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Improved system design for innovative PV applications (EUPI-PV Partnership) is sponsored by European Commission — Horizon Europe. Expected Outcome: Agrivoltaics or the co-location of agricultural activity and PV electricity production is a novel form of PV deployment which could provide farmers with diversified revenue sources and ecological benefits, while reducing land use competition, siting restrictions or adverse impacts on biodiversity and agricultural production. Optimizing system designs and business practices will help to enable simultaneous land use creating synergy for both agriculture and electricity production; this can benefit farmers, lower PV costs and enable the European Union to reach the goals of the EU solar energy strategy. Similarly, offshore/nearshore PV systems represent a tremendous deployment potential in Europe and globally, due to their advantages in conserving land resources and optimizing light utilization. However, prevailing technical challenges limit deployment in most sea conditions usually found in Europe. Project results are therefore expected to contribute to some of the following expected outcomes, depending on the proposed system (agriPV or offshore/nearshore PV): Harvesting of crops and photovoltaic electricity, providing sustainable solutions for energy production/use/efficiency, soil and biodiversity protection and water conservation. Reinforce the European PV value chain, introduce new business models and open new markets for novel, bankable agri or offshore/nearshore PV systems. Minimise the impact of PV on landscape/sea and environment exploiting its modularity and synergies of use. Promote offshore wind and PV co-location and system integration. Significant improvement of designs that reduce both CAPEX and OPEX, maximize energy output and thus reduce LCoE. Promote integrated and multi-dimensional policy design to overcome socio-technical challenges for agri and offshore/nearshore PV deployment. Scope: Proposals must address only one of the two areas (agriPV or offshore/nearshore PV). They are expected to demonstrate: A comprehensive (system) modelling for an accurate and reliable energy yield assessment with comparable methodologies for biodiversity, plant-yield and quality in the case of agriPV, as well as power generation. Advanced system components and system concepts/architectures of adequate scale that minimise impact on land/sea/environment while maximizing energy output/optimising connection to the grid. Resilience and adaptation of the systems to climate change impacts (extreme events, or in the case of agriPV, changing agricultural practices and/or crops choices, etc.). Standardisation for module and structure design for these applications. Permitting process definition. System demonstrators of adequate scale (min 5 MW altogether) at different EU climate/sea zones. Achieving societal acceptance and sustainability in agriPV development requires clarity in permitting procedures, promoting energy justice principles, mitigating agronomic risks, and balancing economic development with environmental conservation (notably biodiversity). These dimensions need to be addressed holistically with the involvement of policymakers, industry stakeholders, and local communities working towards a just and equitable deployment of agriPV. In the case of offshore/nearshore PV, aesthetic appreciation, as well as possible conflicts of interest related to water areas (with e.g., commercial shipping, fishing, sand extraction, military use, and recreational sailing) or colocation should be looked at. Whenever the expected exploitation of project results entails developing, creating, manufacturing and marketing a product or process, or creating and providing a service, the plan for the exploitation and dissemination of results must include a strategy for such exploitation as well as a strong business case and sound exploitation strategy. The exploitation plan should include preliminary plans for scalability, commercialisation, and deployment (feasibility study, business plan) indicating the possible funding sources to be poten
Programme areas: Horizon Europe (HORIZON), Global Challenges and European Industrial Competitiveness, Climate, Energy and Mobility, Energy Supply
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Or search similar grants →According to the current listing, eligibility includes: Open to legal entities established in EU Member States and countries associated to Horizon Europe (including EEA/EFTA countries, and other associated third countries). Action type: HORIZON-IA HORIZON Innovation Actions. Additional conditions: "> General conditions 1. Admissibility Conditions: Proposal page limit and layout described in Annex A and Annex E of the Horizon Europe Work Programme General Annexes. Proposal page limits and layout: described in Part B of the Application Form available in the Submission System. 2. Eligible Countries described in Annex B of the Work Programme General Annexes. A number of non-EU/non-Associated Countries that are not automatically eligible for funding have made specific provisions for making... See the official call documentation on the F&T Portal for full eligibility criteria and participation rules. Confirm the full requirements in the official notice before applying.
The current listing shows €131.5M total budget (~$142M USD) ; up to €6.8M per project ; ~2 grants expected. Verify award ceilings, matching requirements, and allowable costs in the official notice.
