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Part B Section 2 — Impact

Proposal: Post-Quantum Cryptography Integration for EU Critical Infrastructure Call: HORIZON-CL3-2025-CS-ECCC-06 Budget: €2.8M (€2.0M EU contribution) Section: Impact (30 points) Date: 2025-11-06


2.1 Expected Outcomes and Pathways to Impact

Expected Outcomes (Call ECCC-06 Alignment)

This project directly addresses the expected outcomes defined in call topic HORIZON-CL3-2025-CS-ECCC-06:

Outcome 1: Quantum-Safe Cryptographic Systems for Critical Infrastructure

  • Achievement: Integration of 3 NIST-standardized PQC algorithms (CRYSTALS-Kyber FIPS 203, CRYSTALS-Dilithium FIPS 204, SPHINCS+ FIPS 205) into VaultMesh receipt engine, validated at TRL 6 across 3 operational pilots (France, Czech Republic, Greece)
  • Evidence: Deliverable D2.3 (PQC Implementation Report M14), Deliverable D5.1 (Pilot Assessment Report M20)

Outcome 2: Migration Pathways from Classical to Post-Quantum Cryptography

  • Achievement: Hybrid transition layer enabling dual-signature mode (classical + PQC parallel) with 100% backward compatibility, validated across 15+ federation nodes
  • Evidence: Deliverable D2.2 (Hybrid Transition Protocol M11), KPI I4 (15+ cross-border federation nodes operational by M24)

Outcome 3: EU Digital Sovereignty and NIS2/DORA Compliance

  • Achievement: 100% peer-to-peer sovereign data exchange (no third-party cloud intermediaries), full GDPR Art. 5(1)(f) and Art. 25 compliance demonstrated in pilots
  • Evidence: KPI I4 (Sovereign Data Exchange), Deliverable D5.3 (Legal & Ethics Assessment M24)

Outcome 4: Cost Reduction and Operational Efficiency

  • Achievement: 30% audit cost reduction (measured in pilot benchmarks), 50% faster incident detection (Ψ-Field anomaly detection), <€0.01 per cryptographic receipt (batched anchoring)
  • Evidence: KPI I1 (Compliance Cost Reduction), KPI I2 (Incident Response Improvement), Deliverable D5.1 (Pilot Assessment M20)

Quantitative KPI Dashboard (18 Measurable Targets)

The following table summarizes all 18 project KPIs across Excellence, Impact, and Implementation dimensions. Full details in PQC_KPI_Dashboard.md.

Category KPI Baseline (M0) Target (M24) Verification Method Measurement Frequency
Excellence TRL Level 4 (Lab validation) 6 (Pilot validation) External TRL audit by independent evaluator M12, M24
Excellence PQC Algorithms Integrated 0 3 (Kyber, Dilithium, SPHINCS+) Code repository tags + unit test coverage Monthly
Excellence Receipt Throughput 1,000/day 10,000/day Benchmark tests (D2.2) Quarterly
Excellence Peer-Reviewed Publications 0 10+ (top-tier venues: IEEE S&P, ACM CCS, Usenix Security) DOI links in D5.3 M12: 3, M18: 7, M24: 10+
Excellence Standards Drafts Submitted 0 5+ (ETSI, IETF, ISO/IEC) Draft IDs + submission confirmations (D5.2) M18: 2, M24: 5+
Excellence Working Group Participation 0 3+ (ETSI TC CYBER, IETF CFRG, ISO/IEC JTC 1/SC 27) Meeting attendance records Quarterly
Impact Audit Cost Reduction 0% (no baseline) 30% reduction vs. manual audit Pilot benchmarks (D5.1): time to verify receipt chain vs. manual log review Pilot phase (M12-M24)
Impact Receipt Verification Time N/A <5 seconds per receipt (Merkle proof) Performance benchmarks (D2.2) Quarterly
Impact Cost per Receipt €0 (no TSA/blockchain yet) <€0.01 per receipt (batched anchoring) Monthly TSA/blockchain invoices Monthly
Impact Incident Detection Time N/A 50% faster vs. manual monitoring Pilot logs (D5.1): time from anomaly to alert Pilot phase
Impact False Positive Rate N/A <10% (Ψ-Field tuned thresholds) Pilot feedback + precision/recall metrics Monthly (pilot phase)
Impact Open-Source Downloads ~100/month 500+ post-M24 (cumulative over 6 months post-project) GitHub Insights, Docker Hub pulls Monthly
Impact Federation Nodes Operational 0 15+ (across 3 countries) Federation testbed logs (D4.2) M12: 5, M18: 10, M24: 15+
Impact Sovereign Data Exchange 0% 100% (mTLS peer-to-peer) Architecture review (D1.2) + pilot deployments Pilot phase
Implementation Deliverables On-Time N/A 100% (13/13) EU portal submission confirmations Per deliverable
Implementation Budget Variance N/A ≤10% per WP Financial reports Quarterly
Implementation Steering Committee Attendance N/A ≥90% (all 4 partners attend ≥22/24 meetings) Attendance logs Monthly
Implementation High Risks (Score ≥6) 0 0 (no critical blockers by M24) Risk register updates Monthly

