π‘οΈ Archetype 3: MGE (Mathematical Governance Engine)
Certus Securitas Ex Machina β Deterministic AI governance through cryptographic mathematics.
MGE is part of Mathematical Autopsy (MA)βit is the rules engine for MA. The MA methodology (math first, invariants, notebooks, CI) defines what must be proven; MGE is the engine that evaluates governance rules, issues cryptographic receipts, and enforces policy at runtime. So MA and MGE are one story: methodology plus rules engine.
π Visionβ
Replace probabilistic AI safety with mathematical certainty. Instead of hoping AI follows rules, MGE provides cryptographic proof that every AI action complies with governance requirements.
Why MGE (design rationale)β
Across TAI and AIVA we aim for determinism, auditability, and fail-closeβnot βthe model will probably behave.β Governance is no exception: we donβt want βmaybe it followed the policyβ; we want proof. MGE is the layer that turns governance into math: every decision is checked against rules before execution, and every outcome is signed (cryptographic receipt). That gives us: (1) pre-execution enforcementβviolations are blocked, not just logged; (2) tamper-evident auditβreceipts bind decision to rules and timestamp; (3) one governance plane for both TAI and AIVA, so policy is consistent and auditable across archetypes. Same philosophy as lattice axioms and RFS field theory: provable, not probabilistic.
MGE serves as the mathematical immune system for AI, providing:
- Cryptographic Receipts: Tamper-proof proof of compliance for every decision
- Deterministic Enforcement: Mathematical guarantees, not statistical approximations
- Enterprise Scale: Sub-millisecond governance checks for high-throughput AI systems
- Cross-Archetype Security: Protects both TAI and AIVA systems with unified governance
π― What Makes MGE Differentβ
The Problem with Current AI Safetyβ
Traditional AI safety relies on:
- β Probabilistic models that might fail
- β Post-hoc monitoring that can't prevent violations
- β Statistical approximations that lack mathematical rigor
- β Manual oversight that doesn't scale
The MGE Solutionβ
MGE provides:
- β Cryptographic certainty - Every decision is mathematically signed
- β Pre-execution validation - Blocks violations before they occur
- β Mathematical proofs - Formal verification of governance rules
- β Automated enforcement - Scales to millions of decisions per second
ποΈ Architectureβ
Core Componentsβ
βββββββββββββββββββ ββββββββββββββββββββ βββββββββββββββββββ
β AI System β β MGE Service β β Decision β
β (TAI/AIVA) ββββββ (Sidecar) ββββββ Receipt β
β β β β β β
β 1. Action β β 2. Evaluate β β 3. Signed β
β Request β β Rules β β Decision β
βββββββββββββββββββ ββββββββββββββββββββ βββββββββββββββββββ
β
βΌ
ββββββββββββββββββββ
β Execution β
β Layer β
β β
β 4. Verify β
β Receipt β
ββββββββββββββββββββ
Rule Engineβ
MGE supports multiple rule formats for different use cases:
MDC Format (Human-Readable)β
---
description: "Production database access control"
category: "data_governance"
alwaysApply: true
---
# Database Access Control
**Rule ID:** `db-access-control`
## Prohibited
- Direct database modifications in production
- Raw SQL queries from application code
## Required
- All database operations must use ORM
- Connections must use SSL/TLS encryption
YAML Format (Structured)β
rule_id: "api-rate-limiting"
name: "API Rate Limiting"
description: "Prevent API abuse through rate limiting"
category: "security"
conditions:
- type: "rate_limit_check"
parameters:
requests_per_minute: 1000
burst_limit: 100
JSON Format (Programmatic)β
{
"rule_id": "data-encryption",
"name": "Data Encryption Policy",
"description": "Require encryption for sensitive data",
"category": "security",
"conditions": [
{
"type": "encryption_required",
"parameters": {
