Bachelor Hydrogen Technology Transnational (BWTT)

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Hydrogen - a fuel of the future ➝ Hydrogen engineer, a profession with a future

A successful energy transition requires the combination of environmental compatibility, supply security and affordability with innovative and intelligent climate protection. Therefore, alternatives to the currently used fossil fuels are urgently needed. In the context of the necessary cross-sector decarbonisation, hydrogen plays a central role in achieving the completion of the energy transition.

Hydrogen is a versatile energy carrier. For example, it can be used as a basis for synthetic fuels or to generate electric energy directly through fuel cells. Furthermore, hydrogen represents an ideal storage medium for regeneratively generated electric energy from photovoltaic or wind turbines, as it enables flexible and long-term storage of energy. Hydrogen technology is a key technology and a pioneer towards a carbon-neutral era.

Due to the special physical and chemical properties of hydrogen, increased elaborateness in the development and, above all, the operational monitoring of facilities for hydrogen production, transport, storage, and utilization is essential. Therefore, highly skilled professionals are urgently needed who can meet the technical challenges of hydrogen in plant development and operation, thereby contributing to the increase in competitiveness in international energy markets. Hydrogen is also an important topic in education.

The Technical University of Applied Sciences Würzburg-Schweinfurt (THWS) from Germany offers a transnational bachelor's degree programme in Hydrogen Technology at the German Jordanian University (GJU) in Amman, Jordan, in order to educate engineers in Jordan and Germany for the design, construction, and operation of hydrogen facilities. First, students take courses at the GJU in a pre-year and then enroll at the THWS. They graduate with a German university degree, which facilitates their permanent residence in Germany for an initial period of 1.5 years and their entry into a career as engineers in a company.

This diagram illustrates the process chain in the use of hydrogen as an energy carrier. Water, biomass, methane, or electrical power are split into hydrogen and oxygen through processes such as electrolysis, reformation, pyrolysis, or other methods, following treatment or adaptation. The hydrogen is then stored or directly and controlledly utilized to generate the type of energy required in the respective application sector, whether it be electrical, mechanical, or thermal energy, using fuel cells, engines, burners, or reactors. Alternatively, hydrogen can be used directly in the production of various products. The Bachelor programme in Hydrogen Technology covers the complete process chain for the production and use of hydrogen technology competence area.
Hydrogen Value Chain/Competence range Hydrogen Technology

Professional applications

The potential uses of hydrogen as an energy carrier are extremely diverse and by no means limited to its use as a supplement to batteries in electric vehicles or as an alternative to fossil fuels. With the energy transition, the use of renewable energies is being pushed in all sectors. Therefore, graduates of the Bachelor Hydrogen Technology Transnational (BWTT) degree programme have a wide range of possible professional fields of application.

The Bachelor's degree programme in Hydrogen Technology - versatile and focused on the energy transition

The Bachelor's degree programme in Hydrogen Technology trains engineers who can systematically design, construct, and operate hydrogen plants and systems along the hydrogen value chain, independent of sectors, based on well-known technical processes. The focus is on academic content tailored to the topic of hydrogen and its associated process chain.
In addition to the technical content, the Hydrogen Technology programme also promotes the students' methodological and personal skills. The independent solution of application-oriented tasks in accompanying applied laboratory courses and student projects plays a significant role in the studies.

Graduates have a wide range of opportunities for further progression. These include opportunities in the field of energy technology, mechanical engineering, plant and process equipment construction, process engineering, energy economics, and sustainable resource management. With the close integration of general engineering competencies and competencies in the field of carbon-free energy carriers, graduates of the Transnational Hydrogen Technology programme are well prepared for the challenges of the energy transition. The programme provides a sustainable and future-proof foundation for further academic development.

Engineers in hydrogen technology make the most significant contribution to the necessary transformation of industry, transportation, and households towards carbon-free energy use, actively implementing the demands of the World Climate Council.
The DVGW e.V. (German Technical and Scientific Association for Gas and Water), as the regulatory competence network for all questions related to gas and water supply, welcomes the practical-oriented bachelor's degree programme in Hydrogen Technology at the THWS and offers its technical support. The DVGW e.V. is increasingly dedicated to the technical issues arising from the growing use of hydrogen, for example in gas infrastructure. Further information on hydrogen research projects, publications, and events by the DVGW e.V. can be found on the DVGW website.

Professional competences

The study of hydrogen technology provides students with specialist competences from process engineering, thermodynamics, physics, chemistry and electro-chemistry in the overarching areas:

  • Plant design and construction
  • Plant operation
  • Fuel cell technology
  • Use of renewable energies for hydrogen production
  • Hydrogen safety
  • Hydrogen storage
  • Hydrogen transport and distribution
  • Hydrogen utilization
  • Hydrogen economy

Detailed information about the courses of this degree programme can be found at the page "Course of study".

Contact

Prof. Dr. Winfried Wilke

Besucheranschrift
Ignaz-Schön-Straße 11
97421 Schweinfurt
Raum
4.E.37
Sprechstunden

Die Sprechstunde findet im Sommersemester 2025 am Donnerstag von 10:00 Uhr bis 11:00 Uhr nach vorheriger Terminvereinbarung per E-Mail statt.

Präsenzsprechstunde: Büro 4.E.37



Profilbild Prof. Dr. Winfried Wilke

Help in case of general questions

GJU

General support with the hosted programmes and pre-year: Campusgate Jordan

THWS