Success Criteria Summary:

  • Excellence: TRL 6 achieved with ≥2/3 pilot sites validating system in operational environment; ≥8 publications in top-tier venues (h-index ≥30); ≥3 standards drafts accepted for working group review
  • Impact: ≥2/3 pilot sites report ≥25% audit cost reduction; ≥1/3 pilot sites demonstrate ≥40% faster incident detection; ≥400 open-source downloads; ≥12 federation nodes operational
  • Implementation: ≥12/13 deliverables on-time; ≤10% variance from planned budget per WP; ≥90% steering committee attendance; 0 high-risk items at M24

Societal Impact: EU Digital Sovereignty and Critical Infrastructure Protection

Problem Context: EU critical infrastructure operators (public administrations, health systems, energy grids, financial institutions) face imminent quantum computing threats to their cryptographic foundations. NIST's 2024 standardization of post-quantum algorithms (CRYSTALS-Kyber, Dilithium, SPHINCS+) creates urgent need for validated migration pathways that:

  1. Maintain 100% backward compatibility with existing systems
  2. Ensure sovereign data governance (no third-party cloud dependencies)
  3. Comply with NIS2 Directive (Art. 21), DORA (Art. 29), and GDPR (Art. 5(1)(f))
  4. Provide tamper-evident audit trails with legal non-repudiation (RFC-3161 timestamps)

VaultMesh Solution Impact:

  • 30% Audit Cost Reduction: Automated Merkle proof verification vs. manual log reviews reduces compliance audit hours by 30% (measured in pilot benchmarks D5.1). For a mid-sized public agency conducting quarterly NIS2 audits (~80 hours/audit), this translates to 96 hours/year saved = €12K-€15K annual savings per organization.
  • 50% Faster Incident Detection: Ψ-Field anomaly detection (collective intelligence across federation) reduces time from security event to alert by 50% vs. manual SIEM monitoring (measured in pilot logs D5.1). For critical infrastructure, this improvement can prevent breach escalation (median cost: €2M per incident per EC Cybersecurity Report 2024).
  • Sovereign Data Exchange: 100% peer-to-peer mTLS federation eliminates dependency on non-EU cloud providers, addressing EU Digital Sovereignty Strategy (March 2024) requirement for strategic autonomy in digital infrastructure.

Beneficiaries (Direct & Indirect):

  • Direct (3 Pilot Sites, 15+ Federation Nodes): Public Digital Services Agency (France), Masaryk University Research Network (Czech Republic), Critical Infrastructure Operator (Greece), plus 12+ additional nodes joining federated testbed
  • Indirect (Post-Project Adoption): Estimated 50-100 EU public administrations over 3 years post-project, based on open-source dissemination (target: 500+ downloads within 6 months of M24, KPI I3)

Policy Alignment:

  • NIS2 Directive (Art. 21): Risk management measures requiring cryptographic controls → VaultMesh provides quantum-safe cryptography + tamper-evident audit spine
  • DORA (Art. 29): ICT risk management for financial entities → LAWCHAIN receipt anchoring demonstrates operational resilience
  • EU Cybersecurity Act: Certification scheme for ICT products → VaultMesh PQC implementation serves as reference for future certification (EUCC scheme under development)
  • EU Digital Sovereignty Strategy: Reducing dependency on non-EU tech providers → 100% sovereign peer-to-peer architecture (no AWS/GCP/Azure intermediaries)

Economic Impact: Cost Savings and Open-Source Value Creation

Quantified Economic Benefits (Per Organization):

Based on pilot benchmarks (D5.1) and conservative estimates:

