Temisth

French SME is looking for partners to work on HORIZON-EIC-2024-PATHFINDERCHALLENGES-01-01

Last update: Sep 19, 2024
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Last update: Sep 19, 2024 Last update: Sep 19, 2024
Details
Deadline: Oct 16, 2024 Deadline for applications has passed
Organization:Temisth
Project locations: EU 27 EU 27
Sectors: Energy, Pollution & Waste Management (incl. treatment) Energy, Pollution & Waste Management (incl. treatment)
Partner types: Academic institution, Consulting organization, Government agency, NGO, Other financing mechanism Academic institution, Consulting organization, Government agency, NGO, Other financing mechanism
Partner locations: EU 27, Europe Non EU 27 EU 27, Europe Non EU 27
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Description
TEMISTh is an SME developping and providing on-demand heat exchangers and thermal systems produced by additive manufacturing. This novel heat exchanger are suitable for complex environment like high temperature and/or high pressure. The company has already participated to 4 european projects and would be happy to join a new one on the topic of power-to-X. To start a discussion, do not hesitate to initiate an contact here or with Damien SERRET on linkedin, or by the email.

Solar-to-X devices for the decentralized prosumption of renewable fuels, chemicals and materials as climate change mitigation pathway

TOPIC ID: HORIZON-EIC-2024-PATHFINDERCHALLENGES-01-01

Type of grant: Call for proposals

Scope:

Background and scope:

There are currently quite mature technologies tested on industrial pilot scale to provide synthetic fuels and chemicals from renewable energy sources via a sequence of independent energy and chemical conversion steps (Power-to-X or Carbon Capture and Utilization technologies). However, energy losses during the different steps (e.g., electricity production or thermochemical conversion) make the process highly energy intense. Also, the provision of affordable, renewable electricity at the needed scale is challenging. A potential workaround to this bottleneck is the development of devices which directly convert solar energy and abundantly available molecules (such as water or carbon oxides) into liquids and gases – within a single device. These so-called solar-to-X technologies avoid the beforehand conversion of solar energy into electricity and reduce the complexity of the process by a complete integration of the different steps. Solar-to-X technologies, also called artificial photosynthesis or solar fuel technologies, support the vision of a decentralized, local energy and production system with a local provision of the needed resources. In this vision, communities become not only prosumers of electricity, but also of fuels, chemicals and materials.

In this Challenge, solar-to-X technologies must address societal needs not already sufficiently covered by other energy technologies. The developed technologies should demonstrate how they can be embedded in the full functional value chain from generation to use, be self-sustaining in the long-run and provide a win-win opportunity for prosumers and the environment. The objective is to make progress towards synthetic fuels and chemicals technologies which integrate all necessary conversion steps into a single device, and which are solely and directly driven by solar energy. Devices which are driven by electricity or heat are not the focus of this Challenge – except for radically new electrolyzer designs beyond incremental R&D on mature electrolyzer designs. Partially integrated systems, where the overall balance of plant is not significantly simplified (e.g., PV-assisted photoelectrochemical devices) are not within the scope of this Challenge. The use of sacrificial agents has to be avoided and the desired product has to go beyond hydrogen and carbon monoxide. To summarize, this Challenge focusses on: i) Novel electrolyzer designs showing a significantly simplified balance-of-plant compared to mature electrolyzer designs; ii)Fully-integrated PV-EC devices, with electrochemical conversion (EC) and photovoltaic unit (PV) combined in a single device; iii)Photosynthetic devices converting directly sunlight and simple feedstock molecules into a fuel or chemical (e.g., Photoelectrochemical devices, Particulate systems, Biohybrid photosynthetic devices, Thermally-integrated photosynthetic devices, etc.); iv)Solar-driven biological conversion devices (e.g., solar cell factories).