IPCEI on Hydrogen

A solid Hydrogen research platform

IPCEI stands for Important Project of Common European Interest — large-scale European initiatives in strategic sectors that bring together companies and Member States to achieve goals no single market actor could deliver alone. By pooling knowledge, expertise, and funding, IPCEIs help Europe tackle major market gaps and societal challenges while boosting growth, jobs, and competitiveness.

Every IPCEI requires European Commission approval to ensure projects serve an overriding European interest, would not happen under normal market conditions, and avoid distorting competition.

One of today’s most important areas is hydrogen. IPCEIs are creating a strong renewable hydrogen value chain at lower costs, supporting the European Green Deal, the EU Hydrogen Strategy, and REPowerEU.

IPCEI Hy2Move wave

Performance
without tradeoffs.
And emissions.

Europe’s Final Hydrogen IPCEI Wave Accelerates Clean Mobility

The European Commission has approved the fourth and final wave of Important Projects of Common European Interest (IPCEI) for hydrogen: Hy2Move, dedicated to advancing hydrogen mobility. This marks the conclusion of the Hydrogen IPCEI programme launched in 2019.


Building on earlier waves—Hy2Tech (July 2022), Hy2Use (September 2023), and Hy2Infra (February 2024)—Hy2Move helps complete a programme expected to mobilise over €43 billion in public and private investment, supporting more than 120 projects by nearly 100 European companies.


Hydrogen Europe welcomed the decision as a strong signal for decarbonising mobility. CEO Jorgo Chatzimarkakis noted: “We are delighted to see the successful final chapter of the hydrogen IPCEIs. It is now crucial that Member States make the necessary resources available for all waves and establish the right conditions for these projects to be delivered as soon as possible.”


Hy2Move brings together Estonia, France, Germany, Italy, the Netherlands, Slovakia, and Spain, contributing up to €1.4 billion in public funding, which is expected to leverage at least €3.3 billion in private investment—a combined €4.7 billion effort.

The initiative will deliver 13 projects led by 11 companies (with SME support), focusing on:


  • Hydrogen transport applications: Buses, trucks, maritime, and aviation.

  • High-performance fuel cells: Powering locomotives and ships.

  • On-board storage solutions: Lightweight hydrogen tanks for aircraft.

  • Production for mobility: Supplying hydrogen refuelling stations with ultra-pure, pressurised fuel.


Looking ahead, timely funding allocation by Member States will be critical. Hydrogen Europe urges a renewal and streamlining of the IPCEI mechanism to secure Europe’s climate ambitions and industrial competitiveness.

The H2 VTOL Project

Driving the future
of clean aviation
and hydrogen logistics

A technologically and ecologically oriented project of pan-European significance marked by the abbreviation H2 VTOL is part of the emerging EastgateH2V - Eastern Slovak hydrogen valley and a member of the new Hydrogen Technology Research Center (CT).

Due to its strategic importance in meeting the goals of the European Green Deal (climate neutrality by 2050), the H2 VTOL project was successfully notified within the Important Project of Common European Interest (IPCEI) Hy2Move scheme. In the process of ongoing evaluations, it was declared a representative TOP project by the European Commission due to intensive cross-border cooperation and a high level of technical innovation.


The result of the project will be the world's first H2 VTOL hydrogen aircraft suitable for air rescue service, transportation of goods and people. The first aviation lightweight and recyclable tank and valve for compressed hydrogen will also be developed and certified.

A technologically and ecologically oriented project of pan-European significance marked by the abbreviation H2 VTOL is part of the emerging EastgateH2V - Eastern Slovak hydrogen valley and a member of the new Hydrogen Technology Research Center (CT).

Due to its strategic importance in meeting the goals of the European Green Deal (climate neutrality by 2050), the H2 VTOL project was successfully notified within the Important Project of Common European Interest (IPCEI) Hy2Move scheme. In the process of ongoing evaluations, it was declared a representative TOP project by the European Commission due to intensive cross-border cooperation and a high level of technical innovation.


The result of the project will be the world's first H2 VTOL hydrogen aircraft suitable for air rescue service, transportation of goods and people. The first aviation lightweight and recyclable tank and valve for compressed hydrogen will also be developed and certified.

National strategy for research, development and innovation 2030

European innovation Scoreboard

National hydrogen strategy

Lightweight, silent, and designed for short-range flights and logistics, H2 VTOL aircraft are perfectly suited for urban air mobility and emergency services.

