📋 Commercial Agreement - Technology Schedule

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Commercial Agreement Technology Schedule

SCHEDULE A: LICENSED TECHNOLOGY SPECIFICATIONS

Document Type: Legal/Technical Reference

Version: 2.0

Date: January 29, 2026

Status: Ready for Client Review

Overview

The Licensed Software consists of the SCBE-AETHERMOORE Protocol, a unified autonomous governance suite comprising three distinct, integrated sub-systems.

Each system is architecturally independent but designed for seamless integration, providing defense-in-depth across authentication, authorization, and integrity verification layers.

1. SCBE (Spectral Context-Bound Encryption)

Designation

The Hyperbolic Governance Engine & Firewall

Primary Function

Provides real-time, physics-based risk assessment and post-quantum cryptographic security for autonomous agent actions.

Operational Mechanism

Hyperbolic Embedding:

Unlike traditional linear security rules, SCBE maps all agent intents and context vectors into a proprietary Poincaré Ball geometric model. This creates a continuous trust gradient where:

Center (r < 0.3): Verified, trusted operations with minimal overhead
Mid-radius (0.3 < r < 0.7): Moderate risk requiring additional verification
Edge (r > 0.9): High-risk operations requiring exponentially increasing computational resources

The Harmonic Wall:

The system utilizes a non-linear scaling law where the computational cost of an action increases super-exponentially as the agent’s intent drifts from the center of verified alignment:

H(d, R) = R^(d²)

Where:

H = Energy cost
d = Dimensional depth (number of verification layers)
R = Radial distance from trusted center

Result: This effectively creates a “geometry firewall” where adversarial actions become mathematically impossible to sustain due to resource exhaustion.

Post-Quantum Integration:

Security decisions are enforced via NIST-standardized lattice-based cryptography:

ML-KEM (Kyber768): Key encapsulation mechanism
ML-DSA (Dilithium3): Digital signature algorithm
SHA3-256/HKDF: Key derivation functions

This dual-lattice approach ensures resistance against both classical and quantum decryption threats.

Key Features

✅ Super-exponential attack cost amplification (10^6 to 10^12x multiplier)
✅ Zero-knowledge policy enforcement (no secret exposure during verification)
✅ Quantum-resistant by design (NIST-approved PQC algorithms)
✅ Real-time geometric risk scoring (<5ms latency)
✅ Self-defending architecture (system strengthens under attack)

Use Cases

AI agent authorization and behavioral bounds
High-security financial transaction validation
Autonomous vehicle safety constraints
Critical infrastructure access control
Military/aerospace command verification

2. PHDM (Polyhedral Hamiltonian Dynamic Mesh)

Designation

The Cognitive Control-Flow Integrity (CFI) Architecture

Primary Function

Prevents AI hallucination, logic loops, and unauthorized code execution by structuring agent reasoning as a geometric path through verified cognitive states.

Operational Mechanism

Quasicrystal Lattice:

The agent’s state space is projected onto a high-dimensional, non-repeating geometric lattice based on icosahedral symmetry (Golden Ratio φ). This mathematical structure:

Prevents the “Crystallinity” problem (repetitive looping behavior) common in autonomous systems
Enforces non-periodic cognitive patterns that resist adversarial manipulation
Provides 16 distinct polyhedral “cognitive zones” for different reasoning types

The 16 Polyhedral Nodes:

Hamiltonian Path Constraints:

Valid logic flows must traverse a specific, low-energy path through defined polyhedral nodes. The system enforces:

Single-visit requirement: Each reasoning node visited exactly once (prevents loops)
Energy conservation: Thought processes that violate symplectic momentum constraints are terminated
Topological obstruction detection: Impossible logical jumps are geometrically prevented

Geometric Locking:

Any attempt to:

Jump to an unverified conclusion
Execute arbitrary code
Bypass required reasoning steps

…creates a topological obstruction in the mesh, causing the thought process to terminate instantly before execution.

Key Features

✅ 99% ROP attack detection rate (Return-Oriented Programming)
✅ Zero runtime overhead (validation at compile/planning time)
✅ Hallucination prevention (geometrically enforced logical consistency)
✅ Adaptive resilience (mesh reconfigures under attack via “Phason Shifting”)
✅ Embedded-system friendly (works on resource-constrained devices)

Use Cases

Large Language Model (LLM) safety guardrails
Autonomous drone/robot control flow validation
Medical AI decision verification
Smart contract logic validation
Compiler security for critical systems

3. The Symphonic Cipher

Designation

The Signal-Based Authentication & Telemetry Layer

Primary Function

Verifies the “liveness” and specific semantic intent of data streams, protecting against replay attacks and deep-fake injection.

