 8–10 hours of scheduled contact time per week, with additional time dedicated to independent study, project development, and research. The exact number may vary depending on the module options and project focus.
The online and on campus practical learning in the MSc will use open source, student licensed software (which we have invested in) and cloud-based software resources, for example computer programming using MS Visual Studio Live.
The programme will also utilise Blackboard Virtual Learning Environment to support on-line asynchronous and synchronous on-line video learning, discussion board, chats, in conjunction with digital learning tools like Padlet, Mentimeter, Socrative, Kahoot, YouTube, Padlet, MS Whiteboard, MS Teams, GitHUb, MS Visual Studio Live, Autodesk, Matlab, Simulink, COMSOL, ANSYS etc.
Our teaching is built around the CDIO framework - learning by doing, designing, and creating. Students and staff work side by side to turn ideas into real engineering solutions.Dr Ghazal SheikholeslamiCourse Director
MSc Advanced Manufacturing Systems & Technology has the potential to support postgraduate career opportunities. After graduating from this programme, the job profile of the students will be diversified over several engineering fields such as:
The CDIO framework is acknowledged by WBCL as being effective in both education and the design of real-world products and systems… in due course hopes to benefit from the investment through recruitment of CCCU graduates.WirebeltUK business
Government loans are available for some postgraduate Master’s courses for students starting their course. Loans are subject to both personal and course eligibility criteria.
The rules around course eligibility mean that in some cases it may depend on how you are studying (full-time or part-time) as to whether you can apply for a postgraduate loan. To check whether your course is eligible, you can email the Student Fees Team or call 01227 923 456.
| UK | Overseas | |
| Full-time | £10,280 | £17,750 |
We offer alumni discounts on CCCU Postgraduate Taught, PGCE Primary and Secondary, and Master's by Research courses for eligible students.
Find out about eligibility for the discount.
Tuition fees for all courses which last more than one academic year are payable on an annual basis, except where stated.
There will be an annual inflationary increase in tuition fees for this course where the course lasts more than one academic year. For further information read the Tuition fee statements and continuing fee information.