University of York
Master of Engineering Honours in Medical Engineering
The Master of Engineering Honours in Medical Engineering in Health Professions is offered by University of York.
Program Length: 4 YEARS.
Master of Engineering Honours in Medical Engineering offered by the University of York
Create technology that could help save lives and change them for the better.Sophisticated engineering is at the heart of healthcare systems around the world.As part of this innovative course, you'll study the electrical, electronic and mechanical aspects of healthcare in the context of a wider education in engineering.You'll develop a specialist knowledge of medical engineering concepts and learn how to create technology that could have a huge impact on clinical systems, diagnosis and care.They build employability into every aspect of our courses, meaning that alongside developing an in-depth understanding of your subject, you'll gain a range of transferable skills that will allow you to take on a career in a number of sectors and thrive in management roles.
Course contentAt the beginning of your course, you'll develop a solid foundation in mechanical, electrical and electronic principles and programming.You'll take part in extensive laboratory sessions and hands-on project work, during which you'll have the chance to build an innovative medical device, a maze-solving robot and an autonomous underwater vehicle.In the final two years of your course, you'll begin to specialise in medical engineering. You'll study topics in clinical and biomedical engineering and consider the role of electronics in medicine. You'll also be able to choose a number of option modules, meaning you can learn more about other aspects of the discipline.Study abroadThere are opportunities for you to spend time abroad during your course:Explore global opportunitiesYear 1Year 1 provides you with a grounding in engineering mathematics, electronics and circuits, electrical machines, materials and mechanics, and programming for microcontrollers. There's a strong emphasis on mathematics and computing, including learning the C programming language.You'll also develop your practical skills, designing and building complete products as part of laboratories and group projects. You’ll build an innovative wearable medical device for measuring Parkinson’s, essential tremor and Dystonia as part of a hands-on practical project.Stage 1 Project (20 credits)
Core modulesMathematics (30 credits)Introduction to Electronics and Electrical Circuits (20 credits).Introduction to Electrical Machines (10 credits)Programming for Microcontrollers (10 credits)Materials and Mechanics (30 credits)
Academic integrity moduleIn addition to the above you will also need to complete the online Academic Integrity module.Year 2In Year 2 you'll learn to analyse and design hardware and software systems. You'll study material including sensors and signal processing, fabrication and manufacturing, thermodynamics, AC machines and power electronics, and electronic applications essential for medical engineering.An advanced construction project gives you the opportunity to apply your skills of design, engineering, problem-solving and project management. You’ll build a floating or submersible vehicle to intelligently map the characteristics of a closed body of water, and work with medically related sensors, data capture and analysis for capturing and analysing contaminants.Stage 2 Project (30 credits)
Core modules
Engineering Mathematics, Signals and Systems (20 credits)
Manufacturing and Fabrication (20 credits)This module introduces many of the processes that are used for creating parts, including machining (turning, milling, boring, grinding); EDM and etching; welding and brazing; adhesives and fasteners; forming (bending, stamping); casting and moulding; and additive manufacturing.
Thermo-dynamics and Fluid Dynamics (20 credits)This module includes an introduction to the flow of fluids (fluid dynamics) and the flow of energy (thermodynamics), both fundamental concepts to a wide range of engineering systems.
Sensors, Noise and Filters (20 credits)You’ll learn about the processing and digitisation of electronic signals from sensors. This module includes techniques for analysing AC circuits using phasors and complex impedances, the effects of non-ideal passive components, and the design of filters. You’ll look at examples of several common sensor types; including pressure, light, proximity and temperature sensors.
AC Machines and Power Electronics (10 credits)You’ll develop your understanding of electrical machines by introducing the operational principles and characteristics of AC motors and generators, three-phase circuits and complex power. You’ll also look at the design and operation of common AC-DC and DC-AC power converters.Year 3In Year 3 you'll study a range of advanced core and optional modules in biomedical engineering, control, MEMS, clinical engineering and management. You can focus on your interests, or investigate a new aspect of medical engineering such as human-robotic interaction.Throughout the year you'll work on a major individual project, using the knowledge and skills you've developed to research and design a solution to a medical engineering challenge.Stage 3 Project (40 credits)
Core modulesMechanics and MEMS (10 credits)Control (10 credits)Management (10 credits)Clinical Engineering (10 credits)Biomedical Engineering (10 credits)
Option modulesAccounting and Finance (10 credits)Communication Systems (10 credits)Principles of DSP (10 credits)Human-Robot Interaction (10 credits)Composite Materials (10 credits)MEMS: Materials, Manufacturing and Measurement (10 credits)Year 4In your final year, you'll study two core modules in electronics for medicine and future healthcare engineering technologies, and select two specialised courses in Medical Engineering such as biologically-inspired computation and machine vision.You'll also complete your MEng Individual Project, worth 80 credits. You'll work individually on a major project which will develop your capacity to think independently and creatively about a specific area of electronic engineering.You'll develop advanced skills in problem-solving, critical evaluation and writing concise technical reports. You'll also be able to present and defend your work.Stage 4 Individual Project (80 credits)
Core modulesElectronics for Medicine (10 credits)Future Healthcare Engineering Technologies (10 credits)
Option modulesSkills for Business Leadership (10 credits)Machine Vision (10 credits)Biologically Inspired Computation (10 credits)Sensors and Instrumentation (10 credits)Strategic Management (10 credits)