MEng Biomedical Engineering with Industrial Studies
Entry requirements
A level: A*AA including mathematics (minimum grade A) and either biology, chemistry or physics (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 either Physics, Chemistry or Biology
About this course
Master of Engineering in Biomedical Engineering with Industrial Studies, a biomedical engineering and electrical and electronic engineering degree spanning biomedicine, electronics, and computer science across five years. Core topics include Programming, Systems Design, Circuit Design, Computer Architecture, Embedded Systems, Signal Processing, Microelectronics, Control Systems, Data Analysis, Statistics, Mathematical Modelling, Research Methods, Engineering Design, and Artificial Intelligence & Machine Learning. The programme features a one-year industrial placement in industry and specific study pathways covering Electronic Systems, Mechatronics for Health, Digital Health, and Artificial Intelligence. The first year builds foundational skills through Applied Biomechanical Mathematics, BIOM Part One Laboratory Programme, Biomedical Engineering Mathematics, Digital Systems, From Molecules to Life, Introduction to Biomedical Engineering, Programming I (BIOM), Programming II (BIOM), and Sensor Interfaces. The second year advances technical capabilities with Algorithms and data, Artificial Intelligence, Biomechatronics, Biomedical Engineering Design, Control and Systems Engineering, Digital Health Principles, Fundamentals of Cell Biology and Biomaterials, Semiconductor Devices and Sensors, Signal Processing, and Statistical Modelling I. The third year incorporates core study in Advanced Databases, Biosensors and Diagnostics, Machine Learning Technologies, Part III Individual Project Phase 1, Part III Individual Project Phase 2, and Robot Kinematics and Dynamics, alongside optional topics such as Advanced Computer Architecture, Advanced Partial Differential Equations, Analogue and Mixed Signal Electronics, Bioinformatics and Systems Biology, Biomaterials, Cloud Application Development, Computational Biology, Computer Vision, Control System Design, Digital IC and Systems Design, Embedded Networked Systems, Engineering Replacement Body Parts, Fluids and Mechanical Materials, From Data to Dynamical Model: System Identification, Global Health, Imaging for Digital Health and Bioscience, Interaction Science, Manufacturing and Materials, Mechanical Power Transmission and Vibration, Natural Language Processing, Operational Research, Orthopaedic Biomechanics, Precision Health: Machine Learning Under Uncertainty, Principles of Neuroscience, Real-Time Computing and Embedded Systems, Security of Cyber Physical Systems, and Signal and Image Processing. The fourth year includes compulsory modules in Data Mining, Deep Learning Technologies, Group Design Project, Industrial Studies, and Interdisciplinary Thinking, with further optional choices spanning Advanced Micro and Nanosystems, Applied Control Systems, Biological Materials and Biomedical Devices, Biometrics, Data Economy, Data Visualisation, Foundations of Data Science, Intelligent Mobile Robotics, Introduction to Quantum Computing, Knowledge Graphs for AI Systems, Microfabrication, Microfluidics and Lab-on-a-Chip, Microsensor Technologies, Mobile Applications Development, Numerical Methods, Optimisation for Machine Learning, Research Topics on Interaction Science, Secure Hardware and Embedded Devices, and Simulation Modelling for Computer Science.
Modules
- Applied Biomechanical Mathematics
- BIOM Part One Laboratory Programme
- Biomedical Engineering Mathematics
- Digital Systems
- From Molecules to Life
- Introduction to Biomedical Engineering
- Programming I (BIOM)
- Programming II (BIOM)
- Sensor Interfaces
- Algorithms and data
- Artificial Intelligence
- Biomechatronics
- Biomedical Engineering Design
- Control and Systems Engineering
- Digital Health Principles
- Fundamentals of Cell Biology and Biomaterials
- Semiconductor Devices and Sensors
- Signal Processing
- Statistical Modelling I
- Advanced Databases
- Biosensors and Diagnostics
- Machine Learning Technologies
- Part III Individual Project Phase 1
- Part III Individual Project Phase 2
- Robot Kinematics and Dynamics
- Advanced Computer Architecture
- Advanced Partial Differential Equations
- Analogue and Mixed Signal Electronics
- Bioinformatics and Systems Biology
- Biomaterials
- Cloud Application Development
- Computational Biology
- Computer Vision
- Control System Design
- Digital IC and Systems Design
- Embedded Networked Systems
- Engineering Replacement Body Parts
- Fluids and Mechanical Materials
- From Data to Dynamical Model: System Identification
- Global Health
- Imaging for Digital Health and Bioscience
- Interaction Science
- Manufacturing and Materials
- Mechanical Power Transmission and Vibration
- Natural Language Processing
- Operational Research
- Orthopaedic Biomechanics
- Precision Health: Machine Learning Under Uncertainty
- Principles of Neuroscience
- Real-Time Computing and Embedded Systems
- Security of Cyber Physical Systems
- Signal and Image Processing
- Data Mining
- Deep Learning Technologies
- Group Design Project
- Industrial Studies
- Interdisciplinary Thinking
- Advanced Micro and Nanosystems
- Applied Control Systems
- Biological Materials and Biomedical Devices
- Biometrics
- Data Economy
- Data Visualisation
- Foundations of Data Science
- Intelligent Mobile Robotics
- Introduction to Quantum Computing
- Knowledge Graphs for AI Systems
- Microfabrication
- Microfluidics and Lab-on-a-Chip
- Microsensor Technologies
- Mobile Applications Development
- Numerical Methods
- Optimisation for Machine Learning
- Research Topics on Interaction Science
- Secure Hardware and Embedded Devices
- Simulation Modelling for Computer Science
- Web and Cloud Applications Development