ENTSOG and its Members (TSOs) invites you to a new interactive platform called Innovative Projects Platform. To efficiently build on its Members efforts to promote innovative technologies, regulation and business models, and partnerships across the value chain, ENTSOG have initiated the identification process to map TSOs’ Research, Development and Innovation (RDI) activities.
The result is the creation of a public platform for communication and exchange of best practices applied by EU TSOs.
These innovative TSOs solutions focus on biogas, power to gas, hydrogen, CNG and other innovative applications to support the achievement of the current EU goals of reducing GHG emissions.
Discover here how technologies can optimise the usage of the grid, make digital layer connections and support decarbonisation of the EU gas system. Technology R&D has a vital role in the energy transition. ENTSOG Members (TSOs) are developing new and innovative technologies to offer sustainable solutions for the gas sector.
Stay informed on how ENTSOG Members (TSOs) engage in development of the new energy products and services to foster uptake of renewable and decarbonised gases into the grid.
Technological innovation is important for the transition to low carbon economy and combating climate change. New technologies such as power-to gas, biomethane, hydrogen, CNG will enable this transition.
Carbon Capture and storage is the process of capturing waste CO2 from large point sources, such as fossil fuel power plants, transporting it to a storage site, and depositing it where it will not enter the atmosphere. The aim is to prevent the release of large quantities of CO2 into the atmosphere.
Hydrogen can be produced from diverse process technologies. Hydrogen can be produced via steam methane reforming and blended with natural gas to be transported via existing grid infrastructure and contribute towards decarbonisation.
Biogas is obtained via the anaerobic decomposition of the organic matter. After the process of upgrading, biogas becomes biomethane with the same quality standard as natural gas and can be transported via the existing grid infrastructure.
Power-to-gas is the conversion of electrical power into a gaseous energy carrier like e.g. hydrogen or methane. This technological concept is considered to be an important tool in the energy transition.
Compressed Natural Gas (CNG) is a fuel source that is made from compressing natural gas to less than 1% of its standard atmospheric volume. CNG combustion produces fewer undesirable gases than other fossil fuels.
Digitalisation can bring various benefits to day-to-day operations such as enhanced control over the gas quality and cost reductions. TSOs look at data-driven solutions to boost performance, efficiency and competitiveness.
Cutting the energy consumption in heating and cooling in buildings and industry can be achieved through various technologies. TSOs are working on developing cost-efficient solutions for the decarbonisation of this sector.
The overall objective of the project is to increase knowledge about the accuracy and durability of commercially available gas meters after exposure to renewable gases (biogas, biomethane, hydrogen, syngas and mixtures with natural gas). This should lead to the improvement of existing meter designs and flow calibration standards. The project started in June of 2019 and will last for 3 years, and is funded by the European Metrology Programme for Innovation and Research (EMPIR).
In western France West Grid Synergy aims to design and experiment smart grid solutions to maximise biomethane injection into the transmission and distribution systems. This project essentially inaugurated the first reverse flow of locally produced biomethane from distribution to transmission in France.
Hydrogen from a large-scale electrolysis shall be injected into the gas transmission network of ONTRAS. The energy will be commercially offered to reduce the CO2 footprint of private households. At later stages the hydrogen ratio in the gas supply of a community will be increased with the target of eventually switch to a 100% hydrogen.
Creos is making extensive investments in its natural gas networks. SMARTY is a new smart gas meter which measures the gas consumption in each home. Whether via customer's wired or wireless gas meter, the meter data is always transferred to your smart electricity meter and then, via the existing electricity network, to the central system managed by Luxmetering and finally to the gas supplier. This process is referred to as communication via power line carriers.
Hydrogen is produced by a 35 MW electrolyser, which is directly connected to a wind farm. The pure hydrogen is stored in a nearby salt cavern. The transport between the underground storage and the end users for the hydrogen inside an existing industrial area is provided by a converted natural gas pipeline.
Snam has launched its experiment of introducing a 5% hydrogen and natural gas blend into the Italian gas transmission network. The experiment, the first of its kind in Europe, is being conducted in Contursi Terme, and involves the supply of H2NG (a blend of hydrogen and gas) to two industrial companies in the area: a pasta factory and a mineral water bottling company.
Nuon / Vattenfall, Gasunie New Energy and the Norwegian energy company Equinor are working together on the conversion of the Magnum power station in Eemshaven. It is planned that the first three units of the power plant that are currently still powered by natural gas will be converted to run on hydrogen between 2023-2025. The Magnum power plant will deliver 440 megawatts per unit.
A project promoted by the Regional and National Government and some private companies: Cemex, Enagás, Acciona and Redexis. The 10 MW green hydrogen production plant will be powered by a 16 MW solar plant. The project contemplates the use of green hydrogen in mobility, as well as its injection into the gas grid.
The strategic goal of Get H2 is to combine regions with a high share of renewable energies from wind and solar sources with H2 production on an industrial scale. The focus is on the development of a nationwide H2 infrastructure with the coupling of all sectors.
The aim of the HESTOR research and development project carried out by a scientific and industrial consortium was to investigate the possibility of hydrogen storage in salt caverns, generated from RES, and its further use for energy generation and technological purposes in oil & refinery industry. The Project also considered technical and economic aspects of the use of hydrogen as a fuel in transport. Read more about the other issues addressed in the document using the link below.