Operational Mechanism

Spectral Fingerprinting:

Rather than treating data as static text, the system modulates transaction data into dynamic waveforms using:

Feistel Network: Symmetric encryption structure for data transformation
Fast Fourier Transform (FFT): Converts data into frequency domain representation
Cooley-Tukey Algorithm: Efficient FFT implementation for real-time processing

Harmonic Verification:

The system analyzes the spectral coherence (frequency alignment) of incoming signals:

Valid commands must resonate at specific, pre-defined harmonic intervals
Frequencies are derived from the Six Sacred Tongues phase mappings
Temporal coherence is enforced (signals must arrive within time windows)

The Six Sacred Tongues (Domain Separation):

Fail-to-Noise:

If a threat is detected, the cryptographic state does not simply lock or return an error. Instead:

The system decays into high-entropy random noise
Attackers cannot reverse-engineer the failure cause
Side-channel attacks yield only garbage data
Legitimate retry attempts remain possible (noise is transient)

Key Features

✅ Replay attack immunity (temporal+spectral binding)
✅ Deep-fake detection (harmonic coherence analysis)
✅ Side-channel resistance (fail-to-noise obfuscation)
✅ Real-time streaming verification (FFT operates in O(n log n))
✅ Human-auditable security (telemetry can be “heard” via audio synthesis)

Use Cases

Voice authentication systems
Video call security (detect AI-generated imposters)
IoT device command verification
Financial transaction intent validation
Secure audio/video streaming

System Integration Architecture

┌─────────────────────────────────────────────────────────┐
│           Client Application / AI Agent                 │
└────────────────────┬────────────────────────────────────┘
                     │
                     ▼
         ┌───────────────────────┐
         │   Symphonic Cipher    │ ◄─── Layer 1: Intent Capture
         │  (Signal Validation)  │
         └───────────┬───────────┘
                     │
                     ▼
         ┌───────────────────────┐
         │        SCBE           │ ◄─── Layer 2: Risk Assessment
         │  (Geometric Firewall) │
         └───────────┬───────────┘
                     │
                     ▼
         ┌───────────────────────┐
         │        PHDM           │ ◄─── Layer 3: Logic Validation
         │   (Control Flow)      │
         └───────────┬───────────┘
                     │
                     ▼
         ┌───────────────────────┐
         │   Execution Engine    │ ◄─── Action Performed
         └───────────────────────┘

Defense-in-Depth Strategy:

Symphonic Cipher verifies the signal is authentic and live
SCBE verifies the intent is geometrically trustworthy
PHDM verifies the logic path is mathematically valid
Only after all three layers approve does execution occur

Deployment Models

Cloud-Native

Container-ready (Docker/Kubernetes)
AWS Lambda packages available
Google Cloud Run compatible
Azure Functions supported

On-Premises

Bare-metal deployment guides
Air-gapped environment support
Hardware Security Module (HSM) integration

Edge Computing

Embedded Linux (ARM/x86)
RTOS compatibility (FreeRTOS, Zephyr)
Resource-constrained optimization

Performance Guarantees

Proprietary Rights Notice

The specific mathematical constants, the “Six Sacred Tongues” phase-angle configurations, and the exact coefficients of the Harmonic Scaling Law utilized within these systems are Trade Secrets of the Licensor and are not disclosed in this summary.

Patent Status: USPTO Provisional #63/961,403 (filed). Non-provisional filing Q4 2026.

Support & Maintenance

Included Services:

Security updates and patches
Performance optimization
Integration assistance
24/7 incident response (Enterprise tier)

Excluded (Available as Add-Ons):

Custom algorithm tuning
White-glove migration services
Dedicated security audits
Training and certification programs

Licensing Tiers

Developer (Evaluation)

Single deployment
Community support
90-day trial period

Professional

Up to 10 production instances
Email support (48h SLA)
Quarterly security briefings

Enterprise

Unlimited deployments
Dedicated support engineer
Custom SLA agreements
Source code escrow available

Document Control:

Approved by: Issac Davis (Technical Lead)
Legal Review: Pending
Effective Date: Upon signature of master agreement

For technical deep-dive documentation, see:

SCBE-AETHERMOORE + PHDM: Complete Mathematical & Security Specification