Problem
Space-based hardware is subject to extreme thermal cycling, radiation-induced bit-flips, and mechanical wear. Traditional maintenance relies on "scheduled replacement" or "ground-control intervention," both of which are unsustainable for deep-space colonies where communication latency is high and spare parts are limited.
The FDSR matters because it functions as the Immune System of the colony. It transforms the STC from a static builder into a self-healing organism, capable of identifying a failing bearing or a solar-cell degradation before it leads to a catastrophic system-wide blackout.
Solution
The FDSR is the Resilience Layer of the STC. It monitors the health of all other modules to ensure operational longevity.
- Consumes: Real-time telemetry from the Auto Constructor (3.5) and environmental sensor data from the PSA (3.1).
- Produces: Diagnostic reports, isolation commands, and "Maintenance Orders" for the Task Allocator (3.6).
- Interfaces: Triggers the Resource Planner (3.4) to manufacture replacement parts when a failure is predicted.
Method
The system architecture utilizes a Proactive Maintenance approach:
- Digital Twin Synchronization: Comparing real-time telemetry against a "high-fidelity virtual model" to detect subtle deviations in performance.
- Bayesian Root-Cause Analysis: Using probabilistic graphical models to trace an anomaly (e.g., voltage drop) to its most likely cause (e.g., dust accumulation vs. hardware failure).
- Isolation & Remediation: Implementing "Fail-Soft" protocols—isolating compromised circuits or modules to protect the rest of the infrastructure while repair is pending.
Tools & Technologies
Diagrams / Visuals
[System Architecture: NA]
Results & Outcomes
This project is in the planning phase. No active codebase exists.
Current Focus: NA
Next Steps
- To be confirmed.