"algorithms": ["AES-256-GCM", "ChaCha20-Poly1305"],
"key_rotation_days": 90
}
}
]
}
Cryptographic Receiptsβ
Every MGE decision includes a cryptographic receipt:
{
"decision_id": "dec-1234567890",
"approved": true,
"reasoning": "All rules passed",
"rule_ids": ["security-baseline", "user-access"],
"timestamp": "2024-01-15T10:30:00Z",
"receipt": {
"signature": "hmac-sha256-signature",
"nonce": "unique-cryptographic-nonce",
"decision_hash": "sha256-hash-of-decision"
}
}
π Performance & Scaleβ
Benchmarksβ
- Latency: < 1ms per governance check
- Throughput: 10,000+ checks/second per instance
- Scale: Horizontally scalable across multiple instances
- Reliability: 99.999% uptime with automatic failover
Enterprise Featuresβ
- Multi-tenant isolation - Separate governance domains
- High availability - Automatic failover and load balancing
- Audit trails - Complete decision history with receipts
- Performance monitoring - Real-time metrics and alerting
π§ Integration Optionsβ
Direct API Integrationβ
import httpx
import asyncio
async def check_governance(action, context):
async with httpx.AsyncClient() as client:
response = await client.post(
"http://mge-service:8080/api/v1/governance/check",
json={"action": action, "context": context}
)
decision = response.json()
if decision["approved"]:
# Execute action with receipt verification
await execute_with_receipt(action, decision["receipt"])
else:
raise SecurityError(decision["reasoning"])
SDK Integrationβ
For comprehensive SDK documentation and examples, see the MGE SDK documentation (on this site or on request).
from mge_sdk import MGEClient
# Initialize client
client = MGEClient("http://mge-service:8080")
# Check compliance
decision = await client.check_compliance(action, context)
if decision.approved:
# Action is approved with cryptographic proof
await execute_action(action)
else:
# Action blocked with clear reasoning
log_security_violation(decision)
SDK Resources:
- Installation Guide - Get started with the SDK (available with MGE licensing)
- API Reference - Complete SDK documentation
- Integration Guide - Integration patterns and best practices
- Rule Creation Guide - Creating custom governance rules
Sidecar Deploymentβ
# Kubernetes sidecar configuration
apiVersion: v1
kind: Pod
metadata:
name: ai-with-mge
spec:
containers:
- name: ai-application
image: my-ai-app:latest
- name: mge-sidecar
image: registry.smarthaus.ai/mge-core:latest
ports:
- containerPort: 8080
env:
- name: MGE_SECRET_KEY
valueFrom:
secretKeyRef:
name: mge-secrets
key: secret-key
π― Use Casesβ
Enterprise AI Governanceβ
Challenge: Large organizations need to ensure AI systems comply with corporate policies, regulatory requirements, and security standards.
MGE Solution:
- Automatic enforcement of governance policies
- Cryptographic audit trails for compliance reporting
- Real-time blocking of policy violations
- Integration with existing enterprise security systems
Critical Infrastructure Protectionβ
Challenge: AI systems controlling power grids, transportation, and healthcare must guarantee safety.
MGE Solution:
- Mathematical safety guarantees for AI decisions
- Cryptographic proof of compliance for regulators
- Real-time validation of safety-critical actions
- Integration with SCADA and industrial control systems
Development Workflow Securityβ
Challenge: Development teams need to maintain security while enabling rapid iteration.
MGE Solution:
- Automated security gate enforcement in CI/CD
- Cryptographic signing of deployment decisions
- Real-time validation of infrastructure changes
- Integration with existing DevSecOps pipelines
π¦ MGE on this siteβ
MGE (Mathematical Governance Engine) is documented on this site. Documentation, installation guides, SDK for custom governance rules, and core service implementation are available; contact SmartHaus for access and licensing.
