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The Institute of Biomaterials and Biomedical Engineering (IBBME) offers facilities for research in biomedical engineering and for three educational programs leading to master’s and doctoral degrees. Read more
The Institute of Biomaterials and Biomedical Engineering (IBBME) offers facilities for research in biomedical engineering and for three educational programs leading to master’s and doctoral degrees. Students may be registered in the Master of Applied Science (MASc), Master of Engineering (MEng), Master of Health Science (MHSc), or Doctor of Philosophy (PhD) programs through the institute. Students interested in the Collaborative Program in Biomedical Engineering may register through one of the collaborating graduate units.

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Make future breakthroughs within healthcare with the MSc Biomedical Engineering with Healthcare Technology Management course. This course is for inquisitive students who want to design, develop, apply or even manage the use of cutting-edge methods and devices that will revolutionise healthcare. Read more
Make future breakthroughs within healthcare with the MSc Biomedical Engineering with Healthcare Technology Management course.

Who is it for?

This course is for inquisitive students who want to design, develop, apply or even manage the use of cutting-edge methods and devices that will revolutionise healthcare. It is open to science and engineering graduates and those working within hospitals or related industry who want to work in healthcare organisations, in the medical devices industry, or in biomedical engineering research.

The course will suit recent graduates and/or clinical engineers with a technical background or those working in healthcare who want to move into a management position.

Objectives

With several medical conditions requiring extensive and continuous monitoring and early and accurate diagnosis becoming increasingly desirable, technology for biomedical applications is rapidly becoming one of the key ingredients of today and tomorrow’s medical care.

From miniaturised home diagnostic instruments to therapeutic devices and to large scale hospital imaging and monitoring systems, healthcare is becoming increasingly dependent on technology. This course meets the growing need for biomedical and clinical engineers across the world by focusing on the design of medical devices from conception to application.

One of the few accredited courses of its kind in London, the programme concentrates on the use of biomedical-driven engineering design and technology in healthcare settings so you can approach this multidisciplinary topic from the biological and medical perspective; the technological design and development perspective; and from the perspective of managing the organisation and maintenance of large scale equipment and IT systems in a hospital.

This MSc in Biomedical Engineering with Healthcare Technology Management course has been created in consultation and close collaboration with clinicians, biomedical engineering researchers and medical technology industrial partners. The programme fosters close links with the NHS and internationally-renowned hospitals including St. Bartholomew's (Barts) and the Royal London Hospital and Great Ormond street so that you can gain a comprehensive insight into the applied use and the management of medical technology and apply your knowledge in real-world clinical settings.

Placements

In the last few years there have been some limited opportunities for our top students to carry out their projects through placements within hospital-based healthcare technology groups or specialist London-based biomedical technology companies. Placement-based projects are also offered to selected students in City’s leading Research Centre for Biomedical Engineering (RCBE). As we continue our cutting-edge research and industrial and clinical collaborations, you will also have this opportunity.

Academic facilities

As a student on this course you will have the opportunity to work with cutting-edge test and measurement instrumentation – oscilloscopes, function generators, analysers – as well as specialist signal generators and analysers. The equipment is predominantly provided by the world-leading test and measurement equipment manufacturer Keysight, who have partnered with City to provide branding to our electronics laboratories. You also have access to brand new teaching labs and a dedicated postgraduate teaching lab. And as part of the University of London you can also become a member of Senate House Library for free with your student ID card.

Teaching and learning

You will be taught through face-to-face lectures in small groups, where there is a lot of interaction and feedback. Laboratory sessions run alongside the lectures, giving you the opportunity to develop your problem-solving and design skills. You also learn software skills in certain modules, which are taught inside computer labs. We also arrange hospital visits so you gain hands-on experience of different clinical environments.

We arrange tutorials for setting coursework, highlight important subject areas, conduct practical demonstrations, and offer support with revision. You are assessed by written examinations at the end of each term, and coursework assignments, which are set at various times throughout the term.

You also work towards an individual project, which is assessed in the form of a written thesis and an oral examination at the end of the summer. The project can be based on any area of biomedical engineering, telemedicine or technology management and will be supervised by an academic or clinical scientist with expertise in the subject area. Many projects are based in hospital clinical engineering departments, or if you are a part-time student, you can base the project on your own workplace. You will have regular contact with the supervisor to make sure the project progresses satisfactorily. Some of the programme’s current students are working on a project focusing on devices that use brain signals to move external objects such as a remote control car and a prosthetic arm.

Some of the previous projects students have worked on include:
-A cursor controller based on electrooculography (EOG)
-Modelling a closed-loop automated anaesthesia system
-Design of a movement artefact-resistant wearable heart rate/activity monitor
-Review of progress towards a fully autonomous artificial mechanical heart
-Design of smartphone-based healthcare diagnostic devices and sensors.

If you successfully complete eight modules and the dissertation you will be awarded 180 credits and a Masters level qualification. Alternatively, if you do not complete the dissertation but have successfully completed eight modules, you will be awarded 120 credits and a postgraduate diploma. Completing four modules (60 credits) will lead to a postgraduate certificate.

Modules

Along with the 60 credit dissertation eight core modules cover diverse subject areas including biomedical electronics and instrumentation, technology infrastructure management, as well as the latest advances in medical imaging and patient monitoring.

The course includes a special module which gives you an introduction to anatomy, physiology and pathology designed for non-clinical science graduates.

The most innovative areas of biomedical and clinical engineering are covered and the content draws from our research expertise in biomedical sensors, bio-optics, medical imaging, signal processing and modelling. You will learn from academic lecturers as well as clinical scientists drawn from our collaborating institutions and departments, which include:
-Charing Cross Hospital, London
-The Royal London Hospital
-St Bartholomew's Hospital, London
-Basildon Hospital
-Department of Radiography, School of Community and Health Sciences, City, University of London

Modules
-Anatomy, Physiology and Pathology (15 credits)
-Physiological Measurement (15 credits)
-Biomedical Instrumentation (15 credits)
-Medical Electronics (15 credits)
-Cardiovascular Diagnostics and Therapy (15 credits)
-Medical Imaging Modalities (15 credits)
-Clinical Engineering Practice (15 credits)
-Healthcare Technology Management (15 credits)

Career prospects

This exciting MSc programme offers a well-rounded background and specialised knowledge for those seeking a professional career as biomedical engineers in medical technology companies or research groups but is also uniquely placed for offering skills to clinical engineers in the NHS and international healthcare organisations.

Alumnus Alex Serdaris is now working as field clinical engineer for E&E Medical and alumna Despoina Sklia is working as a technical support specialist at Royal Brompton & Harefield NHS Foundation Trust. Other Alumni are carrying out research in City’s Research Centre for Biomedical Engineering (RCBE).

Applicants may wish to apply for vacancies in the NHS, private sector or international healthcare organisations. Students are encouraged to become members of the Institute of Physics and Engineering in Medicine (IPEM) where they will be put in touch with the Clinical Engineering community and any opportunities that arise around the UK during their studies. Application to the Clinical Scientist training programme is encouraged and fully supported.

The Careers, Student Development & Outreach team provides a professional, high quality careers and information service for students and recent graduates of City, University of London, in collaboration with employers and other institutional academic and service departments. The course also prepares graduates who plan to work in biomedical engineering research and work within an academic setting.

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WHAT YOU WILL GAIN. - Practical guidance from biomedical engineering experts in the field. - 'Hands on' knowledge from the extensive experience of the lecturers, rather than from only the theoretical information gained from books and college reading. Read more
WHAT YOU WILL GAIN

- Practical guidance from biomedical engineering experts in the field
- 'Hands on' knowledge from the extensive experience of the lecturers, rather than from only the theoretical information gained from books and college reading
- Credibility as a biomedical engineering expert in your firm
- Skills and know-how in the latest technologies in biomedical engineering
- Networking contacts in the industry
- Improved career prospects and income
- An EIT Advanced Diploma of Biomedical Engineering

Next intake is scheduled for June 06, 2017. Applications are now open; places are limited.

