Biomedical Engineering with Foundation Year - BEng/MEng

Mathematics plays a key role in establishing and grounding the professional skills of an engineer. Communicating the ideas of engineering is made both easier and harder by the use of mathematical language.

This module aims to help you become proficient at further developing engineering models and arguments, and following them through to their logical conclusions, since application of these arguments has to include their interpretation both to and from the mathematical language.

This module aims to provide you with the practical and professional skills to enable you to progress to the next module in the practical theme, Practical Skills II, and then on to the first year of an engineering degree.

This module aims to provide the practical and professional skills to enable you to progress to the first year of an engineering degree.

The module aims to provide you with the knowledge and problem solving skills in physical science to enable you to progress to the next module in the science theme, Foundation Science II, and then on to the first year of an engineering degree.

The module aims to provide you with the knowledge and problem solving skills in physical science to enable you to progress to the first year of an engineering degree. The science theme contains the material normally encountered in an A level physics course which is relevant to entry to an engineering degree. As the practical aspects of physical science are delivered in another theme of the foundation year, the Foundation Science modules concentrate on the theoretical aspects.

The module aims to provide the underpinning knowledge and problem solving skills in engineering science to enable you to progress to the next module in the theme, Engineering Principles II, and then on to the second year of a range of engineering degrees.

Mathematics plays a key role in establishing and grounding the skills of an engineer, and the ability to communicate the ideas of engineering that are expected of an engineering graduates.

The module aims to provide the underpinning knowledge and problem solving skills in engineering science to enable you to progress to the second year of a wide range of engineering degrees. As the practical aspects of engineering science are delivered in another theme of the common first year, the Engineering Principles modules concentrate on the theoretical aspects. The subject material will be delivered in two coherent streams one of which contains predominantly mechanical science and the other contains predominantly electrical science.

The module aims to provide the practical and professional skills to enable you to progress to the next module in the practical theme, Practical Skills 2, and then on to the second year of an engineering degree. As the theoretical aspects of physical science and maths are delivered in other themes of the first year, the Practical Skills modules concentrate on the practical aspects.

This module will focus on introducing and building on well-established techniques for mathematically modelling dynamic systems (systems of interest for engineering) for contextualised engineering applications. The module will include an introduction to sophisticated signal analysis technique, Fourier series, which is used to transform time-domain signals into their frequency spectra.

This module is designed to give you a sound understanding of essential human anatomy and physiology, providing a solid foundation for biomedical engineering applications. It is intended that by studying this module you will develop your knowledge and understanding of functions and mechanisms of cells, tissues, organs and organ systems, and appreciate how they interact and communicate to make the human body function optimally in an ever changing environment. It will focus on areas of pathology that provide opportunities and challenges to biomedical engineers to intervene and correct with the latest technology where biology alone is insufficient.

Information is the basic thread of life and signals are the medium by which information is passed. This module will focus on classifying and mathematical modelling of signals and systems in the context of Electrical and Biomedical engineering.

During the module analytical techniques will be introduced used to transform signals from one domain to another and vice versa. While mathematical techniques will be used and contextualised for actual system hardware.

Information is the basic thread of life and signals are the medium by which information is passed. This module will focus on classifying and mathematical modelling of signals and systems in the context of Electrical and Biomedical engineering.

This module introduces you to the fundamentals of analogue and digital electronics using a circuit approach. It has been designed to give you a usable level of electronics theory to demonstrate key concepts.

If conducted in the right way biomedical engineering research and design of medical devices will contribute to improved healthcare and quality of life, but too much time and resources are wasted on badly designed and conducted research. This module is designed to give you the necessary skills and knowledge required to design, execute and disseminate a research project in biomedical engineering.

This module will enable you to build upon the knowledge and skills that you have developed earlier as part of this programme. It is intended that by engaging in this module, you will be able to develop a sound understanding of application of physics in medicine and thereby its application in the field of medical imaging.

