Simulation Philosophy
- Simulation Precedes Deployment: No action is taken by the STC without virtual validation.
- Testable Decisions: All planning outputs must be executable and measurable within the simulated environment.
- Interoperability over Realism: Early simulations prioritize the visibility of constraints and bottlenecks over photorealistic rendering.
- Fidelity Scales with Maturity: The complexity of physical models increases only as the STC framework stabilizes.
Hierarchy of Simulation Fidelity
1. Component-Level
Individual subsystems (e.g., motor, sensor). Focus: Unit testing.
2. Module-Level
Full structural unit (e.g., Shelter, Power Unit). Focus: Functional testing.
3. System-Level
Multiple modules interacting (e.g., Habitat + Power). Focus: Integration testing.
4. Colony-Level
Long-term growth, degradation, and scaling. Focus: Longevity analysis.
Detailed Specifications
Core Simulation Architecture
Defines the conceptual engine: State Engine, Time Manager, Physics Abstraction Layer (PAL), and Event System backbone.
Environment Models
Formalizes the world: encoding terrain, climate, hazards, resource distribution, and supporting probabilistic uncertainty by default.
Module Behavior Models
Defines how modules act in simulation: operational states, input/output flows, degradation, and failure conditions.
Resource & Energy Flows
Tracks production, consumption, storage limits, and bottlenecks for all core resources (electrical, thermal, raw materials, etc.).
Simulation is the mechanism that allows for design optimization, failure mode discovery, and the academic validation necessary for real-world transfer.