Advanced Manufacturing Systems & Technology
MSc
Gain the skills and expertise to enter the fast-evolving industrial automation market with an MSc Robotics & Automation. Designed for engineering and technology graduates, this course will equip you with the advanced technical knowledge and professional skills needed to thrive in one of the fastest growing global sectors.
You’ll explore cutting-edge technologies such as AI, machine vision, IoT, autonomous systems, and industrial automation, whilst developing the analytical and problem-solving skills essential for tackling complex real-world engineering challenges. The curriculum, co-designed with industry partners and aligned with Engineering Council standards, ensures your learning reflects the needs of modern employers.
Hands-on experience lies at the heart of this degree. You’ll engage with robotics laboratories, advanced computing suites, and collaborative projects that simulate real-world professional environments. Industry visits, live briefs, and your final research project will allow you to apply your learning to practical challenges whilst building your professional network.
Guided by expert academics and industry specialists, you’ll graduate as an adaptable, forward-thinking engineer ready for roles in robotics design, industrial automation, manufacturing systems, and control engineering, with the skills and confidence to lead innovation worldwide.
The MSc Robotics & Automation puts you at the forefront of technological innovation, preparing you for an exciting career in one of the fastest-growing fields where you will explore cutting-edge robotics and automation technology alongside sustainable solutions.Dr James CugleyCourse 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 web page.
In this module, you will advance your understanding of embedded systems and explore their applications in robotics and intelligent automation. You will strengthen your expertise in microcontroller programming, sensor interfacing, and IoT protocols, developing the essential hardware and software skills required for sophisticated embedded systems. You will also learn to integrate power management and connectivity solutions while designing IoT applications that address key considerations such as scalability, energy efficiency, and data privacy. The module emphasises practical, hands-on learning and project activities that reflect real-world challenges. By the end of this module, you will be fully prepared to design, implement, and optimise intelligent embedded systems, equipping you to make a meaningful impact in robotics, automation, and IoT-driven industries.
This module is designed to equip you with a strong foundation in core subject areas, progressing from fundamental concepts to advanced applications in robotics. You will explore mechatronic systems, including integrating sensors, actuators, and various control mechanisms such as hydraulic, pneumatic, electrical, and hybrid systems. Additionally, you will gain an in-depth understanding of robotics, focusing on manipulators, rotation and velocity kinematics, forward and inverse kinematics, dynamics, and trajectory planning. You will gain practical experience to analyze, design, and implement mechatronic and robotic systems in real-world applications. Through a combination of theoretical study and hands-on projects, the module also addresses safety considerations in robotics and current trends in the field.
In this module, you will gain an advanced understanding of industrial control and automation systems. You will explore the principles of control theory, PID control, and their applications in modern industrial environments. You will learn how to design, analyse, and implement control systems, with particular emphasis on Programmable Logic Controllers (PLCs) and Human-Machine Interfaces (HMIs). Through guided practice, you will develop skills in system modelling and troubleshooting, giving you both the theoretical knowledge and the practical confidence to solve complex automation challenges. As you progress, you will also address the growing importance of cybersecurity in industrial settings. By the end of the module, you will be equipped to evaluate, design, and optimise automation systems for advanced industrial applications.
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.
This MSc programme aims to enhance both your technical expertise and employability skills. Within this framework, you will:
The programme is structured around the Conceive–Design–Implement–Operate (CDIO) framework, which emphasises the industrial relevance of your learning. You will take part in active, interdisciplinary group projects and problem-based learning activities, many of which are industry-sourced and include direct industrial involvement.
Your learning experience will include a blend of in-person lecture, workshop and practical sessions in robotics, control, mechanical, and computing laboratories, alongside theoretical and applied learning.
To further enhance your learning experience, additional support workshops will be provided. These may include sessions on mathematics and statistics, career development and training, as well as open-access workshops where you can use the machine shop and engineering lab facilities for your own development and experimentation.
Ultimately, this MSc programme is designed to build upon the skills and knowledge you developed as an undergraduate, fostering an inquisitive mindset and enhancing your ability to systematically solve and critically analyse complex engineering problems, while strengthening your professional and technical capabilities.