  1. Compliance Audit Cost Reduction: €12K-€15K/year

    • Baseline: 80 hours/quarter × €50/hour = €16K/year (manual NIS2 audit)
    • Target: 30% reduction = €11.2K/year = €4.8K annual savings
    • Across 3 pilot sites over 24 months: €24K total savings
  2. Incident Response Efficiency: €50K-€100K value/incident prevented

    • 50% faster detection reduces breach escalation risk
    • Median breach cost (EC 2024): €2M × 5% escalation probability reduction = €100K expected value per org/year
    • Across 3 pilot sites: €300K total expected value
  3. Infrastructure Cost Avoidance: €5K-€10K/year

    • No third-party cloud fees (AWS/GCP/Azure) for compliance logging
    • Peer-to-peer federation vs. centralized SaaS (~€8K/year for mid-sized org)
    • Across 3 pilots: €24K total cost avoidance

Total Economic Impact (Pilot Phase): €24K + €300K + €24K = €348K over 24 months

Post-Project Economic Impact (3-Year Projection):

  • Assuming 50 EU organizations adopt VaultMesh PQC framework (conservative estimate based on 500+ downloads KPI I3)
  • 50 orgs × (€4.8K audit savings + €100K incident value + €8K cloud avoidance) = €5.64M total economic value over 3 years

Open-Source Value Creation:

  • Apache 2.0 license enables free adoption (no licensing fees)
  • Community contributions reduce per-organization development costs (€50K-€100K saved vs. building in-house PQC migration)
  • Standards contributions (5+ drafts to ETSI/IETF/ISO) create interoperability = reduced vendor lock-in = €10M+ ecosystem value (estimated based on ETSI TSI savings model)

Scientific Impact: Advancing Post-Quantum Cryptography Research

Novelty Beyond State-of-the-Art (See Part B Section 1.4 for full ambition):

  1. Hybrid Cryptographic Transition Layer: First operational implementation of dual-signature mode (classical + PQC parallel) for critical infrastructure at TRL 6 → Contributes to IETF CFRG hybrid cryptography standardization
  2. Tamper-Evident Audit Spine (LAWCHAIN): Novel Merkle compaction algorithm reducing storage overhead by 90% while maintaining full provenance → Publication target: IEEE Symposium on Security & Privacy 2026
  3. Collective Anomaly Detection (Ψ-Field): Federated anomaly detection without centralized aggregation → Contributes to privacy-preserving machine learning research (target: ACM CCS 2026)
  4. Cryptographic Proof-of-Governance: Genesis receipts with Merkle roots for consortium coordination → Novel application to EU funding processes (target: Journal of Cybersecurity Policy 2027)

Publication Strategy (10+ Papers Target, KPI E2):

Venue Timeline Topic Authors (Lead)
IEEE S&P 2026 Submit M14 Merkle Compaction Algorithm for Audit Spines VaultMesh + Univ Brno
ACM CCS 2026 Submit M16 Federated Anomaly Detection (Ψ-Field) Cyber Trust + VaultMesh
Usenix Security 2027 Submit M20 Hybrid PQC Transition: 3-Pilot Validation VaultMesh + France Public
ETSI White Paper M18 PQC Migration Guidelines for EU Critical Infrastructure All partners
IETF RFC Draft M22 Hybrid Key Encapsulation (X25519 + Kyber) VaultMesh + Brno
ISO/IEC TR M24 Interoperability Profiles for PQC Certificates All partners
Journal of Cybersecurity M20 NIS2/DORA Compliance via Cryptographic Governance France Public + VaultMesh
3 Conference Papers M12, M18, M24 Workshop/poster presentations (ETSI Security Week, IETF CFRG) Various

Success Criteria: ≥8 publications in top-tier venues (h-index ≥30) by M24 (KPI E2)

Standards Contributions (5+ Drafts Target, KPI E3):

  • ETSI TC CYBER: PQC Migration Best Practices for EU Member States (draft submission M18)
  • IETF CFRG: Hybrid KEM Protocol (X25519 + CRYSTALS-Kyber) (draft submission M22)
  • ISO/IEC JTC 1/SC 27: Composite Certificate Interoperability Profiles (draft submission M24)
  • NIST NCCoE: Use Case Contribution (VaultMesh as Reference Implementation) (M20)
  • W3C Verifiable Credentials: PQC-Compatible Credential Signatures (exploratory draft M24)

Academic Partnerships:

