Universitat Politècnica de Catalunya · BarcelonaTech

Master's degree in Biomedical Engineering

The Master’s degree in Biomedical Engineering, coordinated by the Universitat de Barcelona (UB) with the UPC as a participant, aims to solve any specific engineering problem arising in biology and medicine. It is an interuniversity master’s degree that offers technical, scientific and practical technology training that is suitable for application in the basic disciplines of medicine and will enable graduates to further their careers in the fields of industry, health, research, development and innovation.

Show full content
Hide full content

Introduction

Duration and start date
One academic year, 60 ECTS credits. Starting September
Timetable and delivery
Afternoons. Face-to-face
Language of instruction

Subjects will be taught in Spanish or English, depending on the student's level of comprehension and on the teaching objectives of the master's degree course.

Official degree
Recorded in the Ministry of Education's degree register
Double-degree agreements
Double-degree pathways with universities around the world
  • Interuniversity master's degree in Biomedical Engineering (ETSEIB, UB-UPC) + Master's degree in Medical Engineering (University of Applied Sciences Jena, EAH Jena)

Admission

General requirements
Academic requirements for admission to master's degrees
Places
50
Pre-enrolment
To enrol for an interuniversity master’s degree coordinated by a university other than the UPC, you must enrol through the coordinating university:
Universitat de Barcelona (UB)

Professional opportunities

Professional opportunities

The content of the master's degree in Biomedical Engineering is applicable to three main sectors: industry, healthcare and research, development and innovation.

Industry

In the industrial sector, the structure presented in the White Paper on Research, Development and Innovation in the Healthcare Products Sector—published in 2001 by the Spanish Federation of Healthcare Technology Companies (FENIN) with the support of the Ministry of Science and Technology and the Ministry of Health and Consumer Affairs—identifies 10 principal sub-sectors requiring qualified graduates: electromedicine; in vitro diagnosis; nephrology; cardiovascular medicine; neurosurgery and pain treatment; orthopaedic surgery and traumatology; single-use medical product manufacturing; healthcare services; dental technology; and optics and ophthalmology.

Healthcare

There are currently some 800 hospitals in Spain, only 250 of which employ technical staff specifically responsible for maintaining installations. The acquisition, renewal, operation and optimisation of these installations, all of which have a considerable bearing on process efficiency and care quality, are tasks often assigned to different managers, while training is generally provided by the sales staff of the product distributors. As such, new graduates with the knowledge and training required to identify and implement the most suitable policies in specific circumstances can make a valuable contribution to improving the current situation.

Research, development and innovation

New graduates of the master's degree in Biomedical Engineering are needed to join the internationally renowned research groups of the Institute for Bioengineering of Catalonia (IBEC) and the Catalan public universities. The course content is designed to reflect current requirements in scientific research, development and innovation. Journals and conferences in the biomedical engineering sector group scientific activities in the following major areas: bioelectronics; biomaterials; biomechanics; biosystems; biomedical imaging; nanobioengineering; biomedical signal processing; and medical technology.

Competencies

Generic competencies

Generic competencies are the skills that graduates acquire regardless of the specific course or field of study. The generic competencies established by the UPC are capacity for innovation and entrepreneurship, sustainability and social commitment, knowledge of a foreign language (preferably English), teamwork and proper use of information resources.

On completion of the course, students will be able to:

Specific skills

  • Analyse complex systems and decide which aspects or subsystems are most important, according to the specifications of the task to be carried out.
  • Use the basic and specific instrumentation of biomedical engineering.
  • Experimentally check the validity of the theoretical models for the apparatus, devices, machines and systems used in biomedical engineering.
  • Install hardware and software for data acquisition systems and update systems.
  • Design and carry out the experiments required for research projects.
  • Manage the literature, documents, legislation, data bases and specific software used in biomedical engineering.

 

Attitudes

  • A desire for continuing professional improvement.
  • Critical awareness.
  • An awareness of the role of engineering in today's world.

 

In the industrial field:
  • Understand the needs of the sector of healthcare products.
  • Know the EU directives and the corresponding Royal Decrees on designing and/or developing healthcare products, in order to guarantee the quality, safety and effectiveness of such products.
  • Lead design and/or production projects in the R&D departments of healthcare product manufacturers.
  • Carry out the technical management of the quality, safety and effectiveness of healthcare products.
  • Be responsible for the company’s healthcare products in the hospital environment. Give training and support for these products to healthcare personnel.
In the healthcare field:
  • Know the criteria for the appropriate use of healthcare equipment and its rationalisation, which is closely linked to greater efficiency of processes and an improvement in the quality of healthcare.
  • Have a working knowledge of new equipment related to the new forms of healthcare (telemedicine for home healthcare, expert monitoring systems, etc.).
  • Acquire and update healthcare equipment in accordance with established criteria.
  • Use the technological equipment of healthcare products.
  • Carry out maintenance of healthcare facilities and products.
  • Distinguish, from the viewpoint of health centres, the most appropriate policies for healthcare equipment and facilities.
In the research field:
  • Understand the methodology used in R&D activities in companies and in public and private science and technology research centres and groups.
  • Lead a project to develop new healthcare products.
  • Give technical advice to hospital centres or to companies in the healthcare sector.
  • Certify and assess healthcare products and facilities.

Curriculum Obre en finestra nova

Pla d'estudis no disponible

Print version Obre PDF



Request information

Webpage updated by the Communications Service and the Teaching Area.