This research-driven, experiment-based MSc program explores how technological and computational advances reshape the conception, design and materialization of the built environment. It brings together design, engineering, construction and natural sciences to push the boundaries of contemporary architectural and engineering practice. The curriculum emphasizes critical and analytical approaches to computational design, simulation and fabrication, encouraging students to rethink methods, techniques and theories in relation to robotics, digital manufacturing, material science and biology.
Students work across structural and climate engineering, advanced fabrication and construction technologies while engaging in hands-on, inquiry-oriented projects. The program treats design not only as the shaping of space, surface and structure but also as the design of processes, systems and interactions—preparing graduates to respond to environmental and economic constraints while leveraging rapidly evolving technical possibilities. Teaching is built around multidisciplinary experimentation and close integration of computation, materials and manufacturing.
Courses are taught in English by researchers from the partner institutes ICD and ITKE with academic oversight by Professors Menges and Knippers and contributions from visiting researchers and scientists. The program is suited to anyone aiming to develop a career at the intersection of architecture, technology and the natural sciences—whether in advanced practice, research or industry—and offers the chance to study with one of the leading teams in technological and computational design research.
Entry profile & essentials
Curriculum summary
This full-time Master's follows the German semester calendar: the winter semester runs roughly mid‑October to mid‑February (with a two‑week Christmas break) and the summer semester from about mid‑April to mid‑July. While lectures are scheduled within these semesters, studio work and coursework submissions are expected to be completed outside lecture hours, reflecting the programme’s intensive, practice‑and‑research orientation.
In the first year, the core learning is organised around two major collaborative design‑research projects led jointly by the participating institutes. These projects are supported each semester by two seminar modules that introduce and deepen topics in computational design, engineering and construction. A regular series of expert colloquia complements the seminars and studios, exposing students to current research and providing critical input for project development.
The second year prepares students to produce an independent, research‑led Master’s thesis. The third semester centres on a thesis preparation project, again supported by two seminars and a small elective (3 ECTS) chosen to align with the planned thesis topic. The entire fourth semester is reserved for completing the Master’s thesis. The programme’s ECTS structure is aligned with the faculty’s general Master’s in Architecture and Urban Planning, enabling students to take relevant courses at other institutes within the faculty.
Key modules and learning outcomes (concise)
Requirements / structure (concise)
This programme welcomes applicants who hold a relevant Bachelor's degree in architecture, engineering, planning or related natural sciences. It is designed as a two-year professional Master's for students coming from three-year Bachelor's programmes, but there are pathways for those with longer or higher-level prior qualifications.
If you have a qualifying four-year Bachelor's degree or already hold a Master’s degree, you may request advanced standing after enrolling; the university will assess your prior learning and may place eligible students directly into the third semester. For full application instructions, required documents and timelines, consult the programme’s official admissions page.
Winter Semester (International)
15 February 2027
Winter Semester (EU/EEA)
15 February 2027
Graduates are prepared for roles at the intersection of architectural design, engineering and technology, including positions in advanced design studios, research and development teams within construction and manufacturing firms, and specialist consultancies focused on computational design and digital fabrication. The programme’s emphasis on experimental methods and interdisciplinary collaboration also provides a strong foundation for doctoral studies and research careers.
Because the course combines technical, scientific and design skills, alumni can contribute to areas such as sustainable building systems, robotics in construction, material innovation, digital manufacturing workflows, and façade or structural engineering research. The training in thesis-led research and project management is valuable for both industry R&D and academic pathways.
Brandenburg University of Technology Cottbus-Senftenberg — Cottbus
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Bauhaus-Universität Weimar — Weimar
Bauhaus-Universität Weimar — Weimar