This program, provided by the Faculty of Biological & Environmental Sciences of ZWU, has a foundation of 60-year development in bioengineering related fields, adopting dual tutorial system to ensure mentors from school and enterprise mutually share the guidance work to students’ course study, project research, internship and graduation dissertation and so on in order to cultivate applied and inter-disciplinary talents, with strong practical and innovation abilities, who are able to engaged in pharmaceuticals, technology development, engineering design and biological processing design and control in related fields of biological health food, biological agriculture and marine biology.

The Master of Engineering in Regulatory Biomedical Engineering (r.B.M.E.) is an interdisciplinary program offered through the Department of Biomedical Engineering in partnership with GW's School of Medicine and Health Sciences. The new program addresses an unmet need for a graduate program to train engineers in the specific set of skills of regulatory science, biomedical innovation, and entrepreneurship. Students with training in engineering or physics and/or relevant industry/government experience study the fundamentals of biomedical engineering, global regulatory affairs, regulatory strategy in the development of devices and diagnostics, regulatory compliance, engineering patent law, medical measurements, and instrument design. In addition to coursework, students gain experience in SBIR/STTR grant applications and/or FDA Premarket Notification (510(k)) submissions for medical devices.... [-]

The master’s degree program is an extension and a deepening of the bachelor’s degree program “Medical Device Technology”. It is, however, suitable for graduates of other technical-scientific courses of studies. It enables students to acquire profound knowledge of medical engineering that is primarily focused on medical device and rehabilitation technology and oriented towards the practical needs of professional and qualified persons.

The curriculum offers students to focus on three out of four professional areas of your choice. These are electronics, biomechanics, medical device software and materials technology. Further obligatory modules and comprehensive project work enhance the program and make it a well-founded science-based master’s degree program. Its culmination is a master’s thesis.... [-]

Under the patronage of SIT – the Italian Society of Telemedicine - The Rome Business School’s Master’s Degree Course in e-Health Management has been designed to supply training on organizational processes and technologies aimed at the proper introduction and management of ICT solutions and Telemedicine in Health Systems.

Starting Date: each year in March and October

E-Health is the combined use of information technology and electronic communication, especially the internet, in the health sector, for clinical, educational and administrative purposes; both on-site and at distance (in which case it is called Telemedicine). E-Health is not only a technical development but also represents a way of thinking, a commitment, an organizational approach to improve health care locally or regionally by using the new opportunities presented by Information and Communication Technology. Starting date: each year, in March and October.... [-]

The interprofessional and innovative master’s degree program in Biomedical Technologies is characterized by practice orientation and internationality. Lectures are embedded in a modern technological and medical environment and are supported by an interdisciplinary team of internationally well-known and distinguished scientists. Graduates are well prepared for various professional challenges and have excellent career perspectives in Biomedical Technologies.

Innovative. Interdisciplinary. International. Since 1477. The University of Tübingen has combined these leading principles in its teaching and research since its foundation. It is one of the oldest and most renowned universities in Germany and offers a first-class framework for professional studies, as well as the possibility to set personal accents and priorities. Many further amenities enhance the attractive study conditions, such as the campus sports program, the center for foreign languages, the interdisciplinary ‘Studium Generale’ and the modern university library. Let the university’s slogan speak for itself: attempto – I dare!... [-]

Unique in Australia, this course offers a thorough grounding in state-of-the-art biotechnology in combination with training in enterprise, commercialization and intellectual property (IP) protection with specializations in either Biochemistry and Molecular Biology, Environmental Biotechnology, Genetics, and Breeding or Genetics and Genomics.

Using world-leading research staff, business experts and mentors in biotechnology companies, you're provided with the fundamental academic and business skills needed to make a significant contribution to the biotechnology sector.

Biotechnology is rapidly becoming central to our lives. The use of plants, animals, and bacteria, enhanced by areas such as genetics and genomics gives rise to new food, fiber and chemical production routes, new strategies for environmental protection and stewardship as well as training the next generation of biomolecular scientists. This is a signature program that set us apart from other universities by offering a thorough grounding in state-of-the-art biotechnology and combining this with training in enterprise and commercialization. This includes developing the theory of genetics and molecular biology in parallel with skills training in practical techniques such as genomics, proteomics, metabolomics, recombinant DNA methods, and basic and advanced bioinformatics.... [-]

The Master's Programme in Health Informatics is aimed at students who are interested in information technology and its application to the fields of medicine and health care. You will learn methods to make health care safer, more efficient and of higher quality through computer based information and knowledge management.