π Relationship to Other Archetypesβ
MGE provides governance across all SMARTHAUS archetypes:
Securing TAI (Personal Assistant)β
- Voice interaction safety - Validates all voice commands
- Memory access control - Governs what TAI can remember/learn
- External API calls - Validates third-party integrations
- User privacy - Enforces data handling policies
Securing AIVA (Triadic System)β
- Biology layer - Governs neural network operations
- Chemistry layer - Validates symbolic transformations
- Physics layer - Controls particle-based computations
- Inter-layer communication - Secures cross-layer data flow
Integration with RFSβ
- Field access control - Governs what can be stored/retrieved
- Query validation - Ensures safe field operations
- Energy conservation - Validates mathematical properties
- Resonance safety - Prevents unsafe field interactions
π‘οΈ Security Modelβ
Cryptographic Guaranteesβ
- Receipt Integrity: HMAC-SHA256 signatures prevent tampering
- Decision Binding: Receipts are cryptographically bound to decisions
- Nonce Protection: Prevents replay attacks
- Timestamp Validation: Ensures temporal integrity
Access Controlβ
- Role-Based Access: Fine-grained permissions for rule management
- API Key Authentication: Secure service-to-service communication
- OAuth Integration: Enterprise identity provider support
- Multi-Tenant Isolation: Separate governance domains
Audit & Complianceβ
- Complete Audit Trail: Every decision logged with cryptographic proof
- Regulatory Compliance: Supports SOC 2, PCI DSS, HIPAA requirements
- Data Retention: Configurable audit log retention policies
- Export Capabilities: Audit data export for compliance reporting
π Getting Startedβ
Quick Startβ
- Get MGE: Contact SmartHaus for enterprise licensing
- Deploy Service: Use Docker or Kubernetes manifests
- Configure Rules: Use MGE SDK or direct API to define policies
- Integrate Systems: Add governance checks to your AI applications
- Monitor: Set up monitoring and alerting for governance metrics
Development Setupβ
Contact SmartHaus for access to MGE core and SDK. Installation and development setup guides are provided with licensing.
Rule Developmentβ
from mge_sdk import RuleBuilder
# Create a custom security rule
builder = RuleBuilder()
builder.create_rule(
rule_id="my-security-policy",
name="Custom Security Policy",
category="security"
)
builder.add_condition(
rule_id="my-security-policy",
condition_type="file_access_control",
parameters={"allowed_paths": ["/safe/*"], "blocked_extensions": [".exe"]}
)
# Export to MDC format
mdc_content = builder.to_mdc("my-security-policy")
with open("my-rule.mdc", "w") as f:
f.write(mdc_content)
π Documentationβ
Installation, integration, API reference, SDK documentation, rule formats (MDC, YAML, JSON), and rule creation guides are available with MGE licensing. Contact SmartHaus for access.
π€ Support & Communityβ
Enterprise Supportβ
- 24/7 Technical Support - Round-the-clock for licensed customers
- Dedicated Solutions Architect - Technical guidance and best practices
- Custom Integration Support - Assistance with complex deployments
- Performance Optimization - Expert tuning for high-throughput scenarios
Community Resourcesβ
- Support - Contact SmartHaus for bug reports, feature requests, and rule development support
Contactβ
- Sales: sales@smarthaus.group
- Support: support@smarthaus.group
- Security: security@smarthaus.group
π Roadmapβ
Q1 2024: Core Releaseβ
- β Cryptographic receipt system
- β Multi-format rule engine
- β REST API with authentication
- β SDK for rule development
Q2 2024: Enterprise Featuresβ
- π Advanced audit and compliance reporting
- π Kubernetes native deployment
- π Multi-cloud integrations
- π Performance monitoring dashboard
Q3 2024: Advanced Governanceβ
- π Machine learning-based rule optimization
- π Dynamic policy adaptation
- π Cross-system governance orchestration
- π Advanced threat detection
Q4 2024: Ecosystem Expansionβ
- π Third-party integrations
- π Custom rule marketplace
- π Multi-tenant governance platforms
- π Advanced analytics and insights
MGE represents the future of AI governance: mathematical certainty, cryptographic proof, and enterprise-scale enforcement.
Contact Sales to learn how MGE can secure your AI systems with mathematical guarantees.