Técnicas Reunidas is participating in a research project on the use of green hydrogen to decarbonize Spain's energy-intensive industries
- The HY2DEC project will investigate new technologies for the production and use of green hydrogen to contribute to the decarbonization of Spain’s energy-intensive industries.
- The project will be carried out by a consortium led by Tubacex, with the participation of six other Spanish companies: TORRECID S.A., TÉCNICAS REUNIDAS S.A., GHI HORNOS INDUSTRIALES S.L., GECSA CONDUCTORES Y CONEXIONES ESPECIALES S.A., ORCHESTRA SCIENTIFIC S.L., and KERIONICS S.L.
- The project includes contributions from seven research organizations: CEIT, ICIQ, ICP (CSIC), IKERLAN, INCAR (CSIC), ITQ (CSIC), and TECNALIA
- The project has been included in the Missions Program of the Center for Industrial Technological Development (CDTI), having received the third-highest rating in the program’s latest edition.
Context
Climate change is having a growing impact on our planet, and mitigating it is an increasingly urgent challenge. A gradual decarbonization of all sectors of the economy is necessary to achieve the European Commission’s 2050 carbon neutrality targets.
In this context, the research project led by Tubacex, titled “Research into new technologies for the production and use of green hydrogen for the decarbonization of Spain’s energy-intensive industry” (acronym: HY2DEC), was launched.
As a strategic supplier of advanced products and industrial services for energy generation and mobility, Tubacex leads, within the framework of its open and sustainable innovation strategy, the business group developing the Hy2DEC R&D project, whose main objective is to research, develop, and validate new emerging technologies for the production and use of green hydrogen and oxygen, as well as CO2 capture and its integration into processes within Spain’s energy-intensive industries, with the aim of advancing their decarbonization.
This project will be carried out by a consortium comprising seven Spanish companies. ACERIA DE ALAVA S.A. (Tubacex Group), TORRECID S.A., TÉCNICAS REUNIDAS S.A., GHI HORNOS INDUSTRIALES S.L., GECSA CONDUCTORES Y CONEXIONES ESPECIALES S.A., ORCHESTRA SCIENTIFIC S.L., and KERIONICS S.L.
In addition, the project involves contributions from seven research organizations: CEIT, ICIQ, ICP (CSIC), IKERLAN, INCAR (CSIC), ITQ (CSIC), and TECNALIA.
The Project
The collaborative business R&D project titled “Research into new technologies for the production and use of green hydrogen for the decarbonization of Spain’s energy-intensive industry,” with the acronym “HY2DEC,” has been funded by the Center for Technological Development and Innovation (CDTI) and supported by the Ministry of Science and Innovation as part of the 2022 call for proposals under the Science and Innovation Missions program.
It is worth noting that this project, part of the Missions Program, received the third-highest rating—tied for second place—among all projects submitted in this call for proposals.
The Hy2DEC project aims to address the challenges posed by the decarbonization of energy-intensive industry through the sustainable production and use of green hydrogen and oxygen, as well as CO2 capture to achieve a positive emissions balance. To this end, and in parallel with experimental research, Hy2DEC will conduct a study of the gaps and needs in intensive industrial processes to advance their decarbonization, as well as an evaluation of potential solutions offered by the technologies under study, all within the context of two use cases for intensive processes: steelmaking and ceramics. Figure 1 shows an overview of the Hy2DEC project and the partners’ involvement in the different research areas of the technologies being studied.
The technologies to be researched in this project can be grouped into three main areas:
- On the one hand, Hy2DEC will advance the knowledge and implementation of two emerging technologies in the field of green hydrogen production via electrochemical means.
- The second pillar focuses on research into new heat generation designs and devices that utilize green hydrogen as a fuel.
- The third technological area is geared toward the study and implementation of CO2 capture technologies, including the recovery of waste from the relevant industry, thereby contributing to the circular economy.
Specifically, the participation of each of the companies involved in this project is as follows:
Acerálava (Tubacex Group):
Will research a new solution to reduce natural gas consumption and CO2 emissions by optimizing overall energy consumption and identifying synergies for heat recovery and circularity through waste recovery.
Técnicas Reunidas:
Will research emerging technologies for the production of green hydrogen and oxygen through the development of anion exchange membrane (AEM) electrolysers and proton exchange membrane (PCEC) electrolysers. It will also conduct research on the development of CO2 capture technologies from industrial emissions, as well as their integration into energy-intensive industrial processes for decarbonization.
Torrecid:
Will conduct research on ceramic materials for ceramic membranes in electrocatalysis processes in PCEC for hydrogen generation, as well as on the use of this hydrogen in frit melting processes to reduce emissions. Additionally, it will conduct research on carbon dioxide capture processes and their integration into melting furnaces.
GHI:
Will conduct research on furnace heating systems that use renewable energy sources and on energy-efficient systems to reduce greenhouse gas emissions by at least 50%.
Gecsa:
Will research and develop a new power electronics solution to enhance current solutions for electrolysis plants and melting furnaces.
Orchestra:
Will research a new CO2 absorption technology using TAMOF-1 on an industrial scale in the form of pellets or granules that are mechanically stable and stress-resistant.
Kerionics:
Will research and develop a new generation of electrochemical cells that enable water electrolysis in a highly energy-efficient manner and under milder conditions (temperatures below 600 °C).
The project, which has a total budget of 5,872,941 EUR, is scheduled for completion in 2025, at which point the scalability and industrialization of the prototypes developed by the participating entities will be conceptualized.