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MEng Mechatronic Engineering

University of Southampton

Institution
University of Southampton
Level
undergraduate
Subject
Mechatronic Engineering
Duration
4 years
UCAS code
HHH6
Typical offer
A-level A*AA, IB 38

Entry requirements

A level: A*AA including mathematics (minimum grade A) and either physics, electronics or further mathematics (minimum grade A) IB: Pass, with 38 points overall with 19 points required at Higher Level including 6 at Higher Level in Mathematics (Analysis and Approaches) or 7 at Higher Level in Mathematics (Applications and Interpretation), and 6 at Higher Level in Physics

About this course

Master of Engineering in Mechatronic Engineering, a mechanical engineering and robotics engineering degree focused on advanced systems and machine development. Core topics include Programming, Systems Design, Circuit Design, Computer Architecture, Embedded Systems, Signal Processing, Microelectronics, Control Systems, Statistics, Mathematical Modelling, Research Methods, Critical & Analytical Thinking, and Artificial Intelligence & Machine Learning. This four-year master's programme is accredited by the Institution of Engineering and Technology to fully meet the academic requirements for registration as a Chartered Engineer, and shares a curriculum with the corresponding three-year bachelor's degree while adding an advanced fourth year of study. The first year covers foundational engineering through compulsory modules such as Circuits, Digital Systems, and Programming, alongside practical laboratory work and mathematical foundations. The second year progresses into specialised topics with compulsory study in Control and Systems Engineering, Electrical Machines and Drives, and Programming and Modelling Mechatronic Systems. The third year continues the core technical education through modules including Mechanical Power Transmission and Vibration alongside the Part III Individual Project Phase 1 and Part III Individual Project Phase 2. Students can further tailor their studies in later stages by selecting from numerous optional modules spanning areas such as automotive chassis design, power electronics, and intelligent mobile robotics. The final year culminates in intensive collaborative work through the Group Design Project, alongside options for advanced study in specialist topics and an individual research project.

Modules

  • Circuits
  • Digital Systems
  • ELEC Part One Laboratory Programme
  • Electronic Systems and Devices
  • Engineering Mathematics
  • Fields, Forces and Materials
  • Introduction to Signals, Control and Communications
  • Mathematics
  • Programming
  • Applied Electromagnetism
  • Communications
  • Control and Systems Engineering
  • Design
  • Electrical Machines and Drives
  • Electrical and Mechanical Materials
  • Programming and Modelling Mechatronic Systems
  • Signal Processing
  • Fluids and Mechanical Materials
  • Mechanical Power Transmission and Vibration
  • Part III Individual Project Phase 1
  • Part III Individual Project Phase 2
  • Advanced Partial Differential Equations
  • Automotive Chassis and Powertrain
  • Biosensors and Diagnostics
  • Control System Design
  • Digital Control System Design
  • From Data to Dynamical Model: System Identification
  • Guidance, Navigation and Control
  • Imaging for Digital Health and Bioscience
  • Integral Transform Methods
  • Introduction to Bionanotechnology and Computational Biology
  • Manufacturing and Materials
  • Operational Research
  • Power Electronics
  • Power Systems Engineering
  • Power Systems Technology
  • Precision Health: Machine Learning Under Uncertainty
  • Robot Kinematics and Dynamics
  • Space Systems Engineering
  • Group Design Project
  • Industrial Studies
  • Advanced Micro and Nanosystems
  • Applied Control Systems
  • Electronics for Spacecraft
  • From Data to Dynamical Model: System Identification
  • High Voltage Insulation Systems
  • Individual Research Project
  • Intelligent Mobile Robotics
  • Medical Electrical and Electronic Technologies
  • Microfluidics and Lab-on-a-Chip
  • Microsensor Technologies
  • Modelling with Differential Equations
  • Nonlinear Control of Aerospace Systems
  • Numerical Methods
  • Power Distribution: Design, Operation and Protection
  • Power Electronics for DC Transmission
  • Power Generation: Technology and Impact on Society
  • Power System Dynamics, Stability and Control
  • Power Systems Operation and Economics