Master of Science in Scientific Instrumentation

Program overview

This four-semester MSc program provides an interdisciplinary education in the theory and practice of scientific instrumentation. In the first semester you take advanced foundation modules that cover Applied Mechanics, Electronics, Optics and Scientific Computing, building the technical and computational base needed for instrument development and research. The curriculum is taught entirely in English, making it accessible to international students.

Specialisation and practical focus

During the second and third semesters you select one of three specialisation tracks to tailor your studies:

• Design of Precision Instruments — emphasizes mechanical design and product development
• Materials and Processes — focuses on functional materials and micro‑ and nanotechnologies
• Applied Optics and Photonics — concentrates on optical engineering and image data processing

These tracks allow you to develop depth in a specific area while retaining an interdisciplinary perspective useful for R&D, product engineering, or applied research roles.

Thesis and career preparation

The fourth semester is devoted to research and the Master’s thesis, which you complete at a company, a research institute, or within the university. German language courses are offered at all levels alongside the programme to help international students prepare for industry internships, thesis placements with German partners, and working life in Germany.

Requirements (program structure and language)

• Complete foundational modules in semester 1 (Applied Mechanics, Electronics, Optics, Scientific Computing)
• Choose one specialisation for semesters 2 and 3 (Design of Precision Instruments; Materials and Processes; Applied Optics and Photonics)
• Undertake a research-based Master’s thesis in semester 4 (company, research institute, or university)
• Instruction language: English; German language courses provided for all levels

Program structure and teaching approach

The program is organised into modular units, with each successfully completed module awarding European Credit Transfer System (ECTS) points. This ECTS-based modular structure supports recognition of coursework taken at other universities across Europe. Modules combine lectures, seminars, tutorials and laboratory sessions; small-group tutorials are emphasised so you can practise applying theoretical concepts and benefit from close interaction with professors and tutors.

Practical laboratory work and teamwork

Laboratory modules are a core element of the curriculum. Students typically work in pairs in well‑equipped labs, carrying out experiments that reinforce and deepen the theoretical material from lectures and tutorials. This hands‑on experience builds practical instrumentation skills, experimental technique and the ability to work collaboratively on technical problems.

Master’s thesis and research links

The fourth semester is devoted to the Master’s thesis, which can be either a research project or a high‑tech development project carried out with state‑of‑the‑art equipment. Thesis work can take place at the university, at partner universities, in research centres or within industry and is co‑supervised by the hosting institution and the university. The university hosts well‑funded research groups in areas such as manufacturing technologies, optics and applied artificial intelligence and maintains strong ties with industry and external research networks (for example OptoNet e.V.), which can provide project and career entry opportunities.

Key learning outcomes

• Mastery of core theoretical concepts in scientific instrumentation combined with practical laboratory competence
• Ability to design, conduct and analyse experimental work and document results professionally
• Experience working in small teams and under close academic supervision
• Preparation to carry out independent research or technology development projects in academic or industrial settings

Program requirements / structure (concise)

• Modular curriculum with ECTS credits awarded per module (facilitates credit recognition)
• Modules include lectures, seminars, tutorials and laboratory work
• Tutorials delivered in small groups to support application of theory
• Laboratory experiments usually performed in pairs in well‑equipped facilities
• Fourth semester reserved for the Master’s thesis (research or development project)
• Thesis may be completed at the university, partner institutions, research centres or industry, with joint supervision
• Access to research groups in manufacturing technologies, optics and applied AI and to industry networks such as OptoNet e.V.

Graduates are prepared for technical and R&D roles in instrument and device development, precision engineering, optical systems and photonics, materials and micro-/nanotechnology, as well as measurement and control engineering. The programme’s applied lab work and industry-connected thesis option make it especially suitable for positions in high-tech companies, research institutes and product development teams.

The opportunity to carry out the Master's thesis in industry or at partner research centres supports a direct transition into employment, while the interdisciplinary training and scientific-computing skills also provide a solid basis for doctoral studies or specialised technical careers in academia and industry.