INTRODUCTION

Biomedical engineering is the synergy of many facets of applied science and engineering. The advanced diploma in biomedical engineering provides the knowledge and skills in electrical, electronic engineering required to service and maintain healthcare equipment. You will develop a wide range of skills that may be applied to develop software, instrumentation, image processing and mathematical models for simulation. Biomedical engineers are employed in hospitals, clinical laboratories, medical equipment manufacturing companies, medical equipment service and maintenance companies, pharmaceutical manufacturing companies, assistive technology and rehabilitation engineering manufacturing companies, research centres. Medical technology industry is one of the fast-growing sectors in engineering field. Join the next generation of biomedical engineers and technicians and embrace a well paid, intensive yet enjoyable career by embarking on this comprehensive and practical program. It provides a solid overview of the current state of biomedical engineering and is presented in a practical and useful manner - all theory covered is tied to a practical outcomes. Leading biomedical/electronic engineers with several years of experience in biomedical engineering present the program over the web using the latest distance learning techniques.

There is a great shortage of biomedical engineers and technicians in every part of the world due to retirement, restructuring and rapid growth in new industries and technologies. Many companies employ electrical, electronic engineers to fill the vacancy and provide on the job training to learn about biomedical engineering. The aim of this 18-month eLearning program is to provide you with core biomedical engineering skills to enhance your career prospects and to benefit your company/institution. Often universities and colleges do a brilliant job of teaching the theoretical topics, but fail to actively engage in the 'real world' application of the theory with biomedical engineering. This advanced diploma is presented by lecturers who are highly experienced engineers, having worked in the biomedical engineering industry. When doing any program today, a mix of both extensive experience and teaching prowess is essential. All our lecturers have been carefully selected and are seasoned professionals.

This practical program avoids weighty theory. This is rarely needed in the real world of industry where time is short and immediate results, based on hard-hitting and useful know-how, is a minimum requirement. The topics that will be covered are derived from the acclaimed IDC Technologies' programs attended by over 500,000 engineers and technicians throughout the world during the past 20 years. And, due to the global nature of biomedical engineering today, you will be exposed to international standards.

This program is not intended as a substitute for a 4 or 5 year engineering degree, nor is it aimed at an accomplished and experienced professional biomedical engineer who is working at the leading edge of technology in these varied fields. It is, however, intended to be the distillation of the key skills and know how in practical, state-of-the-art biomedical engineering. It should also be noted that learning is not only about attending programs, but also involves practical hands-on work with your peers, mentors, suppliers and clients.

WHO WOULD BENEFIT

- Electrical and Electronic Engineers
- Electrical and Electronic Technicians
- Biomedical Equipment/Engineering Technician
- Field Technicians
- Healthcare equipment service technicians
- Project Engineers and Managers
- Design Engineers
- Instrumentation Engineers
- Control Engineers
- Maintenance Engineers and Supervisors
- Consulting Engineers
- Production Managers
- Mechanical Engineers
- Medical Sales Engineers

In fact, anyone who wants to gain solid knowledge of the key elements of biomedical engineering in order to improve work skills and to create further job prospects. Even individuals who are working in the healthcare industry may find it useful to attend to gain key, up to date perspectives.

COURSE STRUCTURE

The program is composed of 18 modules. These cover the basics of electrical, electronic and software knowledge and skills to provide you with maximum practical coverage in the biomedical engineering field.

The 18 modules will be completed in the following order:

- Basic Electrical Engineering
- Technical and Specification Writing
- Fundamentals of Professional Engineering
- Engineering Drawings
- Printed Circuit Board Design
- Anatomy and Physiology for Engineering
- Power Electronics and Power Supplies
- Shielding, EMC/EMI, Noise Reduction and Grounding/Earthing
- Troubleshooting Electronic Components and Circuits
- Biomedical Instrumentation
- Biomedical Signal Processing
- C++ Programming
- Embedded Microcontrollers
- Biomedical Modelling and Simulation
- Biomedical Equipment and Engineering Practices
- Biomedical Image Processing
- Biomechanics and Assistive Technology
- Medical Informatics and Telemedicine

COURSE FEES

What are the fees for my country?

The Engineering Institute of Technology (EIT) provides distance education to students located almost anywhere in the world – it is one of the very few truly global training institutes. Course fees are paid in a currency that is determined by the student’s location. A full list of fees in a currency appropriate for every country would be complex to navigate and, with today’s exchange rate fluctuations, difficult to maintain. Instead we aim to give you a rapid response regarding fees that is customised to your individual circumstances.

We understand that cost is a major consideration before a student commences study. For a rapid reply to your enquiry regarding courses fees and payment options, please enquire via the below button and we will respond within 2 business days.

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Medical engineering combines the design and problem-solving skills of engineering with medical and biological sciences to contribute to medical device solutions and interventions for a range of diseases and trauma. Read more

Medical engineering combines the design and problem-solving skills of engineering with medical and biological sciences to contribute to medical device solutions and interventions for a range of diseases and trauma.

This exciting and challenging programme will give you a broad knowledge base in this rapidly expanding field, as well as allowing you to specialise through your choice of optional modules.

We emphasise the multidisciplinary nature of medical engineering and the current shift towards the interface between engineering and the life sciences. You could focus on tissue engineering, biomaterials or joint replacement technology among a host of other topics.

Whether you’re an engineer or surgeon, or you work in sales, marketing or regulation, you’ll gain the knowledge and skills to launch or develop your career in this demanding sector.

Institute of Medical and Biological Engineering

You’ll learn in an exciting research environment where breakthroughs are being made in your discipline. This programme is closely linked to our Institute of Medical and Biological Engineering (IMBE), which focuses on research and education in the fields of medical devices and regenerative medicine. It focuses on innovating and translating new therapies into practical clinical applications.

Our world-class facilities in materials screening analysis, joint simulation, surface analysis, heart valve simulation and tensile and fatigue testing allow us to push the boundaries in medical engineering.

Find out more about IMBE

Accreditation

This course is accredited by the Institute of Mechanical Engineers (IMechE) under licence from the UK regulator, the Engineering Council.

Course content

One core module in Semester 1 will give you a background in experimental design and analysis within medical engineering. You’ll look at computational and biological methodologies alongside statistical data analysis and different data visualisation techniques to lay the foundations of your studies.

Optional modules in each semester will allow you to build on this knowledge and focus on specialist topics that suit your own interests and career intentions. You could focus on biomechatronics and medical robotics, spinal biomechanics, surface engineering or computational fluid dynamics analysis and a range of other topics. Depending on your academic or professional background, you may decide to take introductory modules such as Basic Orthopaedic Engineering or Structure and Function of the Body to fill the gaps in your knowledge.

Throughout the programme you’ll complete your Professional Project – an independent piece of research on a topic within mechanical engineering that allows you to demonstrate your knowledge and skills. In the two taught semesters you’ll review the literature around your topic and plan the project, before completing the design, analysis, computation, experimentation and writing up in the summer months.

If you choose to study part-time, you’ll extend your studies over a longer period so you can take fewer modules in each year.

Want to find out more about your modules?

Take a look at the Medical Engineering module descriptions for more detail on what you will study.

Course structure

Compulsory modules

  • Medical Engineering Experimental Design and Analysis 15 credits
  • Professional Project 75 credits

Optional modules

  • Biomaterials and Applications 15 credits
  • Managing for Innovation 15 credits
  • Structure and Function of the Body 15 credits
  • Spinal Biomechanics and Instrumentation (Distance Learning) 15 credits
  • Basic Orthopaedic Engineering 15 credits
  • Surface Engineering 15 credits
  • Biomaterials (Short Course) 15 credits
  • Functional Joint Replacement Technology (Short Course) 15 credits
  • Biomechatronics and Medical Robotics 15 credits
  • Biotribology 15 credits
  • Computational Fluid Dynamics Analysis 15 credits
  • Tissue Engineering 15 credits

For more information on typical modules, read Medical Engineering MSc Full Time in the course catalogue

For more information on typical modules, read Medical Engineering MSc Part Time in the course catalogue

Learning and teaching

Our groundbreaking research feeds directly into teaching, and you’ll have regular interactions with staff who are at the forefront of their disciplines. You’ll have regular contact with them through lectures, seminars, tutorials, small group work and project meetings. Some modules make use of online learning methods or a short course format.

Independent study is also important to the programme, as you develop your problem-solving and research skills as well as your subject knowledge.

Assessment

You’ll be assessed using a range of techniques including case studies, technical reports, presentations, in-class tests, assignments and exams. Optional modules may also use alternative assessment methods.

Projects

The professional project is one of the most satisfying elements of this course. It allows you to apply what you’ve learned to a piece of research focusing on a real-world problem, and it can be used to explore and develop your specific interests.

