Funding schemes
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Experts in diverse fields
Lira partners with deep-tech start-ups and scale-ups worldwide, taking you from blank page to fully-polished submission.
You own the content. We supply the expertise, experience, knowledge, know-how that turn your proposal into a winning application.
Securing innovation funding is only the beginning. Once the contract is signed, a maze of reporting templates, compliance rules, and milestone checks appears overnight. Lira’s partners step in as your outsourced Project Management Office - PMO, so you stay focused on developing your technology.
By lifting the administrative weight, Lira frees your team to do what it does best.
























Sustainability is built on three different levels, each equally important:

We develop decision support tools that rigorously models the entire product and process value chain. By comparing this model with industry benchmarks, we can identify the process steps that have the greatest impact. This enables us to propose and test targeted solutions aimed at mitigating these impacts effectively.




The call is exclusively for SMEs established in widening countries, which include:


| Advanced semiconductors | Microelectronics, including processors; photonic including high energy laser technologies; high frequency chips; semiconductor manufacturing equipment at very advanced node sizes; space-qualified semiconductor technologies |
| Artificial intelligence | AI algorithms; high performance computing (HPC); cloud and edge computing; data analytics technologies; computer vision, language processing, object recognition; privacy-preserving technologies (e.g., federated learning) |
| Quantum | Quantum computing; quantum cryptography; quantum communications; Quantum Key Distribution (QKD); quantum sensing including quantum gravimetry; quantum radar; quantum simulation; quantum imaging; quantum clocks; metrology; space qualified quantum technologies |
| Advanced connectivity, navigation, and digital | Secure digital communications and connectivity, such as RAN (Radio Access Network) & Open RAN (Radio Access Network), and 5G and 6G; cyber security technologies including cyber- surveillance, security and intrusion systems, digital forensics; internet of things and virtual reality; distributed ledger and digital identity technologies; guidance, navigation, and control technologies, including avionics and maritime positioning, and space-based PNT; satellite-based secure connectivity |
| Advanced sensing technologies | Electro-optical, radar, chemical, biological, radiation and distributed sensing; magnetometers, magnetic gradiometers; underwater electric field sensors; gravity meters, and gradiometers |
| Robotics and autonomous systems | Autonomous habited and uninhabited vehicles (space, air, land, surface, and underwater), including swarming; robots and robot-controlled precision systems; exoskeletons; AI-enabled systems |
| Sustainable alternative fuels | Sustainable alternative fuels technologies |
| Other nuclear | Other nuclear technologies |
| Wind and electric propulsion technologies for transportation | Wind propulsion technologies; electric propulsion technologies |
| CO2 transport and utilisation | CO2 transport technologies; CO2 utilisation technologies |
| Transformative industrial technologies for decarbonisation | Transformative industrial technologies for decarbonisation |
| Biotech climate and energy solutions | Biotech climate and energy solutions |
| Renewable fuels of non-biological origin | Renewable fuels of non-biological origin technologies |
| Energy system-related energy efficiency | Energy system-related energy efficiency technologies; heat grid technologies; other energy system-related energy efficiency technologies |
| Other renewable energy | Osmotic energy technologies; ambient energy technologies, other than heat pumps; biomass technologies; landfill gas technologies; sewage treatment plant gas technologies; other renewable energy technologies |
| Hydropower | Hydropower technologies |
| Solar | Solar photovoltaic technologies; solar thermal electric technologies; solar thermal technologies; other solar technologies |
| Nuclear fission | Nuclear fission energy technologies; nuclear fuel cycle technologies |
| Electricity grid | Electricity grid technologies; electric charging technologies for transportation; technologies to digitalise the grid; other electricity grid technologies |
| Carbon capture and storage | Carbon capture technologies; carbon storage technologies |
| Sustainable biogas and biomethane | Sustainable biogas technologies; sustainable bio-methane technologies |
| Hydrogen | Electrolysers; hydrogen fuel cells; other hydrogen technologies |
| Heat pumps and geothermal energy | Heat pump technologies; geothermal energy technologies |
| Battery and energy storage | Battery technologies; energy storage technologies |
| Onshore wind and offshore renewable | Onshore wind technologies; offshore renewable technologies |
| Advanced materials, manufacturing and recycling | Technologies for nanomaterials; smart materials; advanced ceramic materials; stealth materials; safe and sustainable by design materials; additive manufacturing; digital controlled micro-precision manufacturing and small-scale laser machining/welding; technologies for extraction; processing and recycling of cri- tical raw materials and other components (e.g. catalyst, batteries), including hydrometallurgical extraction, bioleaching, nanotechnology-based filtration, electrochemical processing and black mass |
| Technologies vital to sustainability such as water purification and desalination | Purification and desalination technologies |
| Circular economy technologies | Technologies for the reuse and recycling of electronics (e-waste); circular bioeconomy technologies (e.g., for converting waste to valuable bio-based materials or energy) |
| DNA/RNA | Genomics; pharmacogenomics; gene probes; genetic engineering; DNA/RNA sequencing/synthesis/amplification; gene expression profiling, and use of antisense technology; large-scale DNA synthesis; new genomic techniques; gene drive. |
| Proteins and other molecules | Sequencing/synthesis/engineering/manufacturing of proteins and peptides (including large molecule hormones); improved delivery methods for large molecule drugs; proteomics; protein isolation and purification; signalling; identification of cell receptors; developing polyclonal products. |
| Cell and tissue culture and engineering | Cell/tissue culture; tissue engineering (including tissue scaffolds and biomedical engineering); cellular fusion; marker assisted breeding technologies; metabolic engineering; cell therapies; bioprinting of cells/replacement organs |
| Process biotechnology techniques | Fermentation using bioreactors; biorefining; bioprocessing; bioleaching; biopulping; biobleaching; biodesulphurisation; bioremediation; biosensing; biofiltration and phytoremediation; molecular aquaculture; protection and decontamination including human decontaminating agents; biocatalysis, novel test techniques suitable for high throughput screening; process improvement and delivery optimisation for biopharmaceuticals and advanced therapy medicinal products |
| Gene and RNA vectors | Gene therapy; viral vectors |
| Bioinformatics | Construction of databases on genomes; protein sequences; modelling complex biological processes; including systems biology; developing personalised genomics |
| Nanobiotechnology | Application of the tools and processes of nano/microfabrication to build devices for studying biosystems and applications in drug delivery, diagnostics, manufacturing. |