  • Masaryk University (Brno): Co-authorship on cryptographic algorithm papers, PhD student supervision (1 student dedicated to WP2/WP3)
  • Cyber Trust (Greece): Federated learning research collaboration, access to cybersecurity testbed
  • France Public Digital Services: Policy research on NIS2/DORA implementation, real-world pilot data

2.2 Measures to Maximize Impact

Dissemination Strategy

Target Audiences:

  1. Policy Makers (EU Member States): National cybersecurity agencies (ENISA network), NIS2 designated authorities, public administration CISOs
  2. Critical Infrastructure Operators: Energy (ENTSO-E), finance (European Banking Federation), health (eHealth Network), transport (EU-RAIL)
  3. Research Community: Cryptography researchers, PQC standardization experts, federated learning community
  4. Industry: Cybersecurity vendors (building PQC solutions), cloud providers (integrating quantum-safe protocols)
  5. General Public: EU citizens concerned about data sovereignty, privacy advocates

Dissemination Channels:

Channel Activities Timeline Responsible Partner Target Reach
Open-Source Platforms GitHub repos (5+), Docker Hub images, Zenodo datasets M8 onwards VaultMesh (lead) 500+ downloads (KPI I3)
Academic Conferences 10+ publications (IEEE S&P, ACM CCS, Usenix), 5+ presentations M12-M24 All partners ~2,000 researchers
Standards Bodies ETSI TC CYBER, IETF CFRG, ISO/IEC SC 27 participation M6 onwards VaultMesh + Brno ~500 standards experts
Policy Workshops 3 regional workshops (France, Czech, Greece), ENISA briefing M15, M18, M21 France Public (lead) ~150 policy makers
Industry Webinars Quarterly webinars (open registration), recordings on YouTube M9, M12, M15, M18, M21, M24 Cyber Trust (lead) ~500 registrations
Media & Press Press releases (M6, M12, M24), tech blog posts, EU Horizon success story M6, M12, M24 Coordinator 5+ articles (KPI I3)
EU Portals CORDIS project page, EU Open Research Repository, Horizon Results Platform M1 onwards Coordinator N/A (visibility)

Open Access Commitment:

  • Publications: 100% Gold/Green Open Access (all 10+ papers published in OA journals or preprints on arXiv)
  • Data: FAIR principles (Findable, Accessible, Interoperable, Reusable) — all pilot datasets anonymized and published on Zenodo by M24
  • Code: Apache 2.0 license (all 5+ repositories), comprehensive documentation, Docker deployment guides

Exploitation Strategy

Open-Source Model (Apache 2.0 License):

  • Rationale: Maximize adoption in public sector (no licensing fees), align with EU Digital Sovereignty (no vendor lock-in), enable community contributions
  • Commercial Support (Optional): VaultMesh may offer paid support/training for large deployments post-project (not required for basic usage)
  • Sustainability: Community governance model post-project (Linux Foundation style), annual contributors' summit

Exploitation Pathways:

  1. Public Sector (Primary):

    • Target: 50-100 EU public administrations adopting VaultMesh PQC framework within 3 years post-project
    • Mechanism: Open-source downloads + 3 regional workshops (M15, M18, M21) + ENISA promotion
    • Success Indicator: 500+ downloads within 6 months of M24 (KPI I3), 15+ active federation nodes (KPI I4)
  2. Critical Infrastructure Operators (Secondary):

    • Target: Energy, finance, health, transport sectors piloting VaultMesh for NIS2/DORA compliance
    • Mechanism: Pilot reports (D5.1) as proof-of-concept, industry webinars, standards contributions
    • Success Indicator: 3+ non-pilot organizations join federation testbed by M24
  3. Research Community (Tertiary):

    • Target: Academic/industrial researchers building on VaultMesh as reference implementation
    • Mechanism: 10+ publications, GitHub repos, Zenodo datasets, conference presentations
    • Success Indicator: 50+ GitHub forks (KPI E2), 5+ external research papers citing VaultMesh by M24+6

Intellectual Property Rights (IPR):

  • Background IP: VaultMesh existing codebase (vaultmesh-core) — already Apache 2.0, no restrictions
  • Foreground IP: All project outputs (PQC sealer, verifier, Ψ-Field, federation router) — Apache 2.0 open-source
  • Standards-Essential Patents (SEP): If consortium contributes to ETSI/IETF standards, commitment to FRAND (Fair, Reasonable, Non-Discriminatory) licensing
  • Data Rights: Pilot data anonymized and published under CC-BY 4.0 (Creative Commons Attribution)

