Technologies for optronic detectors
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See in 5 min if you're eligible for Technologies for optronic detectors offering max €79.0M funding💰 Funding Details
Funding Scheme for "Technologies for Optronic Detectors"
Maximum EU Contribution
* Up to €79 million per successful proposal.
Co-funding Rates (indicative — verify in the final call text)
| Activity Type | Typical EDF Funding Rate |
|---------------|--------------------------|
| Studies (Art.10 §3 c) | ≈ 90 % |
| Integrating Knowledge (b) & Design (d) | ≈ 60–65 % |
| System Prototyping (e), Testing (f), Qualification (g) | ≈ 20 % |
| Optional Certification (h) & Life-cycle Efficiency (i) | ≈ 20 % |
Member States and beneficiaries must finance the remaining percentage with national, own or other eligible sources (e.g., in-kind contributions, venture capital, national defence programmes).
Eligible Cost Categories
1. Direct personnel – researchers, engineers, technicians.
2. Subcontracting – specialised foundries, radiation testing, cryo-cooler manufacturing.
3. Equipment & prototyping – 300 mm CMOS masks, flip-chip bumping tools, vacuum packages.
4. Travel & networking – consortium coordination, reviews, access to foundry.
5. Indirect costs – flat-rate 25 % of direct costs unless an Actual Indirect Cost Methodology is approved.
Payment Flow
1. Pre-financing (~40 %) after Grant Agreement signature.
2. Interim payments upon successful reviews/milestones.
3. Balance payment (retention of 5–10 %) after final audit.
> Tip: Synchronise national co-funding decisions in your country *before* grant signature to avoid cash-flow gaps.
📊 At a Glance
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🇪🇺 Strategic Advantages
EU-Wide Advantages & Opportunities for "Technologies for Optronic Detectors" (EDF-2025-DA-SENS-IRD-STEP)
1. Single Market & Aggregate Demand
• Gives the consortium immediate access to an integrated European defence market worth >€200 billion/yr, instead of negotiating 27 separate national rules.
• Enables volume aggregation (land, air, naval, space platforms) that justifies costly access to 12”/300 mm CMOS lines, impossible at single-state scale.
• Eases later expansion into dual-use civil security and space Earth-observation markets via EU’s free circulation of dual-use goods.
2. Mandatory Cross-Border Collaboration
• The call explicitly requires joint development by the main EU IR-detector providers, creating a pan-EU value chain from wafer foundry to system integrator.
• Facilitates structured knowledge exchange on ROIC design, 3-D stacking, cryogenic packaging and radiation hardening—reducing duplication of classified R&D.
• Opens supplier opportunities for specialised SMEs/ETIs in bumping, vacuum packaging, cryocoolers and test benches in multiple Member States.
3. Alignment with Key EU Policies
• STEP (Strategic Technologies for Europe Platform): deep‐tech focus, complements Chips Act pilot lines and IPCEI-ME/CT.
• EU Chips Act & Important Projects of Common European Interest: reinforces sovereign semiconductor nodes for defence-grade CMOS.
• Strategic Compass & EU Defence Industrial Strategy (EDIS): answers capability gap on secure EO sensors and supply resilience.
• Digital Europe & Secure Connectivity: IR sensors underpin space-based situational awareness and high-speed data links.
• Contributes to Green Deal via low-power ROIC designs that reduce system energy footprints and coolant loads.
4. Regulatory Harmonisation Benefits
• One set of EDF grant rules replaces fragmented national offsets, ITAR-like constraints and ad-hoc export licences.
• Early compliance with common EU military standards (STANAGs, REACH, RoHS) simplifies certification and eases future cross-border procurement (EDIRPA, upcoming European Defence Industry Programme).
5. Access to Europe’s Innovation Ecosystem
• Fast-track cooperation with IMEC (BE), CEA-Leti (FR), Fraunhofer IMS (DE), VTT (FI) & Tyndall (IE) on nano-electronics, 3-D stacking and cryo-CMOS.
• Use of pan-European research infrastructures (EuroHPC supercomputers for ROIC simulation, NanoLabNet clean rooms) at EDF-funded rates.
• Talent pipeline via MSCA Defence PhD tracks, Erasmus Mundus joint masters on micro-electronics.
6. Funding & Programme Synergies
| Instrument | Complementary Value |
| ---------- | ------------------- |
| Horizon Europe Cluster 4 | Fundamental materials & photonics research not eligible under EDF |
| Chips Joint Undertaking | Pilot-line access & equipment grants for 300 mm advanced nodes |
| EIC Transition/Pathfinder | Disruptive quantum-dot or Type-II superlattice detectors for future ROIC generations |
| ESA GSTP / IRIDE (IT) | Space qualification & radiation testing of IRFPAs |
| European Investment Bank | Debt/venture financing of scale-up fabs under new Defence Equity Facility |
7. Economies of Scale & EU-Wide Deployment
• Harmonised ROIC architecture (≤5 µm pitch, ≥3 Mpx) becomes a de-facto European standard, reusable across infantry sights, MALE drones, maritime IRST and missile seekers.
• Pooling demand allows batch production runs that cut per-chip cost by 30–40 % and secure wafer slots ahead of global consumer-electronics customers.
• Facilitates joint in-service support framework contracts (NATO Support & Procurement Agency, OCCAR) lowering lifecycle cost for participating MoDs.
8. Strategic Autonomy & Security of Supply
• On-shores a critical link (advanced ROIC) currently dominated by non-EU fabs, reducing exposure to ITAR/EAR restrictions.
• Creates redundant EU supply nodes (e.g., STMicro Crolles, X-FAB Dresden) increasing resilience against geopolitical shocks.
• Supports dual-sourcing policies embedded in European Defence Industrial Strategy (minimum two EU suppliers for each strategic technology).
9. Economic & Employment Impact
• High-skilled jobs in semiconductor design, cryocooler manufacturing and vacuum packaging across at least 8-10 Member States.
• Catalyses SME clusters (optics polishing, indium bumping, MEMS shutters) via EDF’s 20 % minimum SME expenditure target.
• Expected spill-over of low-noise ROIC IP into automotive ADAS and medical thermography within 3-5 years.
10. Environmental & Societal Benefits
• Low-power ROICs reduce cryocooler energy consumption, aligning with EU eco-design directives and defence sustainability targets.
• Enhanced border surveillance and wildfire-detection capabilities contribute to civilian protection missions under Art 42(7) & 222 TFEU.
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Key Take-Away: Only an EU-level action can pool the critical mass of funding (~€60-80 M), fabs, and end-users needed to de-risk 3-D, sub-7 µm ROIC technology and anchor the entire infrared detector value chain in Europe. The EDF grant therefore acts as both technology catalyst and strategic sovereignty instrument that no single Member State programme could replicate.
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