MSc Biomedical Engineering

2 Years On Campus Masters Program

Furtwangen University

Program Overview

The M.Sc. Biomedical Engineering at HFU (Hochschule Furtwangen University) is an English-taught, 3-semester, 90-ECTS postgraduate program at the Schwenningen Campus, aimed at graduates with a first degree in engineering, natural sciences, medicine, or a similar field who enjoy analysing problems and want to develop innovative, economical solutions in medical technology. Students study at the interface of medicine, people, and technology, focusing on signal processing, medical measurement technology, medical modelling and simulation, biosignal analysis, medical image processing, and organ replacement systems.

Curriculum Structure:

Year 1 (Semester 1–2): In the first two semesters, students deepen their knowledge of the program's key areas, particularly modelling and simulation, advanced biosignal analysis and medical image processing, medical modelling and system identification methods, and organ replacement systems. Teaching combines traditional lectures with tutorials, seminars, practicals, and research projects in small groups, so students engage intensively with each topic while developing their teamwork and communication skills. Students also acquire interdisciplinary competencies such as practical scientific work methods, scientific publishing, interdisciplinary management aspects, foreign languages, and decision-making and problem-solving skills.

Year 2 (Semester 3): The final semester centres on the master's thesis and applied research, building on the research projects embedded throughout the program. Students apply their modelling, simulation, and biosignal/image-processing expertise to real medical technology problems, preparing them for industrial research and development or further academic qualification. The program explicitly notes that involvement in research projects and the manageable environment with modern facilities ideally prepare students for future professional challenges.

Focus areas: Modelling and simulation; advanced biosignal analysis and medical image processing; medical modelling and system identification methods; organ replacement systems; practical scientific work methods; scientific publishing and communication; interdisciplinary management; foreign languages; decision-making and problem-solving.

Learning outcomes: Ability to analyse medical technology problems arising in research and development in biomedical engineering and to find innovative and economical solutions; deepened knowledge of modelling and simulation; advanced biosignal analysis and medical image processing; specialist knowledge of medical modelling, system identification methods, and organ replacement systems; interdisciplinary skills in scientific work methods, communication (particularly scientific publishing), management, foreign languages, and decision-making and problem-solving.

Professional alignment (accreditation): The program is accredited ("Accreditation: yes" per the program page).

Reputation (employability rankings): No QS, Guardian, or official employability ranking data is provided on the program page; the page instead highlights the medical technology sector's strong future prospects and high degree of innovation (a third of the sector's turnover comes from products no more than three years old).

Experiential Learning (Research, Projects, Internships etc.)

Experiential learning in the HFU Biomedical Engineering  MSc. is built around a practical, research-embedded teaching model rather than optional add-ons: the program states that, alongside traditional lectures, "a large part of the course is taken up by tutorials, seminars, practicals and research projects," delivered in small groups that encourage intensive topic engagement and team-working skills. Students also benefit from a "manageable environment with modern facilities" on the Schwenningen Campus and from involvement in research projects that prepare them for industrial R&D or further academic qualification. The program's application-oriented focus—modelling and simulation, biosignal analysis, medical image processing, medical modelling, and organ replacement systems—implies corresponding practical and simulation-based coursework, though the page does not itemize specific labs or software.

Program-specific experiential elements that are documented on the page:

  • Practicals and tutorials: A large share of the curriculum is delivered through practicals, tutorials, and seminars rather than lectures alone, giving students hands-on exposure to the program's technical content.

  • Research projects: Students participate in research projects as a core part of the course, explicitly intended to prepare them for industrial research and development or a doctorate.

  • Small-group teamwork: Working in small groups is a deliberate teaching method, encouraging intensive engagement with topics and development of interpersonal and team-working abilities.

  • Modern facilities: The program highlights a "manageable environment with modern facilities" at the Schwenningen Campus, though specific laboratories or equipment are not named on the page.

  • Two-faculty structure: The degree is jointly hosted by Faculty II: Engineering & Technology and Faculty III: Health, Medical & Life Sciences, giving students access to both engineering and medical/life-science teaching environments.

  • International, English-taught cohort: All courses are taught in English with regularly enrolled students from other European and non-European countries, fostering intercultural and ethical competence through daily collaboration.

Not specified on the provided page (and therefore not verifiable from this source): named software tools, named laboratories or research institutes, library details, internships/placement semesters, and field trips. These should be confirmed with the program or the Schwenningen Campus facilities pages.

Progression & Future Opportunities

Experiential learning in the HFU Biomedical Engineering MSc. is built around a practical, research-embedded teaching model rather than optional add-ons: the program states that, alongside traditional lectures, "a large part of the course is taken up by tutorials, seminars, practicals and research projects," delivered in small groups that encourage intensive topic engagement and team-working skills. Students also benefit from a "manageable environment with modern facilities" on the Schwenningen Campus and from involvement in research projects that prepare them for industrial R&D or further academic qualification. The program's application-oriented focus—modelling and simulation, biosignal analysis, medical image processing, medical modelling, and organ replacement systems—implies corresponding practical and simulation-based coursework, though the page does not itemise specific labs or software.

Program-specific experiential elements that are documented on the page:

  • Practicals and tutorials: A large share of the curriculum is delivered through practicals, tutorials, and seminars rather than lectures alone, giving students hands-on exposure to the program's technical content.

  • Research projects: Students participate in research projects as a core part of the course, explicitly intended to prepare them for industrial research and development or a doctorate.

  • Small-group teamwork: Working in small groups is a deliberate teaching method, encouraging intensive engagement with topics and development of interpersonal and team-working abilities.

  • Modern facilities: The program highlights a "manageable environment with modern facilities" at the Schwenningen Campus, though specific laboratories or equipment are not named on the page.

  • Two-faculty structure: The degree is jointly hosted by Faculty II: Engineering & Technology and Faculty III: Health, Medical & Life Sciences, giving students access to both engineering and medical/life-science teaching environments.

  • International, English-taught cohort: All courses are taught in English with regularly enrolled students from other European and non-European countries, fostering intercultural and ethical competence through daily collaboration.

Program Key Stats

€3000
€0
€0

Oct Intake : 30th MarFebr Intake : 30th Oct


Eligibility Criteria

NA

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6.5
94
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Eligibility criteria

Additional Information & Requirements

Country Requirements

Career Options

  • Biomedical Engineer
  • Medical Device Design Engineer
  • Clinical Engineer
  • Medical Imaging Specialist
  • Biomechanics Engineer
  • Rehabilitation Engineer
  • Biomaterials Researcher
  • Biomedical Research Scientist
  • Medical Technology Specialist
  • Healthcare Technology Consultant
  • Signal Processing Engineer
  • Medical Software Developer
  • Quality Assurance Engineer
  • Regulatory Affairs Specialist
  • Research and Development Engineer
  • PhD Researcher
Career options

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