The Manifesto
of the Government
of the Slovak Republic

From rescue missions to last-mile delivery, our fleet will offer a sustainable alternative to traditional aviation and transport.

The Manifesto
of the Government
of the Slovak Republic

From rescue missions to last-mile delivery, our fleet will offer a sustainable alternative to traditional aviation and transport.

Positive outcomes
of the project

Performance
without tradeoffs.
And emissions.

The H2 VTOL project will significantly contribute to the implementation of the Action Plan of the National Hydrogen Strategy by increasing energy security and decarbonizing Slovakia thanks to the use of hydrogen in transport.

The goals of the project will lead to the advancement of Slovakia in the innovation ranking, will increase investments into research and development and attract highly qualified people from abroad, thereby fulfilling all key objectives of the National Strategy for Research, Development and Innovation 2030.


At the same time, the project will play a specific role in the implementation of the Manifesto of the Government of the Slovak Republic in the field of energy policy and long-term priorities.

4500+

4500+

secondary jobs


As a positive externality the project will create 4960 indirect jobs.

4500+

secondary jobs


As a positive externality the project will create 4960 indirect jobs.

20

20

patents


We assume 10 patents in the field of H2 VTOL and 10 patents for hydrogen tanks.

20

patents


We assume 10 patents in the field of H2 VTOL and 10 patents for hydrogen tanks.

9

9

universities


We assume 10 patents in the field of H2 VTOL and 10 patents for hydrogen tanks.

9

universities


We assume 10 patents in the field of H2 VTOL and 10 patents for hydrogen tanks.

Project goals:

H2 VTOL

H2 VTOL

H2 VTOL

H2 Storage

H2 Storage

H2 Storage

H2 VTOL

Hydrogen-Powered Vertical Take-off and Landing 4-seater aircraft

Number of seats

4

4

(1 Pilot + 3 pax)

Number of seats

4

(1 Pilot + 3 pax)

Range

140 - 300km

140 - 300km

+ 20min. reserve

Range

140 - 300km

+ 20min. reserve

Cruising speed

120 - 250km/h

120 - 250km/h

Cruising speed

120 - 250km/h

Max. Take-off Weight

2300 - 2500kg

2300 - 2500kg

Max. Take-off Weight

2300 - 2500kg

Helipad size

H1

H1

(up to 15m in diameter)

Helipad size

H1

(up to 15m in diameter)

Power train

H2 Fuel cell

H2 Fuel cell

+ battery pack / super capacitors

Power train

H2 Fuel cell

+ battery pack / super capacitors

H2 Storage

Lightweight pressure vessel for hydrogen mobility and infrastructure applications

Material

Thermoplastic

Thermoplastic

experimenting with thermoplastic
and thermoset composite 

Material

Thermoplastic

experimenting with thermoplastic
and thermoset composite 

Gravimetric efficiency

15% higher

15% higher

Gravimetric efficiency

15% higher

Lifespan

1.5x longer

1.5x longer

Lifespan

1.5x longer

Crack resistance

30% higher

30% higher

Crack resistance

30% higher

Tensile & impact strength

10% increase

10% increase

Tensile & impact strength

10% increase

Concept

Type IV or V

Type IV or V

experimenting with type IV (composite shell with a plastic liner) and type V (composite shell without a liner)

Concept

Type IV or V

experimenting with type IV (composite shell with a plastic liner) and type V (composite shell without a liner)

Project timeline

2024 Q4
2025 Q1
2025 Q2
2025 Q3
2025 Q4
2026 Q1
2026 Q2
2026 Q3
2026 Q4
2027 Q1
2027 Q2
2027 Q3
2027 Q4
2028 Q1
2028 Q2
2028 Q3
2028 Q4
2029 Q1
2029 Q2
2029 Q3
2029 Q4
2030 Q1
2030 Q2
2030 Q3
2030 Q4
WP 1 HTCPV (RDI)
sub WP 1.1 Layup and consolidation (Different layup pattern/laminate design and material, Different In-situ consolidation approaches)
sub WP 1.2 Liner and valve (Experimentation with type V procedure, with liner material and production method and valve material and production method)
WP 3 HTCPV FID
WP 3 HTCPV certification and pilot line
WP 2 H2 VTOL (RDI)
sub WP 2.1 Concept (Choosing the optimal H2 VTOL concept)
sub WP 2.2 Propellers (Fixed-pitch VS. Variable-pitch, Direct drive VS. Geared hub, Higher Tow and Lower noise)
sub WP 2.3 Flight control (Flight Control System)
sub WP 2.4 Power train (680kW batteries, CGH2 fuel cell + super batteries)
sub WP 2.5 Airframe (Tubular frame, Carbon fiber monocoque)
WP 4 H2 VTOL FID
sub WP 4.1 Flight Demonstrator Pilot Line (Pilot on board)
sub WP 4.2 Thermoplastic Composites Components Pilot Line

