
Projects carried out by COAT-IT Sp. z o.o. with the support of national and EU funds.
European Funds for Modern Economy (FENG) Programme 2026–2029COAT-IT Sp. z o.o. is carrying out a project co-financed under the European Funds for Modern Economy (FENG) Programme 2026–2029
Grant Agreement No. FENG.01.01-IP.02-0681/24, concluded for the years 2026–2029
"Technology for producing metallic protective coatings for hydrogen power applications"
The project involves developing, through research and development, a technology for producing protective
coatings on structural materials used in hydrogen power applications, characterized by increased resistance
to hydrogen permeation. The source of innovation will be the use of nanoparticles and metal alloys that give
the coatings the desired properties. The coatings will have optimal anti-corrosion and mechanical properties
and will additionally counteract hydrogen embrittlement of steel and polymer components.
Tasks carried out within the R&D module
- 1 Development and production, using electroplating methods, of coatings with low hydrogen permeability
- 2 Development and production, using electroless methods, of coatings with low hydrogen permeability
- 3 Production and testing of prototype parts coated with electroplated coatings with low hydrogen permeability
- 4 Production and testing of prototype parts coated with electroless coatings with low hydrogen permeability
Target groups
- Manufacturers of tanks for hydrogen storage and transport
- Companies designing hydrogen storage systems
- Enterprises in the hydrogen energy sector
- The transport industry, in particular manufacturers and operators of hydrogen vehicles
- The chemical industry using hydrogen in technological processes
- Companies developing hydrogen infrastructure, including hydrogen refuelling stations
- Manufacturers of installations and components exposed to hydrogen embrittlement
Project objective
The aim of the project is to develop a technology for producing protective coatings on structural materials
used in hydrogen power applications. These coatings will have good anti-corrosion and mechanical properties
and will also counteract hydrogen embrittlement of steel and polymer components.
The developed technology will be used to apply a protective layer to both electrically conductive and
non-conductive materials, offering a wide range of applications in the dynamically growing hydrogen
technology market segment. In particular, the solution can be used in the storage, transport and processing
of hydrogen, where limiting hydrogen permeation into structural materials and minimizing the risk of hydrogen
embrittlement are of key importance. The technology thus responds to the needs of manufacturers of tanks,
installations, fittings and components operating in a hydrogen environment.
Project value (total cost)
PLN 3,734,450.92
Amount of EU Funds contribution
PLN 2,591,823.53
#EUFunds #EuropeanFunds
CHARGE Programme 2025–2029 — EU fundingCOAT-IT Sp. z o.o. is carrying out a project co-financed by the European Union under the acronym CHARGE 2025–2029
Grant Agreement No. CETP/III/2/CHARGE/2026
Cost-effective green hydrogen using durable SOEC cells powered by alternating and direct current
The main objective of the CHARGE project is to develop a cost-effective and durable high-temperature steam
electrolysis (SOEC) technology for green hydrogen production. The project addresses key barriers to the
development of this technology: limited cell lifetime, high material costs, and difficulties in dynamic
operation. The innovative approach involves the simultaneous improvement of several key system elements –
from new cells resistant to contamination, through cheap and stable protective coatings on metallic
components, to the use of a hybrid AC:DC operating method that significantly extends stack lifetime.
Expected project results
New SOEC electrodes and cellsHigh resistance to degradation, operation at current densities of 1–1.5 A/cm²
Low-cost ferritic steelsInnovative Mn-Fe-Cu coatings, reducing costs by 70% compared to currently used solutions
Durable SOEC stacks (AC:DC)Reduced degradation rate <0.5%/kh
Reduced hydrogen cost (LCOH)At least 30% reduction, down to below €5/kg
Project value (total cost)
PLN 1,169,880.00
Amount of EU Funds contribution
PLN 935,904.00
Other institutions participating in the project
- Gdańsk University of Technology (Poland)
- Technical University of Denmark (Denmark)
- Dynelectro ApS (Denmark)
- Forschungszentrum Jülich (Germany)
- VERMES Microdispensing GmbH (Germany)