Recent projects for MSc Medical Engineering students have included:

  • Investigating aspects of wear in total disc replacements
  • Finite element analysis of tissue engineered structures
  • Determining properties of bone and cement augmentation in vertebroplasty
  • Cartilage tribology
  • Investigating 3D printing of a bone substitute

Career opportunities

Career destinations are diverse and include medical engineering within industrial or public sector organisations, regulatory affairs and sales and marketing.

Graduates from this programme have gone on to work in a range of roles for employers such as the clinical research centres, continued in a career in clinical orthopaedics, progressed to a PhD programme.

You’ll also be well prepared to continue with engineering research, whether in industry or at PhD level.

Careers support

You’ll have access to the wide range of engineering and computing careers resources held by our Employability team in our dedicated Employability Suite. You’ll have the chance to attend industry presentations book appointments with qualified careers consultants and take part in employability workshops. Our annual Engineering and Computing Careers Fairs provide further opportunities to explore your career options with some of the UK's leading employers.

The University's Careers Centre also provide a range of help and advice to help you plan your career and make well-informed decisions along the way, even after you graduate. Find out more at the Careers website



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Visit our website for more information on fees, scholarships, postgraduate loans and other funding options to study Tissue Engineering and Regenerative Medicine at Swansea University - 'Welsh University of the Year 2017' (Times and Sunday Times Good University Guide 2017). Read more

Visit our website for more information on fees, scholarships, postgraduate loans and other funding options to study Tissue Engineering and Regenerative Medicine at Swansea University - 'Welsh University of the Year 2017' (Times and Sunday Times Good University Guide 2017).

Every day we are hearing of ground breaking advances in the field of tissue engineering which offer tremendous potential for the future of regenerative medicine and health care. Staff at Swansea University are active in many aspects of tissue engineering.

Key Features of Tissue Engineering and Regenerative Medicine

We are actively researching many aspects of tissue engineering including the following areas:

- Characterisation and control of the stem cell niche

- Mechanical characterisation of stem cells and tissues

- Production of novel scaffolds for tissue engineering

- Electrospinning of scaffold materials

- Cartilage repair and replacement

- Bone repair and replacement

- The application of nanotechnology to regenerative medicine

- Wound healing engineering

- Reproductive Immunobiology

- Bioreactor design

As an MSc By Research Tissue Engineering and Regenerative Medicine student, you will join one of the teams at Swansea University working in tissue engineering and use state of the art research equipment within the Centre for NanoHealth, a collaborative initiative between the College of Engineering and Swansea University Medical School.

The MSc by Research in Tissue Engineering and Regenerative Medicine typically lasts one year full-time, two to three years part-time. This is an individual research project written up in a thesis of 30,000 words.

Aim of Tissue Engineering and Regenerative Medicine programme

The aim of this MSc by Research in Tissue Engineering and Regenerative Medicine is to provide you with a solid grounding within the field of tissue engineering and its application within regenerative medicine.

This will be achieved through a year of research in a relevant area of tissue engineering identified after discussion with Swansea academic staff. Working with two academic supervisors you will undertake a comprehensive literature survey which will enable the formulation of an experimental research programme.

As a student on the MSc by Research Tissue Engineering and Regenerative Medicine course, you will be given the relevant laboratory training to undertake the research program. The research will be written up as a thesis that is examined. You will also be encouraged to present your work in the form of scientific communications such as journals and conference poster presentation.

The MSc by Research in Tissue Engineering and Regenerative Medicine will equip you with a wealth of research experience and knowledge that will benefit your future career in academia or the health care industries.

Recent MSc by Research theses supervised in the area of Tissue Engineering at Swansea University include:

- Quality assurance of human stem cell/primary cell bank

- The development of electrospinning techniques for the production of novel tissue engineering scaffolds.

- The incorporation of pulsed electromagnetic fields into wound dressings.

- The application of pulsed electromagnetic fields for improved wound healing.

- The use of nanoparticles in the control of bacterial biofilms in chronic wounds.

- The control of bacterial adhesion at surfaces relevant to regenerative medicine.

- The production of micro-porous particles for bone repair

Facilities

The £22 million Centre for Nanohealth is a unique facility linking engineering and medicine, and will house a unique micro-nanofabrication clean room embedded within a biological research laboratory and with immediate access to clinical research facilities run by local NHS clinicians.

Links with industry

The academic staff of the Medical Engineering discipline have always had a good relationship with industrial organisations. The industrial input ranges from site visits to seminars delivered by clinical contacts.

The close proximity of Swansea University to two of the largest NHS Trusts in the UK outside of London also offers the opportunity for collaborative research.

Research

The Research Excellence Framework (REF) 2014 ranks Engineering at Swansea as 10th in the UK for the combined score in research quality across the Engineering disciplines.

World-leading research

The REF shows that 94% of research produced by our academic staff is of World-Leading (4*) or Internationally Excellent (3*) quality. This has increased from 73% in the 2008 RAE.

Research pioneered at the College of Engineering harnesses the expertise of academic staff within the department. This ground-breaking multidisciplinary research informs our world-class teaching with several of our staff leaders in their fields.

Highlights of the Engineering results according to the General Engineering Unit of Assessment:

Research Environment at Swansea ranked 2nd in the UK

Research Impact ranked 10th in the UK

Research Power (3*/4* Equivalent staff) ranked 10th in the UK



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1. Big Challenges being addressed by this programme – motivation. Human health and quality of life is one of the most critical challenges facing humanity. Read more

About the Course

1. Big Challenges being addressed by this programme – motivation

• Human health and quality of life is one of the most critical challenges facing humanity.
• The challenge is all the greater due to a rapidly increasing and rapidly aging global population that now exceeds 7 billion.
• Biomedical Engineering addresses these issues directly, with engineers innovating, analysing, designing and manufacturing new medical implants, devices and therapies for the treatment of disease, injuries and conditions of the human body, to restore health and improve quality of life.
• CNN lists Biomedical Engineering as No. 1 in the “Best Jobs in America” 2013.

2. Programme objectives & purpose

The objective of the programme is to generate graduates with a sound grounding in engineering fundamentals (analysis, design and problem solving), but who also have the multi-disciplinary breadth that includes knowledge of human biology and clinical needs and applications, to be able to make an immediate impact in the field on graduation, in either the academic research or medical technology industry domains. Ultimately the programme aims to generate the future leaders of the national and international medical technology industry, and of academic research and teaching in biomedical engineering.

3. What’s special about CoEI/NUIG in this area:

• NUI Galway pioneered the development of educational programmes in Biomedical Engineering in Ireland, introducing the country’s first bachelor’s degree in Biomedical Engineering in 1998, that was the first to achieve professional accreditation from Engineers Ireland in 2004, and at the graduate level with the Structured PhD programme in Biomedical Engineering and Regenerative Medicine (BMERM) in 2011.
• NUI Galway has been at the forefront of world-class research in biomedical engineering for over 20 years and has pioneered multi-disciplinary research in biomedical engineering and science, with the establishment of the National Centre for Biomedical Engineering Science (NCBES) in 1999, and up to the present day with the announcement of NUI Galway as the lead institution in a new Science Foundation Ireland funded Centre for Research in Medical Devices (CÚRAM).
• NUI Galway has a very close and deep relationship with the medical device industry locally, nationally and internationally, at many levels, from industry visits, guest lectures and student placements, up to major research collaborations.
• Many of our engineering graduates now occupy senior management and technical positions in the medical device industry nationally and internationally.

4. Programme Structure – ECTS weights and split over semester; core/elective, etc.:

• 90ECTS programme
• one full year in duration, beginning September and finishing August
• comprises:
- Foundational taught modules (20 ECTS)
- Advanced taught modules (40 ECTS)
- Research/Industry Project (30 ECTS).

5. Programme Content – module names

Sample Modules:

Advanced Finite Element Methods
Advanced Computational Biomechanics
Advanced Biomaterials
Mechanobiology
Bioinstrumentation Design
Medical and Surgical Practice
Stem Cells and Gene Therapy
Translational Medicine
Polymer Engineering
Advanced Engineering Statistics
Systems Reliability
Lean Systems
Research Methods for Engineers
Financial Management
Regulatory Affairs and Case Studies
Technology, Innovation and Entrepreneurship

6. Any special funding arrangements – e.g. Irish Aid

Comment (PMcH): CoEI scholarships a great idea.

7. Opportunity for number of Industrial & Research internships.

Students enrolled on this programme will have an opportunity to apply for a one-year post-graduation internship in either a related industry or research group in Ireland.

8. Testimonials.

“The Biomedical Engineering programme at NUI Galway has given me the fundamental engineering skills and multi-disciplinary background in biology and clinical application that I needed to be able to make an immediate impact in industry and to be able to design and develop new medical implants and devices. My graduate education through my PhD in bone biomechanics was also very important in this because I directly combined engineering and biological analysis techniques to better understand how stem cells generate new bone, showing me how biomedical engineers can play a critically important role in generating new knowledge on how the body works, and how new treatments can be developed for diseases and injuries, such as osteoporosis.” Evelyn Birmingham, BE Biomedical Engineering (2009), PhD Biomedical Engineering (2014), R&D Engineer, Medtronic Vascular, Galway.

For further details

visit http://nuigalway.ie/engineering-informatics/internationalpostgraduatestudents/

How to Apply:

Applications are made online via the Postgraduate Applications Centre (PAC): https://www.pac.ie
Please use the following PAC application code for your programme:

M.Sc. Biomedical Engineering - PAC code GYE24

Scholarships :

Please visit our website for more information on scholarships: http://www.nuigalway.ie/engineering-informatics/internationalpostgraduatestudents/feesandscholarships/

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The term Clinical Gait Analysis now means different things to different people. This programme has been designed for health professionals already employed within a clinical service offering full three dimensional gait analysis (kinematics, kinetics and EMG). Read more
The term Clinical Gait Analysis now means different things to different people. This programme has been designed for health professionals already employed within a clinical service offering full three dimensional gait analysis (kinematics, kinetics and EMG). It requires students to have access to these facilities to support their learning. It is not appropriate for people who only have access to more basic technology or who are hoping to move into the field but who have no current access to such facilities.

This course is part of the EU CMAster project that establishes masters level education in clinical gait analysis.

The course is distance based with set weekly learning objectives incorporating both self-study and group reflection. A highly practical approach embeds learning into professional practice by using your own measurement systems and clinical data.

You will benefit from the knowledge and expertise of the course leader Professor Richard Baker. Richard has over 20 years experience delivering and managing clinical gait analysis services in Europe and Australia. He was founding Director of the Australian National Health and Medical Research Council Centre for Clinical Research Excellence in Clinical Gait Analysis.

If you are a professional with a technical or clinical background who wants to be equipped with the skills and knowledge required to be competent across all of the major elements of clinical gait analysis this course will meet your needs.

Students enrolling from 2014 onwards will have the option of undertaking a full-time research project at KU Leuven (Belgium) or VU Amsterdam (The Netherlands) as an alternative to Module 5. Erasmus funding may be available to support this. This is part of the CMAster collaboration.

Key benefits:

• Benefit from a strong focus on practical gait analysis and the interpretation of clinical data
• Fit your studies around your work – the course is delivered part-time by distance learning
• Receive guidance and support from a pioneer in the field in both Europe and Australia

Visit the website: http://www.salford.ac.uk/pgt-courses/clinical-gait-analysis

Suitable for

Health professionals with a technical or clinical background already working in instrumented clinical gait analysis services.
You will need to have access to kinematic, kinetic and EMG measurement systems and local guidance in how to use them

Programme details

MSc Clinical Gait Analysis helps you to gain:

• a systematic understanding of the theoretical basis and practical application of clinical gait analysis with an awareness of current challenges and new insights which is at the state of the art.
• a comprehensive understanding of techniques applicable to your own research, advanced scholarship and evidence based practice and a proven ability to apply these with originality and practical understanding to improve your clinical practice.
• excellent learning and critical appraisal skills to serve as a foundation for self-directed lifelong learning and continuing professional and clinical development.

Format

The course is delivered entirely by distance learning. Most of the learning will be through a number of learning tasks that the student is expected to perform and reflect upon as an individual and within learning groups. There will be a specific emphasis on learning through giving and receiving peer feedback. Students will have access to a wide range of materials prepared for the University of Salford and our European partners in at the VU University in Amsterdam and the Katholieke Universiteit in Leuven, Belgium.

Students will be encouraged to spend some time learning abroad particularly for a clinical placement. European students who spend more than five weeks in a country other than their own or the UK will qualify for a Diploma Supplement recording their participation in the CMAster programme.

Module titles

• Measuring Walking
• Healthy Walking
• Walking with Pathology
• Clinical Data Interpretation
• Major Project

Assessment

You will be assessed through:

• Electronic portfolio of work completed
• Professional interview
• Contribution to course wiki
• Clinical and measurement case studies
• Negotiated assessment illustrating how you are applying your education to your clinical practice
• Written dissertation in form of paper for publication

Career potential

The course will provide you with a strong foundation for further professional development and career advancement.
The aim of the EU CMAster Project is to educate Europe’s next generation of clinical movement analysts.

How to apply: http://www.salford.ac.uk/study/postgraduate/applying

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Tissue engineering is an ever-emerging interdisciplinary field of biomedical research, which combines life, engineering and materials sciences, to progress the maintenance, repair and replacement of diseased and damaged tissues. Read more
Tissue engineering is an ever-emerging interdisciplinary field of biomedical research, which combines life, engineering and materials sciences, to progress the maintenance, repair and replacement of diseased and damaged tissues. The Cardiff Institute of Tissue Engineering & Repair (CITER) MSc in Tissue Engineering aims to provide graduates from life sciences and clinical backgrounds with an advanced knowledge, understanding and skills in the science and practice of tissue engineering; from theoretical science, through to research translation and clinical application. The Programme provides in-depth training in this branch of biomedical science, including stem cell biology, biomaterials and tissue/organ engineering. The MSc offers a balanced combination of theory and practice; and can serve either as preparation for a PhD or as a self-contained advanced qualification in its own right. The MSc in Tissue Engineering is both lecture- and laboratory-based, and includes a number of opportunities to visit relevant clinical settings and local industrial partners. Graduates from this Programme will have a broad spectrum of knowledge and a variety of skills, making them highly attractive both to potential employers and research establishments.

Distinctive features of this course include:

• The first course of its kind in the UK, created in response to demand in the field of tissue engineering for interdisciplinary teaching.

• Excellent clinical, academic and research facilities.

• High probability of further research study and careers in tissue engineering and repair, relevant to the CITER MSc remit.

• Opportunity to study at Cardiff University, one of the UK’s major teaching and research universities.

• Opportunity to join a vibrant postgraduate community.

Structure

The CITER MSc Programme commences in September each year with Stage 1, a 6-month, taught component.

Stage 1 is taught almost entirely at a small group teaching level, supported by laboratory sessions, interactive workshops and tutorials, in addition to visits to relevant hospital clinics and local companies involved in producing tissue engineering and repair therapies. Modules are assessed by various written assignments, presentations and formal examinations.

On completing Stage 1, students undertake a 5-month, laboratory-based research project within the CITER network, between April-September (Stage 2). Projects are chosen by students from topics supplied by academic supervisors within CITER. Previous student projects have been in research areas such as embryonic or mesenchymal stem cell biology; cartilage, bone, skin or oral tissue repair; fibrosis; and biomaterials and drug delivery. Stage 2 culminates in the submission of an MSc Dissertation, based on MSc Project findings.

Core modules:

Cellular & Molecular Biology
Tissue Engineering From Concept To Clinical Practice
Research Methods
Stem Cells and Regenerative Medicine
Dissertation

Teaching

Teaching is delivered via lectures, laboratory sessions, interactive workshops and tutorials, in addition to visits to relevant hospital clinics, such as orthopaedics, nephrology and dermatology, and local companies involved in producing tissue engineering and repair therapies.

This Programme is based within the School of Dentistry and taught by academic staff from across Cardiff University and by external speakers.

All taught modules within the Programme are compulsory and students are expected to attend all lectures, laboratory sessions and other timetabled sessions. Students will receive supervision to help them complete the dissertation, but are also expected to engage in considerable independent study. Dissertation topics are normally chosen by the students from a list of options proposed by CITER academic staff in areas relevant to the MSc in Tissue Engineering.

Assessment

The 4 taught Modules within the Programme are assessed through in-course assessments, including:

Extended essays.
Oral presentations.
Poster presentations.
Statistical assignments.
Critical appraisals.
Dissertation (no more than 20,000 words).

Career prospects

After successfully completing this MSc, you should have a broad spectrum of knowledge and a variety of skills, making you highly attractive both to potential employers and research establishments.

