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≥50% MTTR Reduction
Under High-Loss Conditions

Sustaining Industrial Operations in Disconnected Environments

H1: Resilience
≥50%
Edge-First MANET with Probabilistic Trust Scores (Γ) reduces MTTR compared to centralized cloud-auth under 20% packet loss
H2: Security Tax
+15%
Zero-Knowledge Proofs provide significantly higher System Trust Scores during adversarial injection, with controlled latency penalty
H3: Scalability
Non-Linear
MTTR for ZKP-based arbitration scales exponentially with Node Density due to cryptographic verification queuing

How SentryC2 Maintains Trust Without the Internet

Traditional systems stop working when they lose internet connection because they can't verify if devices are authorized. SentryC2 solves this by letting devices trust each other directly, using a smart scoring system that adapts in real-time.

Trust Score
Every device gets a "trust score" that shows how reliable it is. The score goes up when devices verify each other successfully, and slowly decreases over time if there's no activity. Think of it like a credit score for machines.
Example: A factory robot starts at 50% trust. After successful verifications, it reaches 95% and stays operational even during internet outages.
Network Recovery
When network connections break, traditional systems take minutes or hours to recover. SentryC2 recovers in under half a second by using local mesh connections instead of waiting for cloud servers.
Example: Internet goes down at 2:00 PM. Cloud systems halt by 2:15 PM. SentryC2 continues running with 500ms recovery.
Mesh Synchronization
Devices communicate directly with nearby devices to share trust information, creating a "mesh network." This means authorization works even when the internet is completely offline.
Example: 10 devices on a factory floor stay synchronized with each other locally, updating trust scores every few seconds.
Uptime Availability
System availability measures how much time your operations actually run. SentryC2 maximizes this by eliminating dependencies on unreliable cloud connections and minimizing recovery time.
Example: Cloud-dependent systems: 85% uptime. SentryC2 with edge-first design: 99%+ uptime during the same network conditions.

Real-World Application Scenarios

Manufacturing Floor

Industrial Sprint Tier

Automotive assembly line experiences ISP outage during second shift. Cloud-based authorization server becomes unreachable. Without SentryC2, all robotic systems halt within 15 minutes as OAuth tokens expire.

  • MANET maintains authorization continuity using ECC verification
  • Production continues with <500ms authorization recovery
  • Trust scores propagate through on-premises mesh topology
  • Zero production downtime during 4-hour outage

Forward Operating Base

Tactical Fortress Tier

Defense logistics network operates in contested environment with adversarial injection attempts. Satellite uplink intermittent. Critical supply chain authorization must remain operational despite hostile conditions.

  • Schnorr ZKP provides mathematical privacy guarantees
  • Adversarial nodes detected via trust score degradation
  • Offline capability maintains mission-critical operations
  • Opportunistic cloud sync when secure channels available

Implementation Tiers

Industrial Sprint

  • Cryptography: Elliptic Curve (ECC)
  • Target MTTR: <500ms recovery
  • Use Case: Manufacturing floors, supply chain logistics
  • Environment: Standard industrial operations

Tactical Fortress

  • Cryptography: Schnorr Zero-Knowledge Proofs
  • Security: Mathematical privacy guarantees
  • Use Case: Contested environments, defense logistics
  • Environment: High-threat operational theaters

🚧 SentryC2 is in early development phase. Research collaboration and pilot program inquiries welcome.

Reach Out for Information View GitHub Repository