This module will build upon the foundation knowledge and skills that you have developed earlier as part of this programme. It is intended that by engaging in this module, you will be able to apply various principles underpinning; science, biology and medicine alongside mechanical, electrical and electronic engineering in acquiring measurements from various physiological systems.

It is intended that by engaging in this module, you will be able to demonstrate creativity in your approach to integrate engineering principles, skills and knowledge to plan, design, execute and communicate a sustained piece of independent work, critically addressing a specific question by bridging the gap identified in the literature of Biomedical Engineering.

This module will build upon the common engineering science / skills that you have developed earlier as part of this programme. It is intended that by engaging in this module, you will be able to develop a sound understanding of the physical principles and concepts underpinning the mechanics of living system and human body, which is the basis of movement science.

This module will build upon the common engineering science / skills that you have developed earlier as part of this programme. It is intended that by engaging in this module, you will be able to develop a sound understanding of; the material science and apply the concepts underpinning the interaction of substances, engineered for medical applications, with biological system.

This module will build upon the knowledge and skills that you have developed earlier as part of this programme. It is intended that by engaging in this module, you will be able to develop a sound understanding of; the working principle, operation and troubleshooting procedures of various lower order and higher order medical devices used for medical applications within a health care setting.

This module will enable you to build upon the knowledge and skills that you have developed earlier as part of this programme. It is intended that by engaging in this module, you will be able to develop a sound understanding of; digital image processing, medical image analysis and application within medical image processing.

The group research project will be undertaken by a project team comprising of 3 students (maximum). It is intended that by engaging in this module, you and your team will be able to demonstrate creativity in your approach to integrate engineering principles, skills and knowledge to plan, design, execute and communicate a sustained piece of team work, critically addressing a specific question by bridging the gap identified in the literature of Biomedical Engineering. It is an opportunity to complete an extended piece of work around a topic of common interest that your team is very keen about, in order to demonstrate your competence in reviewing the literature, critically appraising and evaluating the given evidences, and applying your knowledge in the pursuit of excellence, either within the University or an industry setting, as part of a project team. In order to meet the module outcomes, you will be drawing upon the various professional and technical skills that you have developed in the first three years of your degree.

Digital Signal Processing (DSP) is an emerging field in electronic engineering which has been rapidly growing over the last few decades. In DSP, data is converted from the continuous domain into the discrete domain and processed as scalar dimensionless values. When compared to Analogue (continuous time) processing, Digital (discrete time) processing has a number of tangible benefits including, but not limited to, repeatability, cost, response which is a closer approximation to ideal characteristics. DSP has applications in wide range of disciplines ranging from biomedical electronics to media.

At an advanced level, this module will introduce you to various management protocols and procedures used within a Medical Devices / Health Care Sector to effectively manage a medical technology. It is intended that by undertaking this module at Master’s Level (Level 7), you will be able to develop essential skills associated with the management of health care technology by undertaking strategic activities to inform your decision making so as to update an existing technology or implement the essential change(s) at your work. These are the bespoke advanced level skills that you will need to acquire for your continuous professional development and career progression in the field of biomedical engineering.

At an advanced level, this module will introduce you to the technical concepts underpinning the design of SMART ultrasonic sensors for Biomedical Engineering applications. It is intended that by undertaking this module at Master’s Level (Level 7), you will be able to apply and appreciate various technical skills pertaining to the; technical design and development of the bespoke biomedical sensor technology, which encompasses; sensor modelling, sensor hardware design aspects, sensor interface with mobile applications and using artificial intelligence to predict the performance of the same for various biomedical engineering / health care applications. Strictly speaking these are the bespoke advanced level skills that you will need to acquire for your continuous professional development and career progression in the field of biomedical engineering.

This module explicitly addresses students’ personal and/or professional development with a view to enhancing competence for service improvement in a rapidly changing health and healthcare environment. Through a flexible provision, students are inspired to reflect critically upon their individual learning needs as well as their organisations’ practices, to appraise and apply concepts from the literature on leadership to issues of relevance for their role, organisation and overall programme of study.