Post-Project Sustainability Plan:

Activity Timeline Funding Source Responsible
Code Maintenance M24+ (indefinite) Community volunteers + VaultMesh (in-kind) VaultMesh (coordinator)
Annual Contributors' Summit M30, M36, M42 €5K/event (registration fees, sponsor contributions) Community organizing committee
Security Audits M30, M36 (biannual) €10K/audit (community fundraising, sponsor grants) External auditor + VaultMesh
Documentation Updates M24+ (continuous) Community contributions (volunteer hours) Community documentation team
Training Materials M24+ (refresh annually) €3K/year (EU Digital Skills partnerships) France Public (lead)

Risk: Low adoption if competing open-source PQC solutions emerge Mitigation: Early ETSI/IETF standards contributions (M18-M22) establish VaultMesh as reference implementation, 3 operational pilots (M20-M24) demonstrate real-world validation (TRL 6 advantage)


Communication Strategy

Key Messages (Tailored by Audience):

  1. Policy Makers: "VaultMesh enables NIS2/DORA compliance with 30% cost reduction while ensuring EU digital sovereignty (100% peer-to-peer, no third-party cloud)"
  2. Infrastructure Operators: "50% faster incident detection + quantum-safe cryptography in 3 validated pilots across France, Czech Republic, Greece"
  3. Researchers: "First TRL 6 validation of hybrid PQC transition (classical + post-quantum parallel) with novel Merkle compaction algorithm"
  4. General Public: "EU-funded project protects critical infrastructure from future quantum computing threats while keeping citizen data sovereign"

Communication Timeline:

Milestone Communication Activity Channel Audience
M1 (Kickoff) Press release: "€2.8M EU Project Launches PQC Integration" CORDIS, partner websites General public
M6 (D1.2 Complete) Technical blog post: "VaultMesh PQC Architecture Specification" Medium, GitHub blog Researchers, developers
M12 (First Pilot Deployed) Case study: "France Public Services Pilot Quantum-Safe Cryptography" ENISA newsletter, tech press Policy makers, operators
M18 (Standards Drafts) Webinar: "Contributing to ETSI/IETF PQC Standards" ETSI Security Week, IETF CFRG Standards community
M24 (Project End) Final conference + press release: "3 EU Pilots Achieve TRL 6 for PQC" EU Horizon Results Platform, major tech outlets All audiences

Branding & Visual Identity:

  • Project Logo: VaultMesh shield with quantum wave pattern (designed M2)
  • Tagline: "Quantum-Safe. Sovereign. Proven." (emphasizes TRL 6 validation + EU sovereignty)
  • Color Scheme: EU blue (#003399) + cryptographic green (#2e7d32) for trust/security

Social Media Presence:

  • Twitter/X: @VaultMeshEU (project-specific account, launched M3)
  • LinkedIn: VaultMesh company page + project updates (quarterly posts)
  • YouTube: Webinar recordings, pilot demo videos (M12, M18, M24)
  • Target: 500+ followers by M24 (not a KPI, but indicative of reach)

2.3 Barriers and Mitigation Strategies

Technical Barriers

Barrier 1: NIST PQC Standards Changes (Risk R01, Score 4)

  • Description: NIST may revise CRYSTALS-Kyber/Dilithium/SPHINCS+ specifications post-standardization (precedent: Kyber parameter changes 2023)
  • Impact: High (requires re-implementation, delays pilots)
  • Mitigation: Modular cryptographic library (WP2 Task 2.1) with abstraction layer enabling algorithm swap without full system re-architecture; monthly NIST monitoring (WP5); €50K contingency budget allocated for re-implementation if needed (Risk Register allocation)
  • Residual Risk: MODERATE (likelihood 2/3 after mitigation)

Barrier 2: Performance Overhead of PQC Algorithms (Risk R08 partial)

  • Description: PQC signatures (Dilithium) are ~10x larger than Ed25519, potentially impacting receipt storage/transmission
  • Impact: Medium (affects KPI E1 receipt throughput target)
  • Mitigation: Merkle compaction algorithm (WP2 Task 2.3) reduces storage overhead by 90%; batched TSA/blockchain anchoring (WP2 Task 2.4) amortizes signature costs across 100+ receipts; performance benchmarks (D2.2 M11) validate <5 second verification time (KPI I1)
  • Residual Risk: LOW (mitigation proven in VaultMesh TRL 4 prototype)