Project partners

Direct partners

Cooperating technology partners within
Important Projects of Common European Interest

Direct
partners

Cooperating technology partners within
Important Projects of Common European Interest

Direct partners

Cooperating technology partners within
Important Projects of Common European Interest

Universities

Aalto University

Department of Bioproducts and Biosystems

School of Chemical Engineering

Cooperation primarily in the field of modification of thermoset and thermoplastic composites with biocomponents in order to achieve higher modulus, tensile strength and impact strength.

Politecnico di Torino

Topics from the field of conceptual and preliminary aircraft design & tradeoff studies plus Finite Element Method (FEM) structural analysis for material and layup optimization, educational public program focused on General H2 training for airport service staff and in other related fields will be supported.

Slovak University of Technology in

Bratislava – Faculty of Materials Science
and Technology in Trnava

Topics from the field of application of various principles (Isogrid reinforcement, Triply Periodic Minimal Surface, Generative Design) in topological optimization of the sandwich's core or structural parts using Fused Filament Fabrication and Continuous Fiber Fabrication additive manufacturing, educational public program focused on General H2 training for airport service staff and in other related fields will be supported.

Technical University of Košice
Faculty of Aeronautics

Topics from the field of implementation of ANFIS principles in the preparation of algorithms of main control unit for H2 VTOL hybrid Fuel Cell – battery propulsion system and in the field of deployment of thermoplastic composites and 3D printing technologies in aircraft structures. Partners will also cooperate on modern education focused on General H2 training for airport service staff in the form of virtual reality.

University of Zilina – Faculty of Operation and Economics
of Transport and Communications, Department of Air Transport

University of Zilina – Faculty of Operation and Economics of Transport and Communications, Department of Air Transport

Topics from the field of experimental studies, expert reports, professional analyses, development studies and predictions oriented to hydrogen aviation, educational public program focused on General H2 training for airport service staff and in other related fields will be supported.

Brno University of Technology
– Faculty of Mechanical Engineering
Institute of Aerospace Engineering

Topics from the field of airframe development including static analysis, fatigue crack propagation simulation and dynamic analysis. Strength and fall tests of the landing gear performed in the aircraft testing laboratory and hydrogen education program and in other related fields will be supported. 

Augsburg University of Applied Sciences

Mechanical and Process Engineering

Collaboration primarily in the field of Fiber Patch Placement, cryogenic hydrogen cooled axial flux motor and development of efficient material for high pressure tanks.

University of Tartu - Institute of Chemistry

Chair of Colloidal and Environmental Chemistry

Collaboration primarily in the field of polymer electrolyte fuel cells and metal-air batteries.

VSB-Technical University of Ostrava

Faculty of Safety Engineering

Collabiration primarily in the field of testing of tank prototypes and with the subsequent multilateral discussion about test results.

Academy of Fine Arts and Design in Bratislava

Studio of Transport Design

Collaboration primarily in the field of complex design proposals for hydrogen mobility solutions.

Contact

TOMARK PROTON s.r.o.

Strojnícka 2078/5

Prešov 080 06

Slovak Republic

info@tomarkproton.eu

Hydrogen Mobility
Ecosystem for Sustainable
Transportation

Contact

TOMARK PROTON s.r.o.

Strojnícka 2078/5

Prešov 080 06

Slovak Republic

info@tomarkproton.eu

Hydrogen Mobility
Ecosystem for Sustainable
Transportation

Contact

TOMARK PROTON s.r.o.

Strojnícka 2078/5

Prešov 080 06

Slovak Republic

info@tomarkproton.eu

Hydrogen Mobility
Ecosystem for Sustainable
Transportation