ELECTROMECHANICAL ENGINEERING

Uncover the fundamental principles and objectives of control engineering, essential for operating complex systems. Develop mathematical models for physical systems, including electrical, mechanical, and thermal processes. Learn advanced techniques such as Bode plots and Nyquist plots for time and frequency response analysis and system stability. Gain practical expertise designing and tuning PID control systems using professional software tools like MATLAB.

Gain essential knowledge of fluid mechanics principles to predict and control fluid behaviour in diverse engineering applications. Study fundamental concepts including viscosity, Bernoulli's equation, laminar flow, and pressure loss in pipework. Analyse thermodynamics, applying the First and Second Laws to model various systems and heat engine cycles (e.g., Carnot, Otto). Master mathematical modelling techniques to calculate energy transfer, heat loss, and work done in thermodynamic systems.

Become a pivotal engineer in tackling global warming by studying efficient renewable energy use and sustainability. Gain a deep understanding of the three pillars of sustainability and the transition toward a global circular economy. Learn how engineering decisions impact business through Whole Life Cycle Analysis (LCA) and eco design principles. Evaluate energy production/consumption and appraise sustainable solutions through detailed product teardown and analysis.

Delve into the future of production by exploring Smart Manufacturing and the key principles of fully digitised factories. Study cutting-edge technologies like the Industrial Internet of Things (IIoT), Artificial Intelligence (AI), and digital twins. Identify how connectivity and data analytics optimise processes, allowing for predictive maintenance and enhanced environmental benefits. Analyse manufacturing processes (MPA) and prepare for the professional role of an engineer in the advanced smart factory environment.

Master mechatronics: the synergistic integration of mechanical, electrical, electronic, computer, and control engineering. Learn to adopt a holistic 'system level' view, breaking complex integrated systems into appropriate mechanical, electrical, and software components. Select suitable sensors, signal conditioning, processors, and actuators to achieve sophisticated functional goals. Gain expertise using industry-standard tools to model and simulate a complete mechatronic system before physical construction.

Explore the theory and practice of Virtual Engineering and Simulation to rapidly accelerate product innovation. Use industry-standard 3D software to develop and analyse electro-mechanical products using Finite Element Analysis (FEA) and Computational Fluid Dynamics (CFD). You will work in a group to solve a real-world engineering problem, applying design processes from conception to detailed prototype. Assess system performance and optimise kinematic operation by modelling complex engineering problems using powerful simulation software.

Step into the pervasive world of embedded systems, the dedicated computing power behind our cars and offices. Engage in a hands-on project to design, build, test, and present an embedded system using an Arduino-compatible controller. You will learn structured software development, reading complex sensors, and controlling output devices like servo motors. Integrate your previous electronics and software knowledge to define and demonstrate a complete, stand-alone system.

Take your skills to the next level by connecting electronic devices remotely in the fascinating and rapidly growing world of IoT. Analyse the core architecture of IoT systems, from the device layer to communication protocols and cloud applications. Implement and evaluate data storage in an IoT cloud to facilitate critical remote access and configuration of systems. Define, design, build, and demonstrate a complete, stand-alone IoT system ready to meet a given engineering specification.

Explore Industry 4.0, the global digital transformation integrating automation and data exchange in modern manufacturing. Learn how to fully digitalise industrial environments, connecting engineering development, manufacturing, and the supply chain. Study cyber-physical systems, IIoT, and Smart Factories to optimise production and efficiency on a global scale. Develop practical skills by building a web-based application to sense, monitor, and control real-world systems.

Acquire the crucial professional and leadership skills necessary to successfully run industrial projects in your engineering career. Study modern theories and methodologies (e.g., PRINCE2 and LEAN) and apply sustainable project management practices. Develop comprehensive project plans, including time scheduling (Gantt charts), cost control, and rigorous risk analysis. Participate in practical case studies to appraise team performance and master essential monitoring and project closure techniques.

Undertake a detailed, in-depth independent project on an electromechanical topic within your own field of interest. Consolidate your entire degree learning by researching literature, analysing a problem, and proposing innovative solutions. Develop crucial professional skills: project planning (SMART objectives, Gantt charts), risk analysis, and critical reporting. Demonstrate your ability to function as a professional engineer through comprehensive documentation and a final presentation.