You can expect to dedicate approximately 300 hours of your time to this course. This includes class attendance, independent study, group work, and preparation for assessments. While this may seem like a significant investment, it is important to remember that this time is crucial for developing a deep understanding of the subject matter and achieving your academic goals.
The overall course structure consists of five 30-credit modules delivered across three semesters. Each module and project is thoughtfully designed to ensure progressive learning, enabling you to build a solid foundation that supports your development through increasingly advanced topics and project activities.
For each 30-credit module, you will engage in 66 hours of contact time (6 hours per week for 11 weeks in one semester) delivered through interactive lectures, seminars, workshops, and practical sessions.
The final dissertation project will allow you to apply your acquired knowledge and skills to a complex, real-world challenge, demonstrating your ability to integrate theory, design, and practical implementation within a professional engineering context.
Module structure:
You will spend a significant portion of your time (around 190 hours in a semester for a 30-credit module) outside of scheduled classes engaging in independent learning. This involves actively reading textbooks and research articles, watching videos/tutorials to deepen your understanding of the module content, especially during project work.
Beyond scheduled contact hours, you will also benefit from guided pre-reading materials and task-based learning activities, typically amounting to 44 hours per module over 11 weeks. You will also have access to individual or group-based support sessions when required.
The MSc course is delivered by a team of experienced academics supported by highly skilled technical staff. Most members of your teaching team are also active researchers in their respective fields, ensuring that your learning is informed by the latest developments in engineering and technology.
Many of your lecturers are Chartered Engineers (CEng), Senior Fellows of the Higher Education Academy (SFHEA), and members of leading professional and research organisations, bringing a wealth of expertise that blends theoretical knowledge with real-world application.
To strengthen your understanding of industry practices, you will also benefit from guest lectures by industry professionals, who will share practical insights, case studies, and current challenges shaping the engineering sector.
In addition, PhD researchers, under academic supervision, may support tutorials or laboratory sessions, providing valuable peer guidance and sharing their research experiences. Throughout the course, you will have opportunities to participate in active research projects, enhancing both your technical expertise and research capability as you advance through your studies.
The MSc programme emphasises on practical learning using open-source, student-licensed, and cloud-based software such as MS Visual Studio Live. Learning is supported through the Blackboard Virtual Learning Environment for synchronous and asynchronous sessions, discussion boards, and chats, alongside digital tools including Padlet, Mentimeter, Socrative, Kahoot, YouTube, MS Whiteboard, MS Teams, GitHub, Autodesk, MATLAB, Simulink, COMSOL, and ANSYS.
Our teaching philosophy blends hands-on learning with research-led, industry-connected experiences. Through an interdisciplinary and CDIO-inspired approach, students evolve into industry-ready and research-focused engineers who innovate responsibly and design solutions for a better world.Dr James CugleyCourse Director
As the global robotics market is projected to reach $178.7 billion by 2033 and the industrial automation and control systems market is expected to exceed $576.99 billion by 2034, you will be entering a rapidly expanding field with exceptional career potential.
This MSc in Robotics and Automation prepares you for immediate career success while providing a strong foundation for future advancement in research, innovation, and development. You will gain advanced experimental, analytical, mathematical, and design skills, enabling you to develop innovative, sustainable, and intelligent robotics and automation solutions that address real-world industrial challenges.
Throughout the course, you will build proficiency in robotics systems design, automation technologies, and control engineering, while integrating essential considerations such as sustainability, safety, ethics, and stakeholder impact. The curriculum, developed in collaboration with industry partners and aligned with Engineering Council standards, ensures that you graduate with the technical expertise and professional skills demanded by employers.
You will be well-prepared for roles across sectors including robotics, aerospace, advanced manufacturing, and industrial automation. Roles might include:
Previous graduates have secured positions in leading companies such as Collins Aerospace and Multipanel UK, showcasing the programme’s strong industry relevance and career impact.
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.Wirebelt, UK manufacturing company
| 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.
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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.