Barrier 3: Ψ-Field False Positives in Operational Pilots (Risk R08, Score 4)

  • Description: Anomaly detection may generate excessive false positives, reducing operator trust
  • Impact: Medium (affects KPI I2 target <10% false positive rate)
  • Mitigation: 3-month tuning phase (M13-M15) before pilot deployment; human-in-the-loop validation (operators review alerts before automated response); quarterly precision/recall metrics (KPI I2); fallback to manual SIEM if false positive rate >15%
  • Residual Risk: MODERATE (requires iterative tuning, success depends on pilot data quality)

Organizational Barriers

Barrier 4: Pilot Site Deployment Delays (Risk R04, Score 4)

  • Description: Public administrations may face procurement delays, political changes, or resource constraints
  • Impact: High (affects TRL 6 validation timeline, KPI E1)
  • Mitigation: 3 pilot sites (France, Czech, Greece) provide redundancy; if 1 pilot delays, other 2 sufficient for TRL 6 validation (success criteria: ≥2/3 pilots); legal pre-clearance (M1-M3) for data processing agreements; dedicated WP5 coordinator (France Public) manages pilot timelines; monthly steering committee reviews pilot status (KPI IM3)
  • Residual Risk: MODERATE (2/3 pilots likely to succeed, 1/3 may delay)

Barrier 5: Consortium Coordination Across 4 Partners (Risk R05, Score 3)

  • Description: Geographic distribution (Ireland, Czech, Greece, France) + diverse partner types (private, academic, public) may create coordination friction
  • Impact: Medium (affects deliverable on-time rate KPI IM1)
  • Mitigation: Monthly steering committee meetings (KPI IM3, target ≥90% attendance); dedicated project manager (0.5 FTE at VaultMesh); Mattermost real-time chat + NextCloud file sharing; cryptographic proof-of-governance (PROOF_CHAIN.md) ensures accountability; conflict resolution protocol in consortium agreement (<2 weeks resolution time, KPI IM3)
  • Residual Risk: LOW (proven coordination mechanisms from VaultMesh TRL 4 phase)

Adoption Barriers

Barrier 6: Competing Open-Source PQC Solutions

  • Description: Other EU/US projects may release similar PQC migration frameworks (e.g., NIST NCCoE, German BSI initiatives)
  • Impact: Medium (affects KPI I3 open-source downloads target)
  • Mitigation: Early standards contributions (ETSI/IETF drafts M18-M22) establish VaultMesh as reference implementation; TRL 6 validation (vs. competitors at TRL 4-5) provides credibility advantage; cryptographic proof-of-governance (unique differentiator); Apache 2.0 license enables integration with other solutions (not zero-sum competition)
  • Residual Risk: LOW (VaultMesh's proof-driven architecture + TRL 6 validation creates sustainable differentiation)

Barrier 7: Complexity of Hybrid Transition for Non-Expert Users

  • Description: IT administrators at pilot sites may lack PQC expertise, hindering adoption
  • Impact: Medium (affects pilot deployment timeline, KPI I3 adoption)
  • Mitigation: 3 regional training workshops (M15, M18, M21, KPI I3); comprehensive documentation (D2.1 M8, D4.3 M18); Docker deployment guides (WP4 Task 4.1); dedicated support channel (Mattermost, response <24h); VaultMesh "Quick Start" guide (5 pages, non-technical language) published M10
  • Residual Risk: LOW (training workshops + documentation reduce learning curve)

Regulatory Barriers

Barrier 8: GDPR Compliance for Cross-Border Federation

  • Description: Peer-to-peer data exchange across 3 countries (France, Czech, Greece) must comply with GDPR Art. 5(1)(f) (integrity/confidentiality) and Art. 44-46 (cross-border transfers)
  • Impact: Medium (affects KPI I4 sovereign data exchange)
  • Mitigation: Legal review (M10, coordinated by France Public, expert in GDPR); data processing agreements (DPAs) signed M3; all pilot data anonymized (no personal data processed); standard contractual clauses (SCCs) for cross-border transfers; ethics assessment (D5.3 M24) documents compliance
  • Residual Risk: LOW (GDPR compliance embedded in WP1 requirements, no personal data in pilots)

Barrier 9: NIS2/DORA Certification Requirements (Future)

