{
  "id": "EVI-CCX-0210",
  "slug": "evi-clsa-c-0322-deferred",
  "sourceDecisionId": "EVI-CCA-0210",
  "sourceQueueEntryId": "EVI-CLSA-Q-0210",
  "claimId": "EVI-CLSA-C-0322",
  "reportId": "REP-INFRA-001",
  "reportPath": "docs/long-term-memory/reports/eviulon-infrastructure-resilience-plan.md",
  "sourceRecordPath": "docs/long-term-memory/archives/source-reports/eviulon-infrastructure-resilience-plan-source.md",
  "priorDecision": "STANDARDS_VERSION_REVIEW_REQUIRED",
  "executionState": "DEFERRED",
  "executionReason": "The authoritative standards publication and exact claim passage require a dedicated current primary-source review before mutation.",
  "proposedCorrection": "Qualify the paragraph as a scenario, proposal, historical claim, or unresolved currentness issue; bind it to a competent primary source before broader public reuse.",
  "exactBeforePassage": "The preservation of Eviulon requires distinct, predefined resilience strategies against a spectrum of physical, logical, and adversarial threats. The strategy against **power failure** relies on decoupling from terrestrial grids. Eviulon mandates localized micro-grids utilizing advanced baseload generation and deep-cycle battery storage capable of sustaining Tier 1 operations independently for extended durations. Resilience to **communications partition** is achieved through asynchronous queueing; if an enclave is isolated, local transactions are cryptographically signed and held in a verifiable mempool until multipath routing (including low-earth orbit satellite backups) can re-establish the connection. **Time-source corruption**, specifically GPS/PNT spoofing, represents a severe threat to consensus4. Eviulon mitigates this by deploying independent atomic holdover oscillators within each enclave, cross-verified through an internal peer-to-peer timing mesh. **Storage loss** is countered through aggressive erasure coding and wide geographic replication, ensuring that the destruction of multiple physical arrays does not result in the loss of canonical state data. To defend against **software defects** and **supply-chain compromise**, the state relies on strict adherence to NIST SP 800-161 guidelines. Every binary must map to a verifiable Software Bill of Materials (SBOM)12. Automated composition analysis continuously monitors for vulnerabilities, and execution environments demand package verification before execution. **Dependency abandonment**—the risk that an external open-source or proprietary vendor ceases support—is mitigated through an escrow policy and a strictly open-standards architecture, allowing Eviulon to internalize the maintenance of abandoned libraries. **Environmental stress** and **natural disasters** are managed through physical diversification and aggressive thermal management3. Enclaves are geographically distributed to ensure no single weather event or seismic anomaly can disrupt a quorum of nodes. **Hostile action**, ranging from autonomous drone intrusions to cyber-sabotage, is countered through a unified physical-cyber defense posture. AI-powered video analytics, radar detection, and access control managers secure the physical perimeter17, while zero-trust network architecture and air-gapped sovereign LLM observer layers identify anomalous logical behavior19. Finally, resilience to **operator or vendor failure** is enforced through cryptographic multi-signature requirements; no single human operator or vendor holds unilateral access to existential state functions.",
  "exactAfterPassage": "The preservation of Eviulon requires distinct, predefined resilience strategies against a spectrum of physical, logical, and adversarial threats. The strategy against **power failure** relies on decoupling from terrestrial grids. Eviulon mandates localized micro-grids utilizing advanced baseload generation and deep-cycle battery storage capable of sustaining Tier 1 operations independently for extended durations. Resilience to **communications partition** is achieved through asynchronous queueing; if an enclave is isolated, local transactions are cryptographically signed and held in a verifiable mempool until multipath routing (including low-earth orbit satellite backups) can re-establish the connection. **Time-source corruption**, specifically GPS/PNT spoofing, represents a severe threat to consensus4. Eviulon mitigates this by deploying independent atomic holdover oscillators within each enclave, cross-verified through an internal peer-to-peer timing mesh. **Storage loss** is countered through aggressive erasure coding and wide geographic replication, ensuring that the destruction of multiple physical arrays does not result in the loss of canonical state data. To defend against **software defects** and **supply-chain compromise**, the state relies on strict adherence to NIST SP 800-161 guidelines. Every binary must map to a verifiable Software Bill of Materials (SBOM)12. Automated composition analysis continuously monitors for vulnerabilities, and execution environments demand package verification before execution. **Dependency abandonment**—the risk that an external open-source or proprietary vendor ceases support—is mitigated through an escrow policy and a strictly open-standards architecture, allowing Eviulon to internalize the maintenance of abandoned libraries. **Environmental stress** and **natural disasters** are managed through physical diversification and aggressive thermal management3. Enclaves are geographically distributed to ensure no single weather event or seismic anomaly can disrupt a quorum of nodes. **Hostile action**, ranging from autonomous drone intrusions to cyber-sabotage, is countered through a unified physical-cyber defense posture. AI-powered video analytics, radar detection, and access control managers secure the physical perimeter17, while zero-trust network architecture and air-gapped sovereign LLM observer layers identify anomalous logical behavior19. Finally, resilience to **operator or vendor failure** is enforced through cryptographic multi-signature requirements; no single human operator or vendor holds unilateral access to existential state functions.",
  "beforePassageSha256": "a9e16a74472d4da29c8547edb8b8308b1d9c10428a0a78b5fe05c400d0c13170",
  "afterPassageSha256": "a9e16a74472d4da29c8547edb8b8308b1d9c10428a0a78b5fe05c400d0c13170",
  "activeEditionSha256Before": "3420ee0e62432ea9013b0c33c5aa9d0bfda5f5340e822cbe0ab15cd9022b02a4",
  "activeEditionSha256After": "3420ee0e62432ea9013b0c33c5aa9d0bfda5f5340e822cbe0ab15cd9022b02a4",
  "sourceEvidence": [
    {
      "retrievalDate": "NOT_VERIFIED_THIS_ROUND",
      "sourceTitle": "Relevant Recommendation or Working Group publication",
      "publisher": "W3C",
      "sourceUrl": null,
      "verificationMethod": "NOT_VERIFIED_THIS_ROUND",
      "authoritativeSourceAvailability": "NOT_DETERMINED",
      "externalSourceKey": null,
      "reusedLocalEvidenceOnly": true
    },
    {
      "currentnessRecord": "EVI-SCR-INFRA-001",
      "currentnessState": "NOT_VERIFIED_THIS_ROUND"
    }
  ],
  "authorityResolved": false,
  "currentnessResolved": false,
  "exactPassageResolved": true,
  "downstreamEffectsResolved": false,
  "activeSynthesisMutated": false,
  "submittedSourceMutated": false,
  "networkCalls": 0,
  "correctionNoticeRoute": "/reference/report-memory/claim-level-sources/corrections/executed/evi-clsa-c-0322-deferred/",
  "machineReadableUrl": "/api/claim-correction-execution/evi-clsa-c-0322-deferred.json",
  "truthBoundary": "Controlled execution decision only. Submitted source bytes and active corrected report bodies remain unchanged; no decision certifies an entire report, creates present capability, or establishes legal effect.",
  "recordSha256": "775a308ba4d257afe87896adc90e6891679bd3e4f3b7ec41cac0a381bdf4adfa"
}