Applicants have to upload/submit on the EU Funding and Tenders Portal:
Applications will be reviewed in batches (one round of reviews every quarter) and applicants will be informed of results 4-6 weeks before the Face-to-Face Interview.
Full application deadlines:
11/02/2026
06/05/2026
09/09/2026
25/11/2026

Applications for 2025 are now closed. We expect more calls in 2026 and 2027


Open Call: Consortia of min 3 partners
Challenge Call: Single applicants or consortia of min 2 partners
The EIC Pathfinder is a 1-step process.
Proposals of 22 pages for EIC Pathfinder Open and 30 pages for EIC Pathfinder Challenge.
The EIC Pathfinder has 2 deadlines in 2026: 12/05 for Open proposals; and 28/10 for Challenge proposals.

This Challenge focuses on the development of a new generation of advanced materials to deliver miniaturised integrated energy harvesting devices, with significantly enhanced performance compared to the state of the art, that will give rise to highly effective energetically autonomous devices and systems.
Specific Objectives:
Increasing plant growth, yields and resistance to stress through:
This Challenge looks to translate decades of ageing research into tangible biopharmaceutical solutions for healthy ageing
Specific Objectives:
Applicants to this Challenge will be expected to develop a proof of concept in one of the following three areas:
1. An innovative preventative or therapeutic biotechnology-based or pharmaceutical intervention that prevents, delays or reverts the onset of  a specific age-related disease.  Such projects must address all of the following objectives:
2. A biomarker based tool to enable the responsible deployment of ageing-related interventions, taking into consideration the following:
3. A New Approach Methodology (NAM) that goes beyond the current state-of-the art to enable the future development of interventions for healthy ageing. The NAM should:
The goal of this Challenge is to move beyond the current state-of-the-art in traditional AI approaches, whether symbolic (e.g., rules, decision trees, symbolic regression, etc.) or connectionist, neural (e.g., deep learning, large language models, reinforcement learning). The goal is to significantly improve the Reasoning, Abstraction, and Planning (RAP) capabilities of AI systems. Â
Specific Objectives:
Innovative ideas put forward under this Challenge must explore novel approaches, including combinations of existing techniques (i.e. neuro-symbolic AI), or the creation of entirely new frameworks that go beyond current, traditional, deep learning and reinforcement learning paradigms. These could be inspired by developments in diverse fields such as neuroscience, biology, physics, philosophy and more. Â
The proposals should address one or more of the following cognitive capabilities:Â

Applicants have to submit on the EU Funding and Tenders Portal:
Four remote expert evaluators will review the documentation and decide whether it has merit to advance to the full proposal stage. The outcome of the evaluation will be sent to the applicant within 4 to 6 weeks from the date of the submission. Only short applications that receive 3 GOs out of 4 from the evaluators will be invited to submit a full proposal.Â

Six cut-off dates are planned for 2026:
The full proposal is submitted for review by both a technical expert evaluator and an evaluation panel composed of at least three independent experts.
The technical evaluator will examine the proposal in detail and conduct an online meeting with the applicants. The findings of this assessment will be included in a report, which will be sent to the evaluation panel.
Each independent expert within the evaluation panel will assess the proposal. The panel will then deliberate, taking into account both the individual expert assessments and the technical evaluator’s report, to determine the final score for the proposal.
Upon completion of the selection process, a ranked list of full proposals will be produced, identifying the companies invited to participate in the face‑to‑face interview stage.

