Middlesex University London - Biomedical Engineering BEng

Middlesex University London

Biomedical Engineering BEng

Why study biomedical engineering with us

Our multi-disciplinary biomedical engineering course mixes engineering with biomedical science and physiology. This provides you with a solid understanding of the technological developments taking place in the fields of medical engineering and bioengineering.

You will build on your previous experience in applied mathematics, physics, or other sciences. During your course you will enhance your engineering knowledge and gain specialist skills which will help you to design and improve existing and emergent systems, devices and treatments.

Our degree has been specifically designed to meet the standards set by the collaboration between the UK Quality Assurance Agency and the Engineering Council alongside the demands of healthcare providers. The BEng degree is accredited as partially meeting the academic requirements for registration as a Chartered Engineer and fully meeting those for registration as an Incorporated Engineer. You will gain specialist biomedical engineering skills to follow in the footsteps of graduates who have forged careers in clinical engineering, biomechanics, orthotics and prosthetics.

Develop your biomedical engineering skills

We have fully equipped, state-of-the-art laboratories for medical device design and human performance measurement. You will also have access to the facilities in our bioengineering and physics research laboratories. It is here that we’re making significant healthcare developments, which include the monitoring of premature babies, deep brain stimulation and the diagnosis and treatment of cancer.

Many of our academic staff are engaged in pioneering research in these and other areas including prosthetic design and rehabilitation engineering and they bring this expertise in to their teaching in the course. This team of highly experienced professional engineers and qualified healthcare practitioners are on hand to give you the support you need to succeed in your studies and establish your career in biomedical engineering.

Entry Requirements

A Levels

BBC

BTEC

DMM

Access requirements

Overall pass: must include 45 credits at level 3, of which all 45 must be at Merit or higher

Combinations

A combination of A-Level, BTEC and other accepted qualifications that total 112 UCAS Tariff points

IELTS

6.0

 

(with minimum 5.5

 

in all components).

Career Prospects

A BEng Biomedical Engineering degree can provide a foundation for various global career opportunities, including clinical or rehabilitation engineering, bioinstrumentation, biomaterials, biomechanics, medical imaging, orthopaedic surgery, and systems physiology. The Association of British Healthcare Industries (ABHI) has a large membership of small and medium-sized companies that accept graduates for design and development work. Graduates can also pursue further training to support roles in the NHS or private health sector. Career opportunities include clinical or rehabilitation engineering, bioinstrumentation, biomaterials, biomechanics, medical imaging, orthopaedic surgery, and systems physiology. Middlesex University's facilities include a mass spectrometry and electron microscope suite, a biomedical science laboratory, a biomedical engineering laboratory, a molecular biology research laboratory, a tissue culture research laboratory, a histology research laboratory, and a general biochemistry research laboratory. These facilities enable students to gain valuable skills and knowledge for various career paths, including clinical or rehabilitation engineering, bioinstrumentation, biomaterials, biomechanics, medical imaging, orthopedic surgery, and systems physiology.

Course Details

The BEng Biomedical Engineering course covers engineering design principles, fundamentals like mechanics and electronics, and mathematics. It covers anatomy and physiology, and the ability to interpret, analyze, and critically evaluate experimental results to improve technology and diagnose and treat disease and disability. This degree offers the potential to make life-changing advancements in the field, working on various projects such as artificial organs, automated patient monitoring, blood chemistry sensors, advanced therapeutic and surgical devices, clinical decision-making, design of optimal clinical devices, medical imaging systems, computer modeling of physiological systems, biomaterials design, and biomechanics for injury.
Students will gain advanced analytical, technical, and professional skills required for a career in biomedical engineering. They will develop creative problem-solving skills, research and communication abilities, and practical workshop, modeling, and prototyping skills. After completing a substantial amount of professional practice, students can attain the professional status of Incorporated or Chartered Engineer.
The course is delivered in a blended learning format, using live interactive sessions via platforms like Kaltura Newrow, Adobe Connect, or Zoom. Practical sessions can be either virtual or on campus, depending on the Covid 19 outbreak. Students will participate in online problem-solving discussions, critical debates, workshops, and in-class activities, as well as guided and independent reading.
Access to on-campus activity is subject to ongoing and further Covid 19 restrictions, so virtual laboratories, remote access to computing programs, and pre-recorded lab and practice demonstrations may be used to facilitate learning. Students are expected to continue learning independently through self-study, involving research, project work, and preparing for assessments. Middlesex is committed to providing and accommodating learners fully online, including during second lockdowns.

Year 1

Human Sciences (30 credits)
Mathematics and Mechanics for Biomedical Engineers (30 credits)
Electronics for Biomedical Engineers (15 credits)
Computing for Biomedical Engineers (15 credits)
Design Practice for Biomedical Engineers (30 credits)

Year 2

Design Engineering Projects 2 (30 credits)
Medical Instrumentation and Imaging (15 credits)
Physiological Measurement Systems and Control (15 credits)
Medical Standards and Professional Engagement (30 credits)
Medical Implant Design (30 credits)

Year 3

Biomedical Engineering Major Project (60 credits)
Assistive and Mechanical Devices (30 credits)
Principles of Medical Electronics (30 credits)

*The information’s are correct at the time of publishing, however it may change if university makes any changes after we have published the information. While we try our best to provide correct information, It is advisable to call us or visit university website for up to date information.

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