SINERGHY
Sustainable and innovative energy systems for renewable energy and green hydrogen
The SINERGHY project, promoted by the RIR Veneto Clima ed Energia, aims to develop advanced and integrated technological solutions to improve energy efficiency and environmental sustainability. The initiative is based on the collaboration between 10 companies from the Veneto region, the Universities of Padua and Verona and CNR IC-MATE, with the goal of developing an innovative energy system based on the integration of different technologies for the production, storage and management of energy from renewable sources.
Project framework
PR Veneto ERDF 2021–2027
Priority Axis 1: Research, development and innovation
Action 1.1.1: Strengthening research and innovation in collaboration between companies and research organisations
Sub-action A: Strengthening research and innovation between companies and research organisations
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Geographical area: North-East Italy
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Duration: 24 months
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Start date: 01/10/2024
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End date: 30/09/2026
Financial framework
Total project cost: € 2.836.834,80
Co-funding: € 1.199.940,77
SINERGHY aims to develop an integrated energy system capable of combining photovoltaic power generation, electrochemical energy storage and green hydrogen production. The project focuses on optimising the use of renewable energy, promoting self-consumption, system flexibility and the reduction of energy losses. Through the development of simulation models and advanced control strategies, the most efficient and sustainable configurations for real-world applications will be identified.
Technical Description
The contribution of E2C Srl focuses on the development of a hybrid system that effectively integrates renewable energy generation, energy storage systems and technologies for green hydrogen production.
The final objective of the project is to develop an intelligent energy solution capable of:
- maximising the use of energy generated by photovoltaic systems;
- storing excess energy through electrochemical storage systems;
- converting surplus energy into green hydrogen, making it available for future use;
- dynamically managing energy flows, adapting to the variability of renewable sources and energy demand.
The project includes the development of advanced simulation models to analyse different operating scenarios and identify the most efficient management strategies. These activities will enable the definition of system control logics and the progressive improvement of overall performance.
The expected outcome is an integrated, scalable and replicable energy system capable of supporting the deployment of renewable energy and the development of the green hydrogen value chain, contributing to decarbonisation and the evolution of energy communities.