The Face-to-Face Interview serves as the conclusive step in the EIC Accelerator process. It offers companies a unique opportunity to engage with a distinguished jury panel holding the authority to determine the companies selected for the EIC Accelerator.
During a comprehensive interview, the initial 10 minutes are dedicated to the pitch deck previously submitted as part of the full proposal. The interview then entails a question-and-answer session.
Following the interview, companies can expect to receive notification regarding the final outcome of their application within approximately two to three weeks. Prepare diligently for this impactful interview as it serves as the ultimate determinant for securing funding through the prestigious EIC Accelerator programme.
The start-ups and SMEs to be supported under this Challenge must focus on the development of advanced materials for renewable energy or energy storage systems, encompassing the design, synthesis, characterisation, up-scaling, and production of such materials. Â
The materials and associated processes must be developed with a view to minimising the use of resources, including strategic and Critical Raw Materials (CRMs). They must have their performance benchmarked, minimisation of resource use proven with respect to the state of the art and the use-case considered. In-silico methods of design and testing developed materials should be considered to speed-up the design process and decrease the cost of development.Â
The environmental footprint of the developed advanced materials should also be measured with a life-cycle analysis that includes an evaluation of the cost and social impact. Applicants are also encouraged to consider the potential impact of emerging environmental markets on their business, and to explore the strategic opportunities these markets may unlock when paired with innovative business models.Â
The projects selected under this Challenge will become part of the wider advanced materials ecosystem to be fostered by the actions set out in the Commission Communication on Advanced Materials including the new co-programmed partnership IAM4EU.
The start-ups and SMEs to be supported under this Challenge must focus on one or more elements of the fusion value chain including:Â
Indicative budget: €20mn
The start-ups and SMEs to be supported under this Challenge must focus on developing biotech driven solutions in one (or more) of the following areas:
Regardless of the specific area addressed, companies are encouraged to leverage digital tools such as AI and monitoring technologies such as sensors, as appropriate, to facilitate the identification or the development of processes and to reliably assess the evolution of soil health conditions to make the resulting products and services suitable for integration into existing production systems. All projects must provide a lifecycle assessment (LCA) considering environmental, social and economic consideration. Proposals are also expected to consider regulatory aspects alongside issues surrounding consumer acceptance and articulate suitable strategies to support market entry within and beyond the EU. Applicants are encouraged to consider the potential impact of emerging environmental markets on their business, and to explore the strategic opportunities these markets may unlock when paired with innovative business models.
The startups and SMEs supported under this Challenge will be connected through the EIC’s Business Acceleration Services with stakeholders engaged in the EU Mission Soil and with Horizon Europe Cluster 6, including its public-private partnership Circular Bio-based Europe Joint Undertaking (CBE JU) to support the accelerated uptake of breakthrough solutions.
Indicative budget: €50mn
The start-ups and SMEs to be supported under this Challenge must look to develop and deploy deep-tech innovations that contribute to the CRMA and European domestic capacity in one or more of the following areas:Â
The deep tech innovations must improve the sustainability of the EU’s sources for critical and strategic raw materials in line with the EU principles for sustainable raw materials​ and must clearly justify the relevance and business case for all targeted minerals and metals. Â
The environmental footprint of the proposed innovations should also be measured with a life-cycle analysis that includes an evaluation of the cost and social impact. Applicants are encouraged to consider the potential impact of emerging environmental markets on their business, and to explore the strategic opportunities these markets may unlock when paired with innovative business models.
Deep-sea mining does not fall within the scope of this call.Â
Indicative budget: €50mn
The start-ups and SMEs to be supported under this Challenge must look to develop and deploy deep-tech innovations that will address one of the following priorities:Â
Flood and coastal protection​: includes solutions for new (temporary) buildings / (green) infrastructure and retrofit to help infrastructure withstand damage from storm waters, coastal and river flooding alongside novel/ targeted predictive systems or early warning systems.
Indicative budget: €50mn
TRL: 4 to 6/7
Overall programme budget: €31M
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Application process


This Challenge aims to accelerate the development towards integration, deployment and commercialisation of breakthrough Physical AI solutions that will enhance Europe’s technological sovereignty, sustainability, and global competitiveness.
Disruptive Physical AI innovations must demonstrate at least two of the following characteristics:
Solutions must also focus on addressing pressing needs in at least one of the following application areas:
In the medium to longer term, it is expected the solutions will reduce European dependencies and support end users in leveraging advances in AI to enhance their products and develop new capabilities that will contribute to:Â Â
This Challenge aims to accelerate the adoption of NAMs in biomedicine and support companies that want to bring NAMs to the market.Â
Innovative and disruptive NAMs should address one or both of the following areas:
Human organoids or microphysiological systems (e.g. organ-on-chip, disease-on-chip), in chemico methods, digital twins, virtual patient simulations, AI-enhanced predictive models, mechanistic or integrated in silico platforms, 3D- advanced human tissue model are in scope.
This Challenge supports ambitions to maintain and strengthen the health sector in Europe. It will: