MEng (Hons) Mechanical Engineering Integrated Master's degree at Keele University

Build the foundations of engineering by discovering how mechanics, materials, and energy principles shape the world around us. This hands-on module blends theory with practical experience, testing structures, analysing materials, building electrical circuits, and fabricating components. You'll master the fundamentals of static systems and develop the technical and reporting skills needed to succeed across engineering fields.

You will be introduced to essential mathematical concepts and techniques to engineering to help develop your confidence in applying algebra, trigonometry, calculus, matrices, and vectors to solve real-world engineering problems. Additionally, you will gain hands-on experience with computational tools like Python, enhancing your skills in mathematical analysis and problem-solving for modern engineering challenges.

Explore how motion, energy, and materials interact in real-world engineering systems. This hands-on module covers fluid mechanics, thermodynamics, material behaviour, and both analogue and digital electronics. You'll investigate heat transfer, fluid flow, material deformation, and electronic circuits through structured laboratory experiments, computational modelling, and workshop fabrication. By combining theory with practical skills, you'll develop the ability to analyse, design, and communicat

Programming and algorithmic thinking are essential for engineering problem solving. We will help develop your practical skills in using modern computational platforms such as Python, MATLAB, and Jupyter to model and analyse engineering systems effectively. You will also gain a solid understanding of numerical methods and visualisation techniques essential for modern engineering applications.

Here, we introduce you to mechanical engineering practice, combining practical skills, core scientific principles, and professional development. We will cover laboratory techniques, design and prototyping, and CAD, alongside an exploration of mechanical engineering industries, sustainability, and professional ethics. You will develop key skills in teamwork, communication, and project management by applying your learning in a collaborative mechanical engineering group challenge.

Build your expertise in advanced static and steady-state engineering applied to complex and real-world components and devices. You will study the influences of combined mechanical and thermal loading, fracture mechanics, composite materials, and steady-state heat transfer, alongside introductory mechatronics. Through integrated laboratory and fabrication work, you'll design and implement novel testing methods suited to evaluate performance and potential failure of engineering components and devi

You will develop advanced mathematical skills for engineering analysis, control, systems, and simulation. Topics include differential equations, Laplace and Fourier transforms, probability, statistics, numerical integration, and vector calculus, all applied to real engineering contexts such as fluid flow, electromagnetics, and system modelling. Using MATLAB and Python, you will implement these methods to solve practical problems, gaining both analytical expertise and computational proficiency. T

Explore how advanced engineering principles are applied to analyse and improve complex systems. Topics include fluid mechanics, materials behaviour, thermodynamics, and electrical/electronic systems, supported by computational methods and mechatronics. Through practical workshops and experimental projects, you'll work on real-world challenges such as renewable energy systems, hydrogen fuel cells, and dynamic control technologies. Combining theory, problem-solving, and hands-on experience, this m

You will explore systems thinking and engineering across disciplines, combining theory, modelling, and practical applications. You will develop skills in AI-based modelling, analysis techniques, and systems frameworks, while enhancing problem-solving, communication, and teamwork abilities. Through cross-disciplinary projects, you will apply concepts to real-world challenges in infrastructure, mechatronics, and process optimisation. This module equips you with the knowledge and practical tools to

You will develop practical and theoretical skills in mechanical engineering, focusing on manufacturing systems, mechanical design, thermofluid analysis, and advanced materials. The module covers manufacturing process design, quality systems, automation, and supply chain management, with an emphasis on sustainability and Industry 4.0 technologies such as digital twins, IoT-enabled systems, and predictive maintenance. You will apply engineering design principles using CAE tools, explore structural

We will develop your expertise in designing sustainable engineering processes and products. You will study renewable energy technologies, energy storage systems, advanced functional materials, and their integration into transport, domestic, and industrial applications. Through research-led learning and practical modelling, you will perform decarbonisation assessments, analyse life-cycle impacts, and evaluate emerging innovations to equip you with the technical, analytical, and communication skil

You will explore robotics and automation in the clean energy transition, covering applications such as wind turbine assembly, solar panel maintenance, hydrogen production, and battery manufacturing. You will learn robotic architectures, sensors, actuators, PLC and ROS programming, motion planning, and energy-efficient automation. Industry 4.0, sustainability, and safety are integrated throughout.

You will tackle a real-world engineering challenge within your chosen specialism, developing your ability to define research objectives and plan projects independently. You will review existing literature, apply experimental, computational, or analytical methods, and gather and interpret data critically. You will also undertake laboratory and fieldwork, developing practical and technical skills. Finally, you will communicate your findings effectively through a professional report and oral presen

You will explore interdisciplinary engineering by integrating mechanical, civil, electrical, and chemical principles to solve real-world challenges, from renewable energy systems to disaster relief shelters. You will develop professional skills in teamwork, leadership, and communication while applying project management, sustainability assessment, and technical design. You will work on collaborative projects, gaining hands-on experience and confidence to deliver impactful engineering solutions t

You will explore advanced mechanical engineering for automotive and aeronautical applications, focusing on sustainability, renewable materials, and energy-efficient systems. You will gain hands-on experience with high-precision and additive manufacturing, advanced design tools, and simulation-based validation. You will also develop professional skills in ethics, regulation, teamwork, and portfolio building, preparing for a successful engineering career. Through a sector-themed group project, you

Here, we will help you to take a structured, reflective approach to your professional growth as engineers. You will develop advanced capabilities needed for modern engineering practice through engagement with project management, technical skill-building, research exploration, and career planning. We provide you opportunities to engage with industry developments, specialist tools, and professional networks to help prepare you for post-graduation and the next stage of your career, including furthe

You will explore cutting-edge engineering topics in sustainability, renewable energy, and contemporary challenges. You will choose four specialist topics tailored to your engineering interests, guided by expert academic staff. You will develop your independent learning, critical thinking, and problem-solving skills, applying engineering principles to real-world, complex challenges. This module gives you the chance to deepen your expertise, shape your own learning journey, and prepare for a succe

Experience the full lifecycle of a mechanical engineering project, from concept to completion. In Semester 1, you will work in teams to define the project, analyse stakeholder needs, review literature, and develop conceptual and detailed designs using CAD/CAE and material selection tools. You will fabricate, assemble, and test prototypes to meet design requirements. In Semester 2, you will pursue an individual research topic, undertake advanced testing or simulation, analyse and optimise results