Towards H2ydrogen Integrated eConomies In NOrthern Italy

Informations projet

TH2ICINO

N° de convention de subvention: 101112098

DOI

10.3030/101112098

Date de signature de la CE 30 Juin 2023

Date de début 1 Septembre 2023

Date de fin 31 Août 2027

Financé au titre de

• Climate, Energy and Mobility

Coût total

€ 18 506 850,00

Contribution de l’UE

€ 7 446 920,00

Coordonné par

RINA CONSULTING SPA
Italy

Periodic Reporting for period 1 - TH2ICINO (Towards H2ydrogen Integrated eConomies In NOrthern Italy)

Période du rapport: 2023-09-01 au 2025-02-28

Résumé du contexte et des objectifs généraux du projet

TH2ICINO (Towards H2ydrogen Integrated eConomies In NOrthern Italy) supports the deployment of micro hydrogen economies for the EU by developing and demonstrating a full ecosystem integrated by 6 replicable use cases linked to the steps of the hydrogen value chain. The results will validate a Master Planning Tool (MPT), which replicability will be then tested.
The demonstration of the hydrogen valley will work on the four pillars of the hydrogen value chain: (i) hydrogen production, (ii) hydrogen storage, (iii) hydrogen distribution, and (iv) hydrogen consumption and will send the initial status of TH2ICINO in order to enable replication and expansion. A first stage will include modelling, simulation and scenarization, from electrolysis plant to end-user in order to evaluate different scenarios and optimize them taking into consideration the technological constraints. Once the optimal cases are defined, an implementation phase will bring to real-life the innovative concept of the ecosystem tangible results to feed the MPT.

Travail effectué depuis le début du projet jusqu’à la fin de la période considérée dans le rapport et principaux résultats atteints jusqu’à présent

Ongoing:
-Developing the innovative design and planning for the hydrogen valley.
-Detailed design and engineering, and installation of hydrogen valley assets.
-Planning and optimizing the hydrogen logistic chain .
-Completed the conceptual design and detailed engineering plans for the hydrogen valley.
-Initiated the installation of key infrastructure components.
- Establishing the specifications and baseline models for the hydrogen valley and MPT.
- Creating tools for optimizing hydrogen production, transport, and distribution .
-Defined the modeling baseline and specifications, ensuring a robust framework for the MPT.
-Developed and tested the optimization toolbox for efficient hydrogen value chain planning.
-Off-takers Baseline Assessment (Task 4.1): Assessing baseline conditions and requirements for potential hydrogen off-takers .
-Completed baseline assessments, providing essential data for further development and retrofitting plans.
-Implementation of Hydrogen Safety Strategies (Task 5.1): Integrating safety strategies in the design and engineering phases.
-Implementation of ISV Methodology and Safety Planning (Task 5.2): Developing safety plans and methodologies.
-Definition of the Wider Value Chain and Identification of Further Stakeholders (Task 6.1): Mapping stakeholders and defining the value chain .

Progrès au-delà de l’état des connaissances et impact potentiel prévu (y compris l’impact socio-économique et les conséquences sociétales plus larges du projet jusqu’à présent)

Key Results
-Electrolysis Efficiency: Developed advanced electrolysis techniques that enhance hydrogen production efficiency, reducing energy consumption and costs.
Renewable Integration: Successfully integrated renewable energy sources with hydrogen production systems, demonstrating reliable and sustainable hydrogen generation.
-Real-Time Monitoring: Implemented real-time monitoring and control systems for hydrogen distribution, ensuring optimal performance and safety.
-Comprehensive Modeling: Developed a robust MPT that allows comprehensive modeling of the hydrogen value chain, from production to consumption.
Scenario Analysis: Enabled detailed scenario analysis and optimization, helping stakeholders make informed decisions based on various economic and technical factors.
-Enhanced Safety Protocols: Established advanced safety protocols and standards for hydrogen use at the airport.
Environmental Impact:
-Reduced Emissions: Significant reduction in greenhouse gas emissions due to increased use of hydrogen as a clean energy source.
Sustainable Energy Systems: Promotion of sustainable and renewable energy systems, contributing to global efforts to combat climate change.
Economic/Social Impact:
-Cost Reduction: Lower production and operational costs in the hydrogen economy, making hydrogen a more competitive energy option.
-Market Growth: Expansion of the hydrogen market, creating new business opportunities and driving economic growth.
-Innovation Catalyst: Serving as a catalyst for further technological innovations in the hydrogen sector.
Cross-Sector Applications: Facilitating the adoption of hydrogen technologies across different industries, enhancing overall industrial efficiency.
-Job Creation: Generation of new jobs in the hydrogen sector, contributing to economic stability and growth.
Further Research and Demonstration:
-Continued research to improve hydrogen production efficiency and reduce costs.
-Demonstration projects to validate new technologies and solutions in real-world conditions.
-Development of financing mechanisms to support hydrogen infrastructure projects.
-Policies and incentives to encourage investment in hydrogen technologies.
-Collaboration with industry stakeholders to accelerate the adoption of hydrogen technologies.
-Promotion of international collaboration and partnerships to share knowledge and resources.
-Participation in global hydrogen initiatives to standardize technologies and practices.
-Development and implementation of regulatory frameworks that support the safe and efficient deployment of hydrogen technologies.
-Standardization of hydrogen production, storage, and distribution methods to ensure compatibility and safety.

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