Since its introduction in 2006, 95% of our MSc graduates have progressed onto career paths highly relevant to the CITER MSc remit. These include PhDs within CITER and at other UK, EU and USA Universities, Graduate-Entry Medicine, Specialist Registrar Training, Teaching, and positions in Industry and Clinical Laboratory settings.

Placements

You will have the opportunity to attend clinical attachments, in areas such as orthopaedics, nephrology and dermatology. Furthermore, you will also have the opportunity to visit local companies involved in producing tissue engineering and repair therapies for clinical use. These include Cell Therapy Ltd., Reneuron plc, Biomonde Ltd., and MBI Wales Ltd.

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The increasing impact of genetics in healthcare and the development of newer sophisticated technologies requires close collaboration between research scientists, clinical laboratory scientists and clinicians to deliver a high quality service to patients. Read more
The increasing impact of genetics in healthcare and the development of newer sophisticated technologies requires close collaboration between research scientists, clinical laboratory scientists and clinicians to deliver a high quality service to patients. The Clinical Genetics MSc has a specific focus on delivery of the clinical service to patients including risk analysis and application of modern genetic and genomic technologies in medical genetics research and in diagnostics and population screening.

● This is a fully up-to-date Clinical Genetics degree delivered by dedicated, multi-award-winning teaching and clinical staff of the University, with considerable input from hospital-based Regional Genetics Service clinicians and clinical scientists.
● The full spectrum of genetic services is represented, from patient and family counselling to diagnostic testing of individuals and screening of entire populations for genetic conditions: eg the NHS prenatal and newborn screening programmes.
● The Clinical Genetics MSc Teaching Staff won the 2014 UK-wide Prospects Postgraduate Awards for the category of Best Postgraduate Teaching Team (Science, Technology & Engineering). These awards recognise and reward excellence and good practice in postgraduate education.
● The close collaboration between university and hospital staff ensures that the Clinical Genetics MSc provides a completely up-to-date representation of the practice of medical genetics and you will have the opportunity to observe during clinics at the new Queen Elizabeth University Hospital laboratory medicine building.
● The Clinical Genetics degree explores the effects of mutations and variants as well as the theoretically basis of current techniques used in NHS genetics laboratory diagnostics and recent developments in diagnostics (including microarray analysis and the use of massively parallel [“next-generation”] sequencing).
● New developments in genetics are incorporated into the lectures and interactive teaching sessions very soon after they are presented at international meetings or published, and you will gain hands-on experience and guidance in using software and online resources for genetic diagnosis and for the evaluation of pathogenesis of DNA sequence variants.
● You will develop your skills in problem solving, evaluation and interpretation of genetic data, literature searches, scientific writing, oral presentations, poster presentations and team working.
● This MSc programme will lay the academic foundations on which some students with prior MBChB or MBBS may build in pursuing careers in Clinical Genetics.
● The widely used textbook “Essential Medical Genetics” is co-authored by a member of the core teaching team, Professor Edward Tobias.
● For doctors: The Joint Royal Colleges of Physicians’ Training Board (JRCPTB) in the UK recognises the MSc in Clinical Genetics (which was established in 1984) as counting for six months of the higher specialist training in Clinical Genetics.

Programme Structure

Genetic Disease and Clinical Practice

This course is designed in collaboration with the West of Scotland Regional Genetics Service to give students a working knowledge of the principles and practice of Clinical Genetics and Genomics which will allow them to evaluate, choose and interpret appropriate genetic investigations for individuals and families with genetic disease. The link from genotype to phenotype, will be explored, with consideration of how this knowledge might contribute to new therapeutic approaches.

Distress or Disorder: Reactions to a medical diagnosis

This course outlines the process of psychosocial adjustment to a diagnosis or test result allowing participants to establish if and when a distress reaction develops into an adjustment disorder. The implications of diagnosis are explored and evidence considered allowing informed decisions about appropriate referrals to other agencies.

Patient Empowerment: Supporting decisions relating to new diagnoses

This course reflects on evidence and experience to explore the psychological and social impact of a diagnosis, or illness, and provides strategies to support resilience and coping in patients. Factors related to lived experience, personal beliefs and values, culture, adjustment processes, decision-making, misconceptions, secrecy and guilt are considered to equip participants in the promotion of patient-centred care.

Effective listening and communication skills

With a focus on experiential learning and student led study, this course outlines the role of counselling skills to facilitate adjustment and to allow an individual to come to terms with change in a safe way to minimise impact. The focus will be on the theory supporting counselling, developing key listening and communication skills and on establishing reflective practice.

Case Investigations in Medical Genetics and Genomics

Students will work in groups to investigate complex clinical case scenarios: decide appropriate testing, analyse results from genetic tests, reach diagnoses where appropriate and, with reference to the literature, generate a concise and critical group report.

Clinical Genomics

This course will provide an overview of the clinical applications of genomic approaches to human disorders, particularly in relation to clinical genetics, discussion the methods and capabilities of the new technologies. Tuition and hands-on experience in data analysis will be provided, including the interpretation of next generation sequencing reports.

Disease Screening in Populations

This course will cover the rationale for, and requirements of, population screening programmes to detect individuals at high risk of particular conditions, who can then be offered diagnostic investigations. Students will work in groups to investigate and report on, a screening programme of their choice from any country.

Dissertation

The course will provide students with the opportunity to carry out an independent investigative project in the field of Medical Genetics and Genomics.

Teaching and Learning Methods

A variety of methods are used, including problem-based learning, case-based learning, lectures and tutorials. These are supplemented by a wide range of course-specific electronic resources for additional learning and self-assessment. As a result, you will develop a wide range of skills relevant to careers in clinical genetics. These skills include team-working and data interpretation. You will use the primary scientific literature as an information resource, although textbooks such as our own Essential Medical Genetics will also be useful. You will have the options of: attending genetic counselling clinics and gaining hands-on experience and guidance in using software and online resources for genetic diagnosis and for the evaluation of pathogenicity of DNA sequence variants.

Visit the website for more information http://www.gla.ac.uk/postgraduate/taught/clinicalgenetics/#/programmestructure

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Tissue engineering is an ever-emerging interdisciplinary field of biomedical research, which combines life, engineering and materials sciences, to progress the maintenance, repair and replacement of diseased and damaged tissues. Read more
Tissue engineering is an ever-emerging interdisciplinary field of biomedical research, which combines life, engineering and materials sciences, to progress the maintenance, repair and replacement of diseased and damaged tissues. The Cardiff Institute of Tissue Engineering & Repair (CITER) MSc in Tissue Engineering aims to provide graduates from life sciences and clinical backgrounds with an advanced knowledge, understanding and skills in the science and practice of tissue engineering; from theoretical science, through to research translation and clinical application. The Programme provides in-depth training in this branch of biomedical science, including stem cell biology, biomaterials and tissue/organ engineering. The MSc offers a balanced combination of theory and practice; and can serve either as preparation for a PhD or as a self-contained advanced qualification in its own right. The MSc in Tissue Engineering is both lecture- and laboratory-based, and includes a number of opportunities to visit relevant clinical settings and local industrial partners. Graduates from this Programme will have a broad spectrum of knowledge and a variety of skills, making them highly attractive both to potential employers and research establishments.

Distinctive features of this course include:

• The first course of its kind in the UK, created in response to demand in the field of tissue engineering for interdisciplinary teaching.

• Excellent clinical, academic and research facilities.

• High probability of further research study and careers in tissue engineering and repair, relevant to the CITER MSc remit.

• Opportunity to study at Cardiff University, one of the UK’s major teaching and research universities.

• Opportunity to join a vibrant postgraduate community.

Course structure

The CITER MSc Programme commences in September each year with Stage 1, a 6-month, taught component.

Stage 1 is taught almost entirely at a small group teaching level, supported by laboratory sessions, interactive workshops and tutorials, in addition to visits to relevant hospital clinics and local companies involved in producing tissue engineering and repair therapies. Modules are assessed by various written assignments, presentations and formal examinations.

On completing Stage 1, students undertake a 5-month, laboratory-based research project within the CITER network, between April-September (Stage 2). Projects are chosen by students from topics supplied by academic supervisors within CITER. Previous student projects have been in research areas such as embryonic or mesenchymal stem cell biology; cartilage, bone, skin or oral tissue repair; fibrosis; and biomaterials and drug delivery. Stage 2 culminates in the submission of an MSc Dissertation, based on MSc Project findings.

