International Students - Frequently Asked Questions
The minimum requirement for entry is an Upper Second Class Honours Degree (2.1 or higher) or equivalent in engineering, physical sciences or mathematics from a recognised University. Applicants from a medical or life sciences background are also encouraged to apply provided they have proven mathematics ability.
All modules are semesterised with module lectures taking place each weekday. Please see sample timetable.
This is a one year full time course commencing September 2017 and ending August 2018.
The course is designed for graduate engineers. As such, it is assumed that all have a solid foundation in engineering analysis, specifically signal and system analysis; partial differential equations and optimization.
The course assumes that students have a knowledge of computer programming so that they can implement numerical calculations. This is necessary for some of the projects and some of the assignments. Most programming is based on Matlab and a knowledge of this or similar analysis platform (Octave, MathCad etc.) would be an advantage.
Applicants must specify the stream they would like to take, if you are interested in more than one specialisation then list them in order of preference on the online application form. There are three Streams: General Stream, Tissue Engineering and Medical Device Design. Please note that specifying your preferred specialisation will not exclude you from other streams.
The MSc programme will provide a high quality bioengineering education with a focused, coordinated education geared towards enabling our graduates to pursue careers in the Medical device sector. The course is primarily aimed at graduates in mechanical and electrical engineering, and graduates with suitable degrees in technology and applied scientific disciplines who intend to pursue a career in the Bioengineering industry. The intake will include both recent graduates and working engineers released from their employment to complete the course.back to top
Applications for this course must be made online. Simply click the Apply Now tab. Course Code PTEG-BIOE-IF
Closing Date: Now closed for 17/18 intake
Application queries will be dealt with by the Academic Registry.
Informal enquiries may be made by contacting Lisa O'Neill in the Trinity Centre for Bioengineering: firstname.lastname@example.org
CLOSED FOR 17/18 INTAKE
Applications will be reviewed on an ongoing scheduled basis and shortlisted. Only complete applications with all required documentation uploaded will be reviewed for shortlisting. Shortlisted applicants will be called for interview with the course director.
Shortlisting for interview is primarily based on academic achievement and suitability for a given specialisation based on dissertation project, awards, other academic related extracurricular activities etc. Please ensure and highlight why you are best suited to the particular stream and your future career ambitions.
Interviews will take place on pre-specified dates in January, March, May and June. Applications received by February will be shortlisted and interviewed the first week in March. Applications received by 30 April will be shortlisted and intervewed in May. Applications received by 31 May will be interviewed in June. Interviewees will be informed about the outcome within two weeks of their interview.
Course code PTEG-BIOE-1F M.Sc. Bioengineering (F/T) FULLTIME COURSE ONLY AVAILABLE
Full fees for non-EU and EU students is Eur
The MSc in Bioengineering consists of taught modules and a project focusing on medical devices and important clinical needs. The taught component consists of the following modules:
- Medical Device Design
- Physiological Measurement
- Research Methods
- Form & Function of the Nervous System
- Cell and Tissue Engineering
- Research Methods in Cell and Tissue Engineering
- Cellular Biology
- Cell Signalling Mechanisms
Students who complete the examination requirements and the Research methodology module only, may, on the recommendation of the examiners, be awarded a Postgraduate Diploma in Bioengineering (60 credits).
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All modules are semesterised with module lectures taking place each weekday.
The highest per capita of Medical Technology personnel in Europe is employed in Ireland, which is home to 15 of the world’s top 20 MedTech companies and a proven location for research, design and manufacturing. The majority of the companies in the healthcare and medical device industry are international, and as such, opportunities to work both home and abroad are available in product development, manufacturing, management, research and teaching. BioEngineers will find that they work in interdisciplinary environments, and often have direct contact with physicians. Job titles include R&D Engineer, Medical Equipment Engineer, Medical Device R& D Engineer, Engineering Design Manager, Materials Engineer, Business development manager, Tech Transfer engineer.
Career opportunities for Tissue Engineering Specialisation graduates are exceptionally strong. 50% of the top 25 medical device companies worldwide are located in Ireland employing 25,000 people with annual exports of approximately €6.2 billion.
Tissue engineering is a multidisciplinary approach to develop new biomaterials, therapeutics and strategies for modern medicine. This is an exciting multidisciplinary field of research which holds significant potential in the treatment of many diseases and disorders and unmet clinical needs. The Tissue Engineering specialisation is part of our MSc in Bioengineering programme which has been developed to educate and train the next generation of biomedical tissue engineers.
This specialisation aims to provide a sound and broad basis in tissue engineering. In particular, we aim to provide engineers and scientists with the education needed to practice tissue engineering in the international medical devices industry.
The Medical Device Specialisation provides students with the knowledge to enter the vibrant medical device industry and potentially become one of the medical device industry’s future leaders.
The success and impact of this course makes our highly skilled graduates employable around the world. Our graduate bioengineers work in the design and manufacture of medical devices with market leading companies including Medtronic and Johnson & Johnson; in hospital and clinical environments; on the regulatory practice of medical devices with the Irish Medicines Board and research laboratories including Stanford University. This M.Sc. programme is an excellent foundation for further research and many graduates are currently doing PhD research in Medical Device Design. To see a selection of current research opportunities go to www.tcd.ie/ bioengineering/opportunities/ Notably some of our Bioengineering graduates have started their own companies translating their research into providing excellence in human health. Read more on this at www.tcd.ie/bioengineering/research-innovation/. There are many enticing graduate engineering positions and our MSc in Bioengineering programme is very highly recognised in industry.
Throughout the MSc programme you will have invaluable access to potential employers and clinical collaborators to help further your career. You will have the opportunity to meet with renowned international experts in the bioengineering field as well as enterprise & innovation seminars, visits to hospitals and lectures from leading surgeons and clinicians.
This programme aims to give engineers and scientists the education needed to practice bioengineering in the medical devices industry in Ireland. Specifically the aims are:
- To give students a broad understanding of the key subjects of bioengineering, viz., biomechanics, biomaterials, bioinstrumentation, cell and tissue engineering and healthcare informatics.
- By way of case studies and assignments, to give students a familiarity with bioengineering applied in the main surgical disciplines; e.g. orthopaedics, cardiology, gastroenterology, ENT Surgery.
- To give students a sound understanding of how to apply the scientific method to research in an industrial context.
- To give students the ability to exploit information technology for monitoring the performance of medical devices and related issues.
- To give students a knowledge of how the medical device industry is regulated and of how to obtain acceptance of new products onto the market.