Applications for Improved system design for innovative PV applications (EUPI-PV Partnership) are due December 1, 2026. Build your timeline backwards from this date to cover registrations, approvals, and final submission checks.
Improved system design for innovative PV applications (EUPI-PV Partnership) is funded by European Commission — Horizon Europe. Verify program details on the funder's official page before applying.
Start from the official opportunity page linked in this listing — it carries the sponsor's submission instructions.
Next-Generation QKD Systems is sponsored by European Commission — Horizon Europe. Expected Outcome: This action will strengthen Europe's strategic autonomy in quantum-secure communications by advancing core QKD technologies and integration capabilities. Expected results include: Development and demonstration of next-generation QKD systems, with a focus on cost-effectiveness and integration, with specific measurable improvements in one of the following parameters or features: (i) key rate (>1 Mbps over metropolitan distances), (ii) operational coverage of a network at the regional scale, >300 km for fibre-based QKD, including e.g. twin field and free-space links also for non-wired segments and for redundancy, (iii) development and demonstration of advanced quantum cryptographic protocols beyond QKD with provable security advantage over classical cryptographic systems. Implementation of hybrid quantum-classical cryptographic frameworks combining QKD and post-quantum cryptography (PQC), tested on clearly defined real-world applications. Integration of quantum communication components with network equipment and orchestration systems (e.g., software-defined networking). Validation of QKD-based security in high-priority use cases beyond EuroQCI infrastructure, including: Critical infrastructure monitoring (e.g., energy grid telemetry), Long-term secure cloud storage, Industrial control systems (e.g., transport, manufacturing), Secure multi-site enterprise communications. Strengthened European supply chain through the development of certifiable, standardised, and scalable QKD components. This action must address at least two core technical roadblocks defined in the SRIA 2030 for quantum-secure communication. These include scalability challenges in next-generation QKD protocols (e.g. MDI-QKD, DI-QKD) and the integration of QKD with PQC. Proposals are also encouraged to target at least one functionality beyond QKD in prepare-and-measure and one in entanglement-based scenarios, as identified for future quantum networks in the SRIA 2030. Scope: The action should support applied R&D in advanced QKD systems and their integration into future secure communication networks, avoiding overlap with EuroQCI deployment efforts. Proposals must include: Development and experimental validation of advanced QKD protocols and systems such as: Continuons-variable QKD (CV-QKD), Measurement-device-independent or device-independent QKD, Twin-field QKD (TF-QKD), Design and implementation of QKD integration into classical and optical networking infrastructure: Compatibility with existing network equipment (e.g., routers, switches), Interface development for SDN/NFV orchestration platforms, Secure key management compatible with enterprise-grade services. Demonstration of hybrid QKD-PQC frameworks in at least two realistic and demanding use cases, with demonstrable benefits over classical-only solutions. In addition to the QKD-focused activities, the action may also address research and first-demonstration efforts on novel quantum communication protocols beyond QKD. This includes the design, feasibility analysis, and early experimental validation of quantum primitives for security and trust in distributed and decentralized settings. These efforts should explore the implications of such protocols on future hardware and architectural choices and contribute to the long-term vision of quantum networks, as defined in the SRIA 2030. Validation of security performance through well-defined benchmarks and verification methods supporting the outcomes from EU quantum certification projects. Development of interoperable, scalable, and certifiable QKD hardware and software components (e.g., quantum random number generators, integrated photonic QKD components, single photon detectors, network controllers) supporting certification, in coordination with other specific EU programs, such as Euro-QCI.. Provision of cloud-accessible interfaces to QKD resources to facilitate remote experimentation and integration testing. Establishment of at least one Programme areas: Digital, Industry and Space, Global Challenges and European Industrial Competitiveness, Horizon Europe (HORIZON) Keywords: Quantum Key Distribution (QKD), Quantum Technologies (e.g. computing and communication)