Core modules:

Cellular & Molecular Biology
Tissue Engineering From Concept To Clinical Practice
Research Methods
Stem Cells and Regenerative Medicine
Dissertation

Teaching

Teaching is delivered via lectures, laboratory sessions, interactive workshops and tutorials, in addition to visits to relevant hospital clinics, such as orthopaedics, nephrology and dermatology, and local companies involved in producing tissue engineering and repair therapies.

This Programme is based within the School of Dentistry and taught by academic staff from across Cardiff University and by external speakers.

All taught modules within the Programme are compulsory and students are expected to attend all lectures, laboratory sessions and other timetabled sessions. Students will receive supervision to help them complete the dissertation, but are also expected to engage in considerable independent study. Dissertation topics are normally chosen by the students from a list of options proposed by CITER academic staff in areas relevant to the MSc in Tissue Engineering.

Support

All Modules within the Programme make extensive use of Cardiff University’s Virtual Learning Environment (VLE) Blackboard, on which students will find course materials and links to related materials. Students will be supervised when undertaking their dissertation. Supervision will include scheduled regular meetings to discuss progress, provide advice and guidance; and provide written feedback on draft dissertation contents.

Feedback:

Students will receive written feedback on all assessments, in addition to oral feedback on assessed oral/poster presentations.

Assessment

The 4 taught Modules within the Programme are assessed through in-course assessments, including:

Extended essays.
Oral presentations.
Poster presentations.
Statistical assignments.
Critical appraisals.
Dissertation (no more than 20,000 words).

Career prospects

After successfully completing this MSc, you should have a broad spectrum of knowledge and a variety of skills, making you highly attractive both to potential employers and research establishments.

Since its introduction in 2006, 95% of our MSc graduates have progressed onto career paths highly relevant to the CITER MSc remit. These include PhDs within CITER and at other UK, EU and USA Universities, Graduate-Entry Medicine, Specialist Registrar Training, Teaching, and positions in Industry and Clinical Laboratory settings.

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WHAT YOU WILL GAIN. - Skills and know-how in the latest technologies in all aspects of plant engineering. - Guidance from practicing plant engineering experts in the field. Read more
WHAT YOU WILL GAIN:

- Skills and know-how in the latest technologies in all aspects of plant engineering
- Guidance from practicing plant engineering experts in the field
- Knowledge from the extensive experience of instructors, rather than from clinical information gained from books and college
- Improved career prospects and income
- An EIT Advanced Diploma of Plant Engineering

Start Date: September 18, 2017.

INTRODUCTION

This practical course avoids over emphasis on theory. This is rarely needed in the real industrial world where time is short and immediate results are required. Hard-hitting and useful know-how, are needed as minimum requirements. The instructors presenting this advanced diploma are highly experienced engineers from industry who have many years of real-life experience as Plant Engineers. The format of presentation - live, interactive distance learning with the use of remote labs means that you can hit the ground running and be of immediate benefit to your company or future employer.

WHO SHOULD ATTEND?

Anyone who wants to gain solid knowledge of the key elements of Plant Engineering to improve their work skills and to further their job prospects:

- Electrical Engineers who need an overall Plant Engineering appreciation
- Electricians
- Maintenance Engineers and Supervisors
- Automation and Process Engineers
- Design Engineers
- Project Managers
- Consulting Engineers
- Production Managers
- Chemical and Mechanical Engineers
- Instrument and Process Control Technicians

Even those who are highly experienced in Plant Engineering may find it useful to follow some of the topics to gain know-how in a very concentrated but practical format.

COURSE STRUCTURE

The course follows six engineering threads to provide you with maximum practical coverage in the field of Plant Engineering:

- Overview and where the Plant Engineer fits into the 21st century production sphere
- Engineering technologies in detail
- Skills for project, process, environmental and energy management
- Maintenance management
- Safety management; with corresponding legal knowledge
- Other necessary skills to master

The course is composed 19 modules. These modules cover a range of aspects to provide you with maximum practical coverage in the field of Plant Engineering.

The modules are:

- Introduction to Plant Engineering
- Plant Operations and Facility Management
- Electrical Equipment and Technology
- Pressure Vessels and Boilers
- Fundamentals of Professional Engineering
- Mechanical Equipment and Technology
- Fluid Power Systems and Components
- Pumps and Seals
- Thermodynamics, Compressors, Fans and Blowers
- Process Plant Layout and Piping Design
- Heating, Ventilation and Air Conditioning
- Noise and Vibration
- Structural and Civil Engineering Concepts
- Process Management
- Energy Management
- Instrumentation and Control Engineering
- Maintenance Management
- Environmental Engineering
- Safety Management

PRESENTATION FORMAT

The programme features real-world applications and uses a multi-pronged approach involving interactive on-line webinars, simulation software and self-study assignments with a mentor on call. The course consists of 72 topics delivered over a period of 18 months. Presentations and group discussions will be conducted using a live, interactive software system. For each topic you will have an initial reading assignment (which will be delivered to you in electronic format in advance of the online presentations). There will be coursework or problems to be submitted and in some cases there will be practical exercises, using simulation software and remote labs that you can easily do from your home or office. You will have ongoing support from the instructors via phone, fax and e-mail.

LIVE WEBINARS

The webinar schedule is not put together until after registrations close. The reason for this is that the program is promoted globally and we often have participants from several time zones. When you enrol you will receive a questionnaire which will help us determine your availability. When all questionnaires are returned we create a schedule which will endeavour to meet everyone’s requirements. Each webinar runs 2 or 3 times during each presentation day and we try our best to ensure that at least one session falls into your requested time frames. This is not always possible, however, due to the range of locations of both presenters and students. If you are unable to attend the webinars scheduled, we do have some options available. Contact the EIT for more details.

PRACTICAL EXERCISES AND REMOTE LABORATORIES

As part of the groundbreaking new way of teaching, we will be using a series of remote laboratories (labs) and simulation software, to facilitate your learning and to test the knowledge you gain during the course. These involve complete working labs set up at various locations of the world into which you will be able to log and proceed through the various practical sessions. These will be supplemented by simulation software, running either remotely or on your computer, to ensure you gain the requisite handson experience. No one can learn much solely from lectures, the labs and simulation software are designed to increase the absorption of the materials and to give you a practical orientation of the learning experience. All this will give you a solid, practical exposure to the key principles covered in the course and will Practical Exercises and Remote Laboratories ensure that you obtain maximum benefit from the course to succeed in your future career in Industrial Automation.

COURSE FEES

What are the fees for my country?

The Engineering Institute of Technology (EIT) provides distance education to students located almost anywhere in the world – it is one of the very few truly global training institutes. Course fees are paid in a currency that is determined by the student’s location. A full list of fees in a currency appropriate for every country would be complex to navigate and, with today’s exchange rate fluctuations, difficult to maintain. Instead we aim to give you a rapid response regarding fees that is customised to your individual circumstances.

We understand that cost is a major consideration before a student commences study. For a rapid reply to your enquiry regarding courses fees and payment options, please enquire via the below button and we will respond within 2 business days.

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Located within a European Centre of Excellence for Tissue engineering, and based on Keele University’s local hospital campus, the MSc in Cell and Tissue Engineering provides support and development to enhance your career within this rapidly expanding field. Read more

Overview

Located within a European Centre of Excellence for Tissue engineering, and based on Keele University’s local hospital campus, the MSc in Cell and Tissue Engineering provides support and development to enhance your career within this rapidly expanding field. The multidisciplinary environment enables close interaction with leading academics and clinicians involved in cutting-edge, and clinically transformative research.

Course Director: Dr Paul Roach ()

Studying Cell and Tissue Engineering at Keele

Our MSc Cell and Tissue Engineering programme has tracked alongside the strongly emergent global Regenerative Medicine industry and will prepare you for an exciting future within a range of medical engineering areas, be that in academic or industrial research, medical materials, devices, or therapeutics sectors, or in the clinical arena. The modular structure to the course enables flexibility and personalisation to suit your career aspirations, build upon strengths and interests and develop new understanding in key topics. The selection of modules on offer is professionally accredited by the Institute for Physics and Engineering in Medicine.

Graduate destinations for our students could include: undertaking further postgraduate study and research (PhD); pursuing a university-based, academic research career; providing technical consultancy for marketing and sales departments within industry; working within biomedical, biomaterials, therapeutic and regenerative medicine industries or working for a governmental regulatory agency for healthcare services and products.

