Quantum Science & Technology is an interdisciplinary, research-driven field that underpins next-generation information, sensing and computing technologies. The programme covers core areas such as quantum computing, quantum sensing, quantum simulation, quantum materials and quantum cryptography. It builds on a solid grasp of quantum mechanics while integrating methods and knowledge from related disciplines like mathematics, information technology, electrical engineering and chemistry. The two Munich universities have combined their resources so students benefit from a shared curriculum and the excellent research environment of the Munich Center for Quantum Science and Technology (MCQST).
The curriculum goes beyond traditional quantum mechanics to address “Quantum 2.0” concepts where superposition and entanglement are central. You will train to convert recent research results from the natural sciences, mathematics and engineering into practical applications—examples include quantum sensors, quantum algorithms and quantum computers. Coursework and practical training emphasize both the theoretical foundations and hands‑on skills needed to run interdisciplinary research or industrial projects, and the programme also supports development of teamwork and communication skills important in academic and industry settings.
This two‑year Master’s programme offers research-oriented training at the interface of natural sciences, engineering and mathematics and provides early exposure to cutting‑edge international research. Study and research offerings from both universities are integrated on an equal footing, and you may choose courses from either institution to shape an individualized curriculum. Graduates are prepared for a wide range of roles: experimental or theoretical research, research project planning and documentation, and technology‑oriented positions in industry and service sectors (e.g., development, patenting, project management) as well as roles in public institutions.
This interdisciplinary Master’s programme is structured so that the first year establishes a strong foundation in quantum science through core lectures and hands-on laboratory courses. Students must complete the two mandatory modules PH1009 and PH1010 in the first semester; beyond these required courses they choose from a catalogue of electives that cover focused topics within Quantum Science & Technology. The elective offerings mirror the wide-ranging research strengths of the cooperating universities (TUM and LMU), and the curriculum is complemented by a scientifically oriented lab course and a general-education subject to broaden the academic profile.
The second year is devoted to research training and the Master’s thesis. After initial orientation in the Master’s seminar and a supervised practical training phase, each student carries out an independent thesis project under a faculty adviser, with intensive support from numerous scientists. Learning outcomes include the ability to engage with current research questions in quantum science, to design and execute experimental or theoretical investigations, to communicate scientific results, and to work independently within national and international research networks—benefiting from the programme’s strong research environment and collaborative links.
Program requirements (concise)
This Master's programme requires a solid Bachelor's-level foundation in physics or a closely related science or engineering discipline. Admissions are decided by a committee that evaluates whether your prior degree and coursework provide the competencies needed for this Master’s. International applicants should expect to provide detailed course information so equivalence can be assessed fairly.
Carefully check the programme’s application and prerequisite page for full details: https://academics.nat.tum.de/en/msc/qst/apply. In particular, you must demonstrate completion of specific subject-matter courses (see notes below), and international applicants must complete an additional curricular analysis form. Because study structures and credit systems differ worldwide, you must attach concise course descriptions/syllabi to your application so the committee can evaluate content equivalence.
Admission requirements (bullet points)
If you have any uncertainty about whether your degree or courses meet these requirements, consult the programme’s apply/prerequisite page linked above and consider contacting the admissions office for guidance before applying.
Winter Semester (International)
31 May 2026
Winter Semester (EU/EEA)
31 May 2026
Graduates are prepared for experimental and theoretical research positions in academia and industry, including roles in planning and documentation of research projects. Typical employment areas described by the programme include experimental/theoretical research groups, R&D departments in technology companies, and positions in adjacent fields of the computer science and technology industry (e.g., development, project planning, patenting), as well as roles in public research institutions.
The programme’s interdisciplinary and application‑oriented training also equips graduates to work on quantum sensors, quantum algorithms and quantum computing technologies in startups or established firms, or to continue on to doctoral research. The combination of physics, mathematics and engineering skills makes graduates competitive for positions that bridge fundamental research and technology development in the rapidly growing quantum technology sector.
Friedrich Schiller University Jena — Jena
University of Göttingen — Göttingen
Technical University of Munich — München
Johannes Gutenberg University Mainz — Mainz