This English-language, research-focused Master of Science is an interdisciplinary programme delivered by the Faculty of Chemistry and Biochemistry at Ruhr-Universität Bochum. It combines theoretical and experimental training in spectroscopy with molecular simulation methods across molecular and physical chemistry, biochemistry and physics. The course is embedded in a national cluster of excellence for solvation science, gives early hands-on experience in high-profile research groups, and keeps student numbers deliberately small (maximum 20) to ensure intensive supervision and teamwork in multicultural, interdisciplinary lab groups.
Students complete an integrated research practical and a dedicated two- to three-month placement at an international top institute, alongside coursework and an integrated three-month international module. Graduates are well prepared to continue into funded doctoral research in Germany or elsewhere; outstanding candidates may take a fast-track route by using the master’s year as a preparatory year and co-enrolling in the associated iGSS or GSCB PhD programmes. The university provides comprehensive international student support (before, during and after the programme), language courses in German and English, and access to an active research environment led by internationally recognised scientists.
Entry requirements and required skills
This master's trains you in both advanced spectroscopic methods and the theoretical tools needed to model molecular systems. You will gain practical, hands‑on experience alongside coursework in spectroscopy, molecular structure and dynamics, and computational approaches — enabling you to study molecular (and biomolecular) physics and chemistry across length scales from nanostructures to bulk systems. Graduates leave prepared for interdisciplinary research and technical roles, and many continue to PhD programmes or move into areas such as molecular modelling, laser photonics, ultrafast IR spectroscopy, EPR of biomolecules, and solvation science. The programme also opens pathways into optical and information technologies (e.g., lasers, microscopy, data mining, medical applications).
The curriculum totals 120 ECTS and integrates laboratory practicals within many modules. The study plan balances core theoretical courses (e.g., electronic/molecular structure, theoretical spectroscopy, statistical physics) with applied and computational training (dynamics & simulation, scientific programming, biomolecular simulation). In the third semester you undertake an intensive focal‑point practical in a research group plus an international three‑month internship, and the fourth semester is devoted to a 30‑ECTS master’s thesis — collectively designed to make you research‑ready and employable in both academia and industry.
If you want, I can produce a one‑page study plan showing how these modules might be scheduled across semesters or summarize the seven electives with more detail.
You should hold an undergraduate degree (bachelor’s or equivalent) in a closely related field and be able to document relevant coursework. The programme expects demonstrable mathematical background as well as preparatory studies in theoretical chemistry, spectroscopy, quantum mechanics, or similar areas.
If your previous institution does not use the ECTS system, submit official transcripts or a certified statement showing the equivalent number of course credits. Individual modules from different courses may be combined to meet the credit totals.
Winter Semester (International)
15 June 2026
Winter Semester (EU/EEA)
15 June 2026
Graduates are well prepared for academic research careers and many continue into funded PhD programmes in areas such as molecular modelling, ultrafast IR spectroscopy, EPR of biomolecules, laser photonics and solvation science. The programme’s strong emphasis on spectroscopy, simulation and hands-on research makes alumni competitive applicants for doctoral positions in Germany and abroad.
Outside academia, graduates can pursue R&D and technical roles in optical and information technologies (e.g. lasers, microscopy), analytical and instrumentation companies, medical applications, and data-driven sectors (e.g. data mining for materials/biophysical research). The interdisciplinary training in theory, experiment and scientific programming also suits positions in industrial research labs, instrumentation development and computational modelling teams.