Master of Science in Medical Photonics

Overview

Modern medicine increasingly relies on light-based methods to understand disease mechanisms, enable earlier diagnoses and deliver more targeted treatments. This programme explores how optical and photonic technologies are applied both in biomedical research — to observe and influence molecular processes in cells and tissues — and in clinical settings such as ophthalmology, endoscopy and biomedical imaging.

Offered jointly by the Faculties of Medicine; Chemistry and Earth Sciences; and Physics and Astronomy, the MSc provides both foundational and advanced training in the rapidly evolving field of medical photonics. The curriculum is deliberately interdisciplinary: students from physics, chemistry, biochemistry, biology and medicine are given the opportunity to acquire complementary knowledge from neighboring disciplines. Early adjustment modules help bridge differing backgrounds, and core practical modules build skills in programming, statistics and image processing. Elective courses in the second and third semesters let you specialise before completing a research-based master’s thesis in the fourth semester.

Student support is provided throughout the programme. The International Office assists with preparations for coming to Jena, while the programme coordinator and teaching staff offer academic counselling during your studies. In addition, courses to strengthen personal and scientific competencies — for example presentation skills, scientific writing and good scientific practice — are available to help you succeed in research and clinical environments. More detailed information is available on the programme website.

Entry requirements

• Bachelor of Science in physics, chemistry, biochemistry or biology
• Medical doctors and students of medicine are also eligible
• Programme language: English

The curriculum is built from modular units that carry ECTS credit and are organized into five thematic blocks. In the early semesters, the "Adjustment" modules strengthen foundational knowledge across related disciplines — mathematics, core physics, physical chemistry, spectroscopy and human biology — so students enter the advanced photonics topics with a solid, interdisciplinary base. This ensures students from diverse backgrounds can bridge gaps and follow later courses effectively.

The "Fundamentals" block provides practical and computational skills that are central to medical photonics: programming, statistics, image processing and an introduction to biomedical imaging techniques. Elective courses in the second and third semesters allow you to tailor the degree to your interests. The "Specialisation" modules let you go deeper into technical and clinical areas such as microscopy (biological and single-molecule microscopy, electron microscopy, nano-optics, specimen labeling), spectroscopy and diagnostics (microspectroscopy, chemometrics, optical sensors, microfluidics, mass spectrometry), clinical applications (ophthalmology, medical diagnosis and therapy, theranostics, biomaterials) and enabling technologies (lasers, optical fibres). Students who want stronger math or informatics preparation can take advanced options like advanced mathematics, image understanding, visual recognition and management of scientific data.

Hands-on learning is integrated throughout the program. In semesters 1 and 2 you complete practical lab courses that let you implement theory in experimental set-ups located in the departments of physics, physical chemistry and physiology. In semester 3 a research-oriented practical places you in an active research group and links directly to your thesis topic, which you complete in semester 4. By the end of the program you will have acquired interdisciplinary theoretical knowledge, practical laboratory and imaging skills, computational competence, and supervised research experience preparing you to undertake advanced work in medical photonics.

Program (curriculum) requirements — concise overview

• Modules are credit-rated under the ECTS modular system and must be completed for credit.
• Complete Adjustment modules (semesters 1–2) to shore up maths, physics, chemistry, spectroscopy and human biology.
• Complete Fundamentals modules covering programming, statistics, image processing and introductory biomedical imaging.
• Choose and complete elective courses offered in semesters 2 and 3.
• Complete Specialisation modules in chosen advanced topics (microscopy, spectroscopy/diagnostics, clinical applications, photonics tools).
• Participate in practical laboratory courses in semesters 1 and 2 (experiments in physics, physical chemistry, physiology labs).
• Undertake a research-oriented practical in semester 3 with a research group.
• Complete and submit a Master’s thesis in semester 4.

Graduates are prepared for research and development roles in academic laboratories, medical and biomedical research institutes, and the medical/optical device industry where expertise in photonics and biomedical applications is required. The programme also provides a solid foundation for doctoral studies in medical photonics, biomedical optics, imaging science or related fields.

Typical professional paths include positions in biomedical imaging and diagnostics development, clinical photonics applications, R&D in companies producing lasers, sensors or medical devices, and continuation to PhD programmes focused on interdisciplinary photonics and life-science projects.