See the website https://www.keele.ac.uk/pgtcourses/cellandtissueengineering/

‌The course provides support from the basics of human anatomy and physiology, through to development of novel nanotechnologies for healthcare. Due to the teaching and research involvement of clinical academic staff within the department, there are exciting opportunities to be exposed to current clinical challenges and state-of-the-art developments. Clinical visits and specialist seminars are offered and students will be able to select dissertation projects that span fundamental research to clinical translation of technologies – a truly ‘bench to bedside’ approach.

Learning and teaching methods include lectures and demonstrations from medical and engineering specialists, practical classes using state-of-the-art facilities and seminars with leading national and international researchers. Full-time study will see the course completed in 12 months; part-time study will allow you to complete it over two years.

About the department

Now delivered through the Keele Medical School and the Research Institute for Science and Technology in Medicine, the course dates as far back as 1999, when it was established in partnership with Biomedical Engineering and Medical Physics at the University Hospital. Most teaching now takes place in the Guy Hilton Research Centre, a dedicated research facility located on the hospital campus. The medical school is one of the top-ranked in the UK, and the research institute has an international reputation for world-leading research.

The centre was opened in 2006 and offers state-of-the-art equipment for translational research including newly-developed diagnostic instruments, advanced imaging modalities and additive manufacturing facilities. Its location adjacent to the university hospital ensures that students experience real-world patient care and the role that technology plays in that. Students also have access to advanced equipment for physiological measurement, motion analysis and functional assessment in other hospital and campus-based laboratories. The School embraces specialists working in UHNM and RJAH Orthopaedic Hospital Oswestry, covering key medical and surgical subspecialties.

The course runs alongside its sister course, the MSc in Biomedical Engineering, and an EPSRC-MRC funded Centre for Doctoral Training, ensuring a stimulating academic environment for students and many opportunities for engaging with further study and research.

Course Content

The aim of the course is to provide multidisciplinary Masters level postgraduate training in Cell and Tissue Engineering to prepare students for future employment in healthcare, industrial and academic environments. This involves building on existing undergraduate knowledge in basic science or engineering and applying it to core principles and current issues in medicine and healthcare.

Specifically, the objectives of the course are to:
- provide postgraduate-level education leading to professional careers in Cell and Tissue Engineering in industry, academia and a wide range of healthcare establishments such as medical organisations, medical research institutions and hospitals;

- provide an opportunity for in-depth research into specialist and novel areas of Biomaterials, and Cell and Tissue Engineering;

- expose students to the clinically translational environment within an active medical research environment with hands-on practical ability and supporting knowledge of up-to-date technological developments at the forefront of the field;

- introduce students to exciting new fields such as regenerative medicine, nanotechnology and novel devices for physiological monitoring and diagnostics.

Teaching and Learning Methods

The course is taught through subject-centred lectures and seminars, supported by tutorials and practical exercises. Collaborative learning and student-centred learning are also adopted giving widespread opportunity for group work and individual assignments. Students are required to conduct extensive independent study, and this is supported by full access to two libraries, online journal access and a suite of dedicated computers for exclusive use by MSc students on the course. In addition, students are supported by the guidance of a personal tutor within the department, as well as having access to university-wide support services. This includes English language support where appropriate.

Assessment

Modules will be assessed by a mixture of assessment methods, including lab reports, essays, and presentations, and final examination. This ensures the development of a range of transferrable employability skills such as time management and planning, written and verbal communication and numeracy as well as technical and subject-specific knowledge. The project dissertation forms a major component of the student’s assessed work.

Additional Costs

Apart from additional costs for text books, inter-library loans and potential overdue library fines we do not anticipate any additional costs for this postgraduate programme.

Find information on Scholarships here - http://www.keele.ac.uk/studentfunding/bursariesscholarships/

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The two MSc programmes in Biomedical Engineering draw on the wide experience of Brunel's academic staff, which ranges from the development of equipment and experiments for use in space, to research carried out in collaboration with hospitals, biomedical companies and research institutions. Read more

About the course

The two MSc programmes in Biomedical Engineering draw on the wide experience of Brunel's academic staff, which ranges from the development of equipment and experiments for use in space, to research carried out in collaboration with hospitals, biomedical companies and research institutions.

Four (compulsory) taught modules and two optional streams are available. Students can apply to one of the two named degree title awards - 'Biomedical, Genetics and Tissue Engineering' or 'Biomedical, Biomechanics and Bioelectronics Engineering'.

The programme has a strong research and development emphasis and students will develop expertise in advanced product development and research. It aims to provide an overall knowledge base, skills and competencies, which are required in biomedical engineering, research activities and in related fields.

Aims

The modern healthcare industry is commercially-driven and fast moving – putting a premium on recruits who bring strong research experience. Biomedical engineering is a new and rapidly emerging field of engineering to biological and clinical problems. It relies on the methodologies and techniques developed in more traditional engineering fields, further advanced and adapted to the particular complexity associated with biological systems.

These applications vary from design, development and operation of complex medical devices, used in the prevention, diagnosis and treatment, to the characterisation of tissue behaviour in health and disease, and theoretical models that enhance the understanding of complex biomedical issues.

As well as giving a solid scientific understanding, this course provides students with an understanding of the commercial, ethical, legal and regulatory requirements of the industry.

Graduates acquire the skills that are essential to the modern biomedical and healthcare industry, gaining expertise in management, product innovation, development and research.

Our students benefit from the University’s strong industrial partnerships and pioneering research activities.

Staff at Brunel generate numerous publications, conference presentations and patents, and have links with a wide range of institutions both within and outside the UK.

Course Content

The MSc programmes in Biomedical Engineering are full-time, one academic year (12 consecutive months).

Compulsory Modules:

Biomechanics and Biomaterials
Biomedical Engineering Principles
Design and Manufacture
Innovation and Management and Research Methods
Dissertation

Optional Modules:

Genomic Technologies
Molecular Mechanisms of Human Disease
Tissue Engineering

Special Features

Industry relevance
Scientific understanding is just one part of medical engineering and this course also addresses commercial, ethical, legal and regulatory requirements, with input from Brunel's extensive industrial contacts.

Excellent facilities
We have extensive and well-equipped laboratories - with notable strengths in fluid and biofluid mechanics, IC engines, vibrations, building service engineering, and structural testing. Our computing facilities are diverse and are readily available to all students. The University is fully networked with both Sun workstations and PCs. Advanced software is available for finite and boundary element modelling of structures, finite volume modelling of flows, and for the simulation of varied control systems, flow machines, combustion engines, suspensions, built environment, and other systems of interest to the research groups.

Foundation course available
The  Pre-Masters is a full-time 14-week course for international students who have marginally fallen below the postgraduate direct entry level and would like to progress onto a Master's degree course in the College of Engineering, Design and Physical Sciences. It combines academic study, intensive English Language preparation, study skills and an orientation programme.

Women in Engineering and Computing Programme

Brunel’s Women in Engineering and Computing mentoring scheme provides our female students with invaluable help and support from their industry mentors.

Accreditation

This programme is seeking accreditation by the Institution of Mechanical Engineers (IMechE) post the recent change in available degree routes. The IMechE formerly accredited the MSc Biomedical Engineering and we anticipate no problems in extending this accreditation to the new routes.

Teaching

The taught modules are delivered to students over two terms; Term 1 (September – December) and Term 2 (January – April) of each academic year. The taught modules are examined at the end of each term, and the students begin working on their dissertations on a part-time basis in term 2, then full-time during the months of May to September.

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Have you ever wondered how the latest life science discoveries - such as a novel stem cell therapy - can move from the lab into commercial scale production?… Read more

Have you ever wondered how the latest life science discoveries - such as a novel stem cell therapy - can move from the lab into commercial scale production? Would you like to know whether it is possible to produce bio-polymers (plastics) and biofuels from municipal or agricultural waste? If you are thinking of a career in the pharma or biotech industries, the Biochemical Engineering MSc could be the right programme for you.

Degree information

Our MSc programme focuses on the core biochemical engineering principles that enable the translation of advances in the life sciences into real processes or products. Students will develop advanced engineering skills (such as bioprocess design, bioreactor engineering, downstream processing), state-of-the-art life science techniques (such as molecular biology, vaccine development, microfluidics) and essential business and regulatory knowledge (such as management, quality control, commercialisation).