  • Description: EU may mandate formal certification (EUCC scheme) for cryptographic products used in critical infrastructure post-2026
  • Impact: Low (post-project risk, but affects long-term adoption)
  • Mitigation: VaultMesh architecture designed with EUCC in mind (security-by-design, WP1 Task 1.3); external TRL audit (M12, M24) provides pre-certification validation; ETSI TC CYBER participation (M6+) ensures alignment with emerging certification schemes; sustainability plan includes €10K/audit budget for future EUCC certification (post-M24)
  • Residual Risk: LOW (VaultMesh positioned for future certification, no immediate blockers)

2.4 Sustainability Beyond Project Duration

Technical Sustainability

Code Maintenance (M24+ Indefinite):

  • Approach: Community-driven development (Linux Foundation model)
  • Governance: VaultMesh as initial maintainer, transition to multi-organization steering committee by M30
  • Funding: Volunteer contributions + VaultMesh in-kind support (estimated 0.25 FTE post-project)

Security Audits (Biannual M30, M36, M42):

  • Approach: External cybersecurity auditor reviews VaultMesh codebase for vulnerabilities
  • Funding: €10K/audit via community fundraising (sponsor contributions from pilot sites) + EU Digital Skills partnerships
  • Commitment: Masaryk University (Brno) committed to co-fund M30 audit (€5K in-kind)

Organizational Sustainability

Community Governance (M24+):

  • Structure: Technical Steering Committee (5-7 members: VaultMesh + pilot sites + external contributors)
  • Meetings: Quarterly virtual meetings (30 min), annual in-person summit (2 days)
  • Decision-Making: Rough consensus model (IETF style), 2/3 majority for major changes

Training & Capacity Building (M24+):

  • Materials: All workshop materials (M15, M18, M21) published as open educational resources (OER) under CC-BY 4.0
  • Partnerships: France Public committed to annual refresher workshop (2026, 2027, 2028) via national cybersecurity training program
  • Online Platform: YouTube channel with deployment tutorials, troubleshooting guides (launched M12, maintained post-project)

Financial Sustainability

Revenue Model (Optional, Not Required for Basic Usage):

  • Free Tier: Open-source download, community support (GitHub issues), standard documentation
  • Paid Support (Optional): VaultMesh offers enterprise SLA (24h response time, custom integration) for €5K-€10K/year (post-project, if demand exists)
  • Estimate: 10-20 organizations may opt for paid support post-project = €50K-€200K/year revenue (sustains 0.5-1.0 FTE)

Public Funding (Post-Project Opportunities):

  • EU Digital Europe Programme: Cybersecurity deployment grants (€50K-€200K per member state) — VaultMesh eligible as TRL 6 validated solution
  • National Cybersecurity Agencies: France, Czech, Greece may fund VaultMesh deployment in additional public agencies (estimated €20K-€50K per deployment)

Policy Sustainability

Standards Embedding (M18-M24 and Beyond):

  • ETSI TC CYBER: PQC Migration Guidelines (draft M18) → target approval by M36 → mandated in EU procurement by 2028
  • IETF CFRG: Hybrid KEM RFC (draft M22) → target publication by M42 → referenced in NIST SP 800-series by 2029
  • ISO/IEC JTC 1: Interoperability profiles (draft M24) → target international standard by M48 → global adoption

EU Policy Integration:

  • NIS2 Implementing Acts (2026-2027): VaultMesh pilot reports (D5.1 M20) submitted to ENISA as use case for quantum-safe transition
  • DORA Technical Standards (2027): Influence EBA/ESMA guidelines on cryptographic resilience via project publications
  • EU Cybersecurity Certification Scheme (EUCC): VaultMesh positioned as pre-certified reference implementation

Success Criteria for Sustainability:

  • Technical: ≥5 active contributors (non-consortium) by M30, ≥1 security audit completed by M36
  • Organizational: ≥10 organizations in community governance by M30, annual summit attendance ≥20 people by 2027
  • Financial: €50K+ revenue (paid support + grants) by M30, 0.5-1.0 FTE sustainable via community funding
  • Policy: ≥1 ETSI/IETF standard approved by M36, ≥1 NIS2/DORA implementing act references VaultMesh by 2027

Document Control:

  • Version: 1.0-IMPACT-SECTION
  • Date: 2025-11-06
  • Owner: VaultMesh Technologies B.V. (Coordinator)
  • Classification: Consortium Internal (Part B Section 2 Draft)
  • Related Files: PQC_KPI_Dashboard.md, PQC_Risk_Register.md, PartB_Excellence.md