Quantum-Testing Infrastructure for Quantum Technologies is sponsored by European Commission — Horizon Europe. Expected Outcome: This action will establish a pan-European open-access testing and experimentation infrastructure for quantum technologies, enabling systematic validation and certification of quantum components and systems. Expected outcomes include: Deployment of distributed quantum testing facilities accessible across Europe, including remote access and standardized test protocols. Provision of certification services aligned with future standardisation efforts, ensuring trust, quality, and interoperability of quantum technologies. Support for SMEs, start-ups, and research institutions in validating quantum components and sub-systems. Strengthening of Europe’s competitiveness by ensuring robust quality assurance mechanisms and accelerating the time-to-market of emerging quantum products. Scope: The proposal should implement the testing-related part of the action plan established under the Framework Partnership Agreement for Qu-Test. The action must include: Expansion and interconnection of open-access testing facilities in multiple Member States, covering a range of quantum technologies (e.g., processors, sensors, photonics, control systems). Development and deployment of interoperable testing methodologies, benchmarking protocols, and certification procedures. Integration of metrological and validation capabilities into existing RTOs and academic infrastructures, focusing on TRL 4–7. Creation of a comprehensive digital platform supporting users in test planning, remote execution, and data reporting. Engagement with industry, especially start-ups and SMEs, to define user-driven requirements and access models. Establishment of feedback loops between testing and design/manufacturing entities to inform improvements and accelerate iterative development. Coordination with relevant European and international standardisation initiatives to prepare the ground for widespread adoption of certified quantum components. Alignment with SRIA 2030 objectives, focusing on ecosystem-wide support for quality, reliability, and reproducibility in quantum technology development. Technology Readiness Level - Technology readiness level expected from completed projects The rules are described in General Annex B of the Horizon Europe Work Programme 2026-2027. Testing activities (no TRL applies) are expected to validate technologies starting at TRL 3/4 and confirm their progression to TRL 5/7 by the end of the project. Programme areas: Digital, Industry and Space, Global Challenges and European Industrial Competitiveness, Horizon Europe (HORIZON)
Quantum Experimental Pilot Lines for Quantum Technologies is sponsored by European Commission — Horizon Europe. Expected Outcome: This action will strengthen Europe's leadership and strategic autonomy in quantum technologies by advancing experimental pilot line capacities as a vital stepping stone toward future industrial-scale quantum hardware production. Qu-Pilot serves as the critical intermediary between academic research and the stable pilot lines under the Chips Joint Undertaking, offering a testbed for technological innovation, reproducibility, and manufacturability. Expected outcomes include: Deployment of experimental quantum pilot lines addressing diverse platforms and materials, laying the groundwork for broader integration into Chips JU pilot lines. Establishment of scalable and reproducible quantum fabrication processes, advancing TRL 4–6 technologies and addressing early-stage certification, standardisation, and quality control. Reinforcement of a pan-European quantum hardware ecosystem through shared infrastructure and open-access models, fostering participation from SMEs, startups, and research institutes. Demonstrated ability to accelerate technology maturity and feed critical feedback loops into future Chips JU stability pilot lines. Enhanced synergies with testing infrastructures (e.g., Qu-Test), standardisation efforts, and industrialisation roadmaps, enabling horizontal integration across computing, communication, sensing, and enabling tech domains. Scope: The action is to implement the pilot production elements of the Qu-Pilot Framework Partnership Agreement. The proposal should advance the maturity of quantum hardware technologies in alignment with EU industrial strategy, emphasising flexibility, innovation, and scalability. The proposal should address: Establishment or enhancement of experimental pilot production infrastructure for TRL 4–6 quantum hardware technologies, with strong R&D orientation. Development of pre-industrial processes for: Quantum processors (e.g., superconducting, trapped ions, photonic), Quantum sensors (e.g., NV centers), Cryo-compatible packaging and interconnects. Integration of cleanroom capabilities with lithography, etching, and deposition tailored to quantum device requirements (e.g., silicon, diamond, III-Vs), ensuring convergence with Chips JU standards. Creation of collaborative fabrication access models (shared-cost basis) open to academic and industrial partners. Development of standardised workflows for yield analysis, reproducibility, and quality assurance, supporting component certification pathways. Continuous engagement with Qu-Test and other testbeds to enable rapid iteration cycles and technology validation. Active alignment with Chips JU’s pilot line roadmap to enable seamless transfer of validated technologies once the stability pilot lines are operational. Contribution to a transversal European infrastructure serving multiple quantum domains (computing, sensing, communications), ensuring cross-domain integration and maximising synergies. Technology Readiness Level - Technology readiness level expected from completed projects The rules are described in General Annex B of the Horizon Europe Work Programme 2026-2027. Activities are expected to validate technologies starting at TRL 3/4 and confirm their progression to TRL 5/7 by the end of the project. Programme areas: Digital, Industry and Space, Global Challenges and European Industrial Competitiveness, Horizon Europe (HORIZON)
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