Students may have their initial training in either health care or a technical discipline. During the first semester, students with technical backgrounds take courses in basic medical sciences, health care organisation and management, while students with medical backgrounds learn basic computer and systems sciences. The first semester ends with a joint course in health care information systems. The second semester covers basic health informatics methods for user needs and requirements engineering, standardisation within health informatics and evaluation. Parallel to these courses, health informatics related case studies will be discussed in a seminar series, after which the semester ends with a research project course. The third semester provides an opportunity for in-depth study of health informatics with two required courses in clinical decision support, modelling and simulation, as well as a block of elective courses. These elective courses can be taken either at Karolinska Institutet, Stockholm University or at any of the foreign universities that KI has an existing collaboration with. The fourth and final semester consists of a thesis in which students carry out a larger scientific study. The programme is given by Karolinska Institutet in conjunction with Stockholm University, and you receive get a joint degree from... [-]

The Master in Biomedical Engineering positions the student in one of the sectors that will mark the 21st century: Bioengineering.

The Master in Biomedical Engineering offers proximity to industry, innovation and itineraries according to market demands: development of biomedical devices and analysis of biomedical data.

This master's degree responds to the professional profile demanded by the Biomedical Engineering sector - biosanitary field, medical equipment, drug development and biomedical devices - both nationally and internationally, where the important technological base present in most of the companies is reflected in the high level of qualification of its employees.... [-]

Biomedical Systems Engineering is a unique degree which teaches students to apply a Systems Engineering methodology incorporating concepts from multiple disciplines to the modelling, analysis and intervention of biomedical problems. Biomedical Systems Engineers may apply the principles of electronics to the analysis of the body’s own electrical activity and to the measurement and analysis of signals from the body such as medical images. They may also apply the principles of mechanical engineering to the analysis of motion and creation of devices which monitor and support walking. Warwick graduates are particularly adept at the modelling, analysis and control of biomedical systems and their interactions.... [-]

The 21st century started as the century of molecular life sciences. Ever since the 1990s when scientists greatly improved our insights into the molecular basis of life processes, the life sciences have developed at a tremendous rate. Various breakthroughs, including the mapping of the human genome, are leading to the rapid development of inter-relationships between formerly autonomous scientific disciplines such as genetics, medicine, pharmacology, biology, and environmental science.

This creates new prospects for the academic and business worlds. Investments are huge: all over the world, universities, research institutes, and businesses are launching new research initiatives, teaching programs and business-related activities.... [-]

The Master in Biomedical Engineering seeks to initiate the training of people interested in the field of research, through a project from which the subjects of the curriculum will be articulated. In the research project, the professional will provide solutions to problems in the area of ​​health. The problems can be of the scientific order; technological or administrative.

The opening of these lines is subject to the number of applicants.

The periodicity of the admission is annual. Beginning in July... [-]

When studying this Masters, you will work with staff and researchers at UCD who have extensive experience in ground-breaking biomedical engineering research. You will also develop a knowledge of how the medical device industry is regulated and how new products are introduced to the market, drawing from experience within UCD which includes pioneering companies. The ME in Biomedical Engineering is the application of the principles of engineering to healthcare and medicine. It is an interdisciplinary field, requiring knowledge of both medicine and engineering.

Graduates with degrees in pharmacology and the life sciences are finding a challenging and changing landscape when it comes to their careers. Companies are increasingly searching for people who are not only strong technically but can also understand, lead, and manage, different business functions. This requires a broad skillset and a practical mentality, which is becoming harder and harder to find.... [-]

Texas Tech University's online Master of Engineering (Healthcare Engineering option) is offered by the Whitacre College of Engineering. The curriculum leading to the Master of Engineering (M.Eng.) degree with an option in Healthcare Engineering (MEHE) is designed to meet the growing demand for trained engineers who are able to apply the principles of engineering, health sciences, and business administration.

The curriculum leading to the Master of Engineering (M.Eng.) degree with an option in Healthcare Engineering (MEHE) is designed to meet the growing demand for trained engineers who are able to apply the principles of engineering, health sciences, and business administration. These engineers effectively manage the physical, technological, and supports services of healthcare facilities, in order to optimize the safety, quality, efficiency, accessibility, and cost-effectiveness of healthcare delivery processes and healthcare systems.... [-]

AAL is one of the major emerging technology markets of the moment, offering the potential to enable and empower citizens in their daily lives using state-of-the-art technologies. Known as 'assistive technologies' in some areas, AAL facilitates everyday activities for people who require care and support, augmenting their quality of life and assisting their independence.

Thanks to advances in medicine and improved knowledge of the links between lifestyle and health, a large proportion of the world is living longer. Diseases like Alzheimer's naturally increase proportionally with life expectancy and this has huge implications for those affected, their family, the healthcare sector and society in general. Those using wheelchairs or with conditions such as autism and Down's syndrome can also benefit from AAL, as these novel technologies can be used to support independence inside and outside the hom when travelling or at work – stimulating socialisation and promoting more positive lifestyles.... [-]