Three distinct pathways are offered tailored for graduate scientists, engineers, or biochemical engineers. Students undertake modules to the value of 180 credits. The programme offers three different pathways (for graduate scientists, engineers, or biochemical engineers) and consists of core taught modules (120 credits) and a research or design project (60 credits).

Core modules for graduate scientists

-Advanced Bioreactor Engineering

-Bioprocess Synthesis and Process Mapping

-Bioprocess Validation and Quality Control

-Commercialisation of Bioprocess Research

-Fluid Flow and Mixing in Bioprocesses

-Heat and Mass Transfers in Bioprocesses

-Integrated Downstream Processing

-Mammalian Cell Culture and Stem Cell Processing

Core modules for graduate engineers

-Advanced Bioreactor Engineering

-Bioprocess Validation and Quality Control**

-Cellular Functioning from Genome to Proteome

-Commercialisation of Bioprocess Research

-Integrated Downstream Processing

-Mammalian Cell Culture and Stem Cell Processing

-Metabolic Processes and Regulation

-Structural Biology and Functional Protein Engineering

-Bioprocess Microfluidics*

-Bioprocess Systems Engineering*

-Bioprocessing and Clinical Translation*

-Cell Therapy Biology*

-Industrial Synthetic Biology*

-Sustainable Bioprocesses and Biorefineries*

-Vaccine Bioprocess Development*

*Core module for graduate biochemical engineers; **core module for both graduate engineers and graduate biochemical engineers

Research project/design project

All MSc students submit a 10,000-word dissertation in either Bioprocess Design (graduate scientists) or Bioprocess Research (graduate engineers and graduate biochemical engineers).

Teaching and learning

The programme is delivered through a combination of lectures, tutorials, and individual and group activities. Guest lectures delivered by industrialists provide a professional and social context. Assessment is through unseen written examinations, coursework, individual and group project reports, individual and group oral presentations, and the research or design project.

Careers

The rapid advancements in biology and the life sciences create a need for highly trained, multidisciplinary graduates possessing technical skills and fundamental understanding of both the biological and engineering aspects relevant to modern industrial bioprocesses. Consequently, UCL biochemical engineers are in high demand, due to their breadth of expertise, numerical ability and problem-solving skills. The first destinations of those who graduate from the Master's programme in biochemical engineering reflect the highly relevant nature of the training delivered.

Approximately three-quarters of our graduates elect either to take up employment in the relevant biotechnology industries or study for a PhD or an EngD, while the remainder follow careers in the management, financial or engineering design sectors.

Top career destinations for this degree:

-PhD Degree/Further Studies(Imperial College London, UCL, Cambridge)

-Consultancy (PwC)

-Bioprocess/Biopharma Industry (GSK, Eli Lilley, Synthace)

-Financial Sector

Employability

The department places great emphasis on its ability to assist its graduates in taking up exciting careers in the sector. UCL alumni, together with the department’s links with industrial groups, provide an excellent source of leads for graduates. Over 1,000 students have graduated from UCL with graduate qualifications in biochemical engineering at Master’s or doctoral levels. Many have gone on to distinguished and senior positions in the international bioindustry. Others have followed independent academic careers in universities around the world.

Why study this degree at UCL?

UCL was a founding laboratory of the discipline of biochemical engineering, established the first UK department and is the largest international centre for bioprocess teaching and research. Our internationally recognised MSc programme maintains close links with the research activities of the Advanced Centre for Biochemical Engineering which ensure that lecture and case study examples are built around the latest biological discoveries and bioprocessing technologies.

UCL Biochemical Engineering co-ordinates bioprocess research and training collaborations with more than a dozen UCL departments, a similar number of national and international university partners and over 40 international companies. MSc students directly benefit from our close ties with industry through their participation in the Department’s MBI® Training Programme.

The MBI® Training Programme is the largest leading international provider of innovative UCL-accredited short courses in bioprocessing designed primarily for industrialists. Courses are designed and delivered in collaboration with 70 industrial experts to support continued professional and technical development within the industry. Our MSc students have the unique opportunity to sit alongside industrial delegates, to gain deeper insights into the industrial application of taught material and to build a network of contacts to support their future careers.

Visit the Biochemical Engineering Open Days page on the University College London website for more details on opportunities to come and see our facilities and speak to the team!



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In the first semester of the programme, graduates from a range of backgrounds are brought up-to-speed on core knowledge in engineering, biology and research practice. Read more

In the first semester of the programme, graduates from a range of backgrounds are brought up-to-speed on core knowledge in engineering, biology and research practice.

This is followed by specialist modules in the second semester on human movement analysis, prostheses, implants, physiological measurements and rehabilitation, as well as numerous computer methods applied across the discipline.

The course makes use of different approaches to teaching, including traditional lectures and tutorials, off-site visits to museums and hospitals, and lab work (particularly in the Human Movement and Instrumentation modules).

The core lecturing team is supplemented by leading figures from hospitals and industry.

Programme structure

This programme is studied full-time over one academic year and part-time over two academic years. It consists of eight taught modules and a research project.

All modules are taught on the University main campus, with the exception of visits to the health care industry (e.g. commercial companies and NHS hospitals).

Example module listing

The following modules are indicative, reflecting the information available at the time of publication. Please note that not all modules described are compulsory and may be subject to teaching availability and/or student demand.

Educational aims of the programme

The course aims:

  • To educate engineering, physical science, life science, medical and paramedical graduates in the broad base of knowledge required for a Biomedical Engineering career in industry, healthcare or research in the United Kingdom, Europe and the rest of the world
  • To underpin the knowledge base with a wide range of practical sessions including laboratory/experimental work and applied visits to expert health care facilities and biomedical engineering industry
  • To develop skills in critical review and evaluation of the current approaches in biomedical engineering
  • To build on these through an MSc research project in which further experimental, analytical, computational, and/or design skills will be acquired

Programme learning outcomes

The programme provides opportunities for students to develop and demonstrate knowledge and understanding, skills, qualities and other attributes in the following areas:

Knowledge and understanding

  • Demonstrate breadth and depth of awareness and understanding of issues at the forefront of Biomedical Engineering
  • Demonstrate broad knowledge in Human Biology, Instrumentation, Biomechanics, and Professional and Research skills
  • Demonstrate specialist knowledge in Implants, Motion analysis and rehabilitation, and Medical signals
  • Understand how to apply engineering principles to conceptually challenging (bio)medical problems
  • Appreciate the limitations in the current understanding of clinical problems and inherent in adopted solutions
  • Understand routes/requirements for personal development in biomedical engineering including state registration
  • Understand key elements of the concept of ethics and patient-professional relationships, recognise, analyse and respond to the complex ethical issues

Intellectual / cognitive skills

  • Evaluate a wide range of applied engineering and clinical measurement and assessment tools
  • Design and implement a personal research project; this includes an ability to accurately assess/report on own/others work with justification and relate them to existing knowledge structures and methodologies, showing insight and understanding of alternative points of view
  • Carry out such research in a flexible, effective and productive manner, optimising use of available support, supervisory and equipment resources, demonstrating understanding of the complex underlying issues
  • Apply appropriate theory and quantitative methods to analyse problems

Professional practical skills

  • Make effective and accurate use of referencing across a range of different types of sources in line with standard conventions
  • Use/ apply basic and applied instrumentation hardware and software
  • Correctly use anthropometric measurement equipment and interpret results in the clinical context
  • Use/apply fundamental statistical analysis tools
  • Use advanced movement analysis hardware and software and interpret results in the clinical context
  • Use advanced finite element packages and other engineering software for computer simulation
  • Program in a high-level programming language and use built-in functions to tackle a range of problems
  • Use further specialist skills (laboratory-experimental, analytical, and computational) developed through the personal research project

Key / transferable skills

  • Identify, select, plan for, use and evaluate ICT applications and strategies to enhance the achievement of aims and desired outcomes
  • Undertake independent review, and research and development projects
  • Communicate effectively between engineering, scientific and clinical disciplines
  • Prepare relevant, clear project reports and presentations, selecting and adapting the appropriate format and style to convey information, attitudes and ideas to an appropriate standard and in such a way as to enhance understanding and engagement by academic/ professional audiences

Global opportunities

We often give our students the opportunity to acquire international experience during their degrees by taking advantage of our exchange agreements with overseas universities.

In addition to the hugely enjoyable and satisfying experience, time spent abroad adds a distinctive element to your CV.



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