Hydrogen as the Future of Gas Pipeline Networks: Implementation and Technical Guidelines

The diploma thesis explores hydrogen as the energy carrier of the future in gas pipeline networks, with emphasis on its implementation and technical guidelines. Among other things, possibilities for the transmission of pure hydrogen and mixtures with natural gas are presented, as well as studies demonstrating that the use of hydrogen can significantly contribute to reducing greenhouse gas emissions and improving air quality. The research also highlights political and social factors that will play a key role in the transition to a hydrogen economy.

Solution and Method

The diploma thesis explores hydrogen as the energy carrier of the future in gas pipeline networks, with emphasis on its implementation and technical guidelines. In the context of global climate goals and sustainable energy transition, hydrogen represents one of the most promising solutions for decarbonising the energy sector. The work analyses the main advantages of hydrogen, particularly its potential for complete elimination of carbon dioxide emissions during use, and the role of green hydrogen, produced from renewable energy sources, which enables sustainable energy supply.

Despite its advantages, hydrogen also brings challenges related to its implementation in existing gas pipeline networks designed for the transmission of natural gas. Among the main technical challenges are material compatibility, resistance to hydrogen embrittlement, and the need for adaptations of compressor and regulation stations. The work also addresses economic and safety aspects, which are crucial for the successful introduction of hydrogen into energy systems.

An analysis of the current state of gas pipeline networks and their readiness for the transition to hydrogen is elaborated. The diploma thesis explores how technological upgrades and the introduction of new standards can ensure safe and efficient use of hydrogen.

Results

Among other things, possibilities for the transmission of pure hydrogen and mixtures with natural gas are presented, as well as studies demonstrating that the use of hydrogen can significantly contribute to reducing greenhouse gas emissions and improving air quality. The research also highlights political and social factors that will play a key role in the transition to a hydrogen economy. Long-term success will depend on the support of legislators, economic entities, and the wider public.

International cooperation and the development of uniform standards for the safe use of hydrogen in gas pipeline networks will also be important. Technological progress, financial incentives, and strategic planning will be key to the successful integration of hydrogen into the energy sector. A comprehensive approach to the transition will enable the decarbonisation of industry and households and increase energy independence.

The diploma thesis offers a comprehensive overview of the opportunities and challenges associated with the introduction of hydrogen as the energy carrier of the future and contributes to understanding its role in a sustainable energy system.