Process Engineering and Energy Technology

Overview This practice-oriented Master’s program builds on a bachelor’s in chemical engineering or a closely related process-engineering degree and is taught in English. The curriculum emphasizes hands-on learning, modern teaching methods and international perspectives, with explicit training in engineers’ key competencies and soft skills. Practical exercises complement lectures, and students are encouraged to take part in exchanges with non-German partner universities.

Structure and content The course covers core topics such as renewable energies, resource efficiency, energy efficiency and environmental technologies. Students complete a master’s thesis that can be carried out within industry or at a research organisation, reinforcing the program’s applied focus. On successful completion, graduates are awarded a Master of Science and are eligible to pursue doctoral studies (PhD).

Admission and programme logistics The program is structured to account for different undergraduate credit backgrounds and is designed to be completed in a compact period while allowing for international mobility and professional links with industry and research.

Admission requirements (concise)

• Bachelor’s degree in chemical engineering or a related process engineering field
• If your bachelor’s degree is equivalent to 210 ECTS: master’s program comprises 90 ECTS (minimum three semesters)
• If your bachelor’s degree is equivalent to 180 ECTS: program comprises a 30 ECTS preparatory/additional portion plus 90 ECTS master’s coursework (minimum four semesters)
• Program language: English
• Note: the course stresses internationality, practical exercises, development of soft skills, opportunities for student exchange, and the option to do the master’s thesis in industry or research organisations.

Curriculum overview

This Master's programme builds on a 210‑ECTS equivalent Bachelor's degree in chemical engineering or a related process‑engineering degree and is arranged across three semesters. The first two semesters combine advanced taught modules with a research seminar and leadership training; the final semester is devoted to an independent Master's thesis project. The curriculum blends core process‑engineering topics (reaction engineering, thermal processes, simulation and control) with a strong emphasis on contemporary energy technologies — renewables, bioenergy, and electrochemical systems — preparing students for roles in research, industry and decarbonisation projects.

Coursework is designed to develop both theoretical knowledge and practical skills: you will learn to characterise and predict physical/chemical properties, apply numerical methods and process simulation tools (including flowsheeting and control), and understand the principles behind energy conversion and storage technologies. Advanced modules cover electrochemical systems (electrolysis, fuel cells, corrosion), Power‑to‑X or nanotechnology options, and environmental engineering topics. A research seminar plus leadership training prepares you for the independent, research‑oriented Master's thesis in the final semester.

• Entry requirement: a 210 ECTS equivalent Bachelor's degree in chemical engineering or a related process‑engineering programme.
• First‑semester key modules:
  • Measurement and Prediction of Physical/Chemical Properties
  • Fundamentals of Simulation including Numerical Mathematics
  • Process Simulation: Flowsheets and Control
  • Fundamentals of Solar and Wind Energy
  • Energy from Biomass
  • Advanced Energy Conversion
• Second‑semester key modules:
  • Chemical Reactions and Process Engineering
  • Electrochemical Processes (electrolysis, fuel cells, corrosion, etc.)
  • Advanced Thermal Processes
  • Power‑to‑X Technologies or Nanotechnology (programme option)
  • Environmental Engineering
  • Research Seminar & Master Leadership
• Third semester:
  • Master's thesis project (independent research and reporting)
• Expected learning outcomes:
  • Ability to measure, model and predict physical and chemical properties relevant to process design
  • Competence in numerical methods and process simulation, including flowsheet design and control strategies
  • Understanding of renewable energy systems, biomass conversion and advanced thermal processes
  • Knowledge of electrochemical systems (electrolysis, fuel cells) and corrosion phenomena
  • Familiarity with Power‑to‑X or nanotechnology applications and environmental engineering considerations
  • Research skills and leadership readiness demonstrated through a research seminar and an independent Master's thesis

Graduates are prepared for technical and managerial roles in process engineering and the energy sector, including positions in renewable energy companies, environmental technology firms, chemical and process industries, and consultancy. The combination of simulation, process design and hands-on project experience also suits roles in plant operation, development and optimisation.

The MSc confers eligibility to pursue doctoral studies (PhD) for those aiming for research careers in academia or industrial R&D. The programme’s international orientation and the option to write the thesis abroad can help graduates access opportunities both in Germany and internationally.