This programme addresses the growing societal challenge of extreme natural events and their wide-ranging consequences. You will study how exogenous hazards (storms, storm surges, heavy rainfall) are intensifying, and how endogenous events (earthquakes, volcanic eruptions) and their cascading effects (tsunamis, mass movements) create complex, sometimes cumulative disaster scenarios. The course builds a solid geoscientific foundation to analyse the spatial, temporal and intensity aspects of such hazards and to assess their impact on communities and infrastructure.
Taught in English over four semesters, the MSc combines natural sciences, engineering and economics so you can design and evaluate practical protection measures that save lives and reduce damage. The curriculum emphasises responsible, sustainable approaches to disaster prevention, response and habitat rehabilitation, recognising the economic and ecological trade-offs involved in managing risk. Graduates are prepared to contribute to improved control and long-term, sustainable planning of living environments.
Hands-on experience is integrated into the programme: a research module allows an applied master’s thesis in collaboration with partner companies, and this period serves as a designated mobility window. You can also choose courses from the wider geoscientific network in the Aachen/Bonn/Cologne/Jülich region (ABC-J module) to complement what RWTH Aachen offers, strengthening both practical skills and interdisciplinary perspectives.
Key facts and programme requirements
This MSc programme is designed to be flexible, letting you tailor your studies through a wide selection of elective modules. In the first year you build a solid foundation in geo- and engineering-science principles and processes. You can also integrate a research module that is linked to a current research project (from academia and/or industry). That research component trains you to develop numerical or conceptual models, critically assess their strengths and weaknesses, and estimate associated uncertainties. Practical skills in processing and evaluating data related to natural hazards are emphasised, along with training in the sensitive, high‑value public communication that often accompanies geohazard work.
In the second year you deepen the theoretical and applied knowledge gained earlier. An internship in industry or research is a compulsory part of the programme, providing hands‑on experience and networking opportunities. There is also the option to include a mobility module if you wish to study or do research elsewhere. The degree is completed by a Master’s thesis that consolidates your learning and demonstrates independent research or applied problem solving.
Key learning outcomes you can expect:
Curriculum requirements and key modules (overview):
Applicants must hold a Bachelor of Science (BSc) degree in one of the following fields: geosciences, geography, environmental sciences, environmental engineering, or civil engineering. The bachelor’s degree should correspond to at least 180 ECTS credits (the European Credit Transfer and Accumulation System — typically a three-year programme in Europe).
Within those 180 ECTS, your prior studies must include specific subject-area credits. You need a substantial foundation in geoscience topics and a basic grounding in quantitative or natural-science subjects (mathematics, chemistry, and/or physics).
If your degree uses a different credit system, make sure to convert your credits to ECTS when preparing your application.
Winter Semester (International)
1 March 2026
Summer Semester (International)
1 September 2026
Winter Semester (EU/EEA)
15 July 2026
Summer Semester (EU/EEA)
15 January 2027
Graduates are prepared for roles in geohazard assessment, risk management and mitigation across industry, research institutes, consulting firms and public authorities. The programme's combination of geoscientific fundamentals, engineering design of protection measures and economics equips alumni to work as engineering geologists, geohazard analysts, risk consultants, or in planning and implementation of disaster prevention and rehabilitation projects.
The built-in practical elements (internship, applied thesis) and network connections improve employability in both private-sector engineering firms and governmental or NGO sectors concerned with natural disaster preparedness, recovery and sustainable spatial planning. Graduates can also pursue research careers or further doctoral studies in related fields.
RWTH Aachen University — Aachen
University of Tübingen — Tübingen
Ludwig-Maximilians-Universität München — München
RWTH Aachen University — Aachen