AI Safety Through
Architectural Constraints

Exploring the theoretical foundations and empirical validation of structural AI safety—preserving human agency through formal guarantees, not aspirational goals.

Research Focus Areas

Theoretical Foundations

Formal specification of the Tractatus boundary: where systematization ends and human judgment begins. Rooted in Wittgenstein's linguistic philosophy.

  • Boundary delineation principles
  • Values irreducibility proofs
  • Agency preservation guarantees

Architectural Analysis

Five-component framework architecture: classification, validation, boundary enforcement, pressure monitoring, metacognitive verification.

  • InstructionPersistenceClassifier
  • CrossReferenceValidator
  • BoundaryEnforcer
  • ContextPressureMonitor
  • MetacognitiveVerifier

Empirical Validation

Real-world failure case analysis and prevention validation. Documented incidents where traditional AI safety approaches failed.

  • The 27027 Incident (parameter contradiction)
  • Privacy creep detection
  • Silent degradation prevention

Interactive Demonstrations

Documented Failure Cases

The 27027 Incident

AI contradicted explicit instruction (MongoDB port 27017 → 27027) after 85,000 tokens due to attention decay. 2+ hours debugging. Prevented by CrossReferenceValidator.

Failure Type: Parameter Contradiction Prevention: HIGH persistence validation
Read full analysis →

Privacy Creep Detection

AI suggested analytics that violated privacy-first principle. Gradual values drift over 40-message conversation. Prevented by BoundaryEnforcer.

Failure Type: Values Drift Prevention: STRATEGIC boundary check
Read full analysis →

Silent Quality Degradation

Context pressure at 82% caused AI to skip error handling silently. No warning to user. Prevented by ContextPressureMonitor.

Failure Type: Silent Degradation Prevention: CRITICAL pressure detection
Read full analysis →

Research Resources

Contribute to Research

This framework is open for academic collaboration and empirical validation studies.

  • • Submit failure cases for analysis
  • • Propose theoretical extensions
  • • Validate architectural constraints
  • • Explore boundary formalization

Join the Research Community

Help advance AI safety through empirical validation and theoretical exploration.