概览

Governance Alignment Analyzer — Roadmap

The Analyzer is the interpretive engine of the GSM. This roadmap outlines the planned evolution of the module across four phases: foundation, expansion, integration, and ecosystem maturity. Each phase builds structural capability, improves clarity, and strengthens the Analyzer’s role as a substrate‑level reasoning tool for students, developers, and researchers.


Phase 1 — Foundation (Current)#

The goal of this phase is to establish the Analyzer’s core structural capabilities.

Completed or in progress#

  • Five‑axis structural vectorization
  • Invariant evaluation (behavioral, awareness, absorptive, regime‑mode)
  • Cross‑axis physics engine
  • Basin classification and stability logic
  • Transition graph and pathway definitions
  • Drift detection and coherence scoring
  • Analyzer pipeline documentation
  • Student and educator materials (worksheet + teacher guide)

Remaining tasks#

  • Expand natural‑language mapping rules
  • Add more invariant examples and edge cases
  • Improve narrative generation for analyzer outputs
  • Add initial historical profiles for testing

Phase 2 — Expansion#

This phase deepens the Analyzer’s interpretive power and broadens its applicability.

Planned additions#

  • Multi‑snapshot historical drift analysis
  • Structural comparison engine (system‑to‑system and era‑to‑era)
  • Reform impact evaluator (vector deltas + drift projection)
  • Enhanced basin diagnostics (stability gradients, ridge detection)
  • Cross‑domain adapters (economics, ecology, institutional design)
  • Expanded profile library (20–30 national systems)

Developer‑facing improvements#

  • More granular mapping rules for ambiguous descriptions
  • Modular physics rule overrides for domain‑specific use
  • Test suite for structural consistency across modules

Phase 3 — Integration#

This phase connects the Analyzer to the broader GSM ecosystem.

Integration targets#

  • Transition Simulator
  • Triadic Observer Layer (history → now → future coherence)
  • Artifact lineage tracking (structural evolution of systems)
  • Governance dashboards and dynamic cards
  • Policy DSL adapters (Adem + Javier integration)
  • Structural visualization tools (manifold maps, drift vectors, basin diagrams)

Educational integration#

  • Classroom simulation kits
  • Historical reconstruction labs
  • Comparative governance exercises
  • Instructor‑ready slide decks and examples

Phase 4 — Ecosystem Maturity#

This phase focuses on stability, extensibility, and long‑term coherence.

Long‑term goals#

  • Full substrate science canon integration (governance, economics, ecology)
  • Unified structural ontology across domains
  • Cross‑disciplinary manifold alignment
  • Public library of structural profiles (open‑source contributions)
  • Developer SDK for governance‑aware applications
  • AI‑ready structural reasoning layer for safe, non‑ideological analysis

Research directions#

  • Structural drift forecasting (non‑predictive, physics‑based)
  • Regime‑mode transitions across domains
  • Structural resilience and absorptive capacity modeling
  • Comparative substrate analysis across historical eras

Guiding principles for all phases#

  • Structure first — avoid ideology, focus on architecture.
  • Substrate honesty — describe systems as they are, not as they are perceived.
  • Modularity — each component should evolve independently without breaking others.
  • Clarity — every rule, vector, and mapping must be interpretable by students.
  • Extensibility — future contributors should be able to build on this work easily.
  • Coherence — all changes must align with GSM invariants and manifold physics.

How contributors can help#

  • Add or refine mapping rules
  • Propose new invariants or physics interactions
  • Contribute historical profiles
  • Improve documentation and examples
  • Build adapters for new domains
  • Test drift behavior and basin classification
  • Suggest structural refinements to the manifold or basins

Updated