HAVEN’s main objective is to design and demonstrate in relevant operational conditions (TRL 7) a smart, highly modular, scalable, sustainable and safe HESS with advanced cognitive functionalities and optimized high-energy (HE) and high-power (HP) capabilities for multi-service provisioning to support the electrical grid and EV charging infrastructure.

The HEDGE-IoT project proposes a novel Digital Framework designed to deploy IoT assets across different levels of the energy system, from behind the meter to the TSO level. By leveraging advanced AI/ML tools, this framework bridges the cloud/edge continuum, enhancing intelligence at both edge and cloud layers. It focuses on interoperability and standardisation, managing a wide range of energy services over scalable and distributed data platforms.

HESTIA aims to develop a cost-effective solution for the next-generation demand-side response services, engaging residential consumers in flexibility sharing and grid balancing. Key activities include exploiting energy demand flexibility, valorizing energy efficiency, and involving residents in solution design. The goal is to enhance sustainability, promote consumer engagement, and drive innovation in the energy sector.

The HVDC-WISE project aims to enhance transmission system resilience and reliability through HVDC-based grid architectures. It will develop planning tools, propose HVDC grid concepts, identify emerging technologies, and validate solutions across diverse European power system contexts. The project focuses on reliability, and resilience-oriented planning, HVDC grid architecture, emerging technologies, and policy guidelines.

The HYPERRIDE project aims to implement DC and hybrid AC/DC grids to enhance energy distribution efficiency and resilience. Key objectives include technological advancements in DC grid components, resilience enhancement through fault mitigation and cybersecurity solutions, and renewable energy integration. The project’s focus lies in advancing grid technology, enhancing resilience, and facilitating renewable energy integration to support European energy efficiency and sustainability.

The HYSTORE project develops innovative thermal energy storage (TES) concepts for heating/cooling systems and DHW. It aims to increase energy density, lower costs, and integrate TES into energy systems. Measurable outcomes include cost reduction, load shifting, demand-response potential, energy savings, and environmental benefits, contributing to sustainability.