Every instruction follows from live geometry and aircraft state.
No triggers.
No
approximations. No scripts.
When an aircraft is on final approach, VibePilot isn't checking a list of conditions.
It's continuously resolving geometry: cross-track error, heading delta,
corridor containment - deriving runway intent directly from those constraints.
This is what makes stable ATC behavior possible:
the controller isn't reacting to triggers, it's reading a live spatial picture.
The five principles that govern how VibePilot earns the right to act.
A controller's voice is a consequence, not a cause. No instruction is issued until the aircraft's geometric position is verified and held.
Telemetry becomes state. State becomes geometry. Geometry becomes judgment. No layer assumes authority before the one beneath it has earned trust.
Knowing where an aircraft is and knowing what that position means are different questions. Controller logic cannot engage until both are resolved.
The same conditions must always produce the same spatial truth. Repeatability is not optimization. It is the condition under which everything else holds.
VibePilot does not expand by accumulation but by proof. Each new layer is permitted only after the one beneath it has demonstrated it can carry operational weight.
Lineup, runway crossing, backtrack, departure roll. The transition from taxiing to takeoff is a surface geometry problem — and the foundation everything else builds on.
From rotation to departure handoff: runway heading conformance, climb tracking, and conflict scan against arriving traffic. Architecturally cheap — the geometry is already built.
SID outbound and STAR inbound: fix-sequence tracking with altitude constraints. A SIDEngine and STAREngine, analogous to the RISEngine but for procedural navigation.
Altitude conformance, route tracking, conflict scan. Geometrically the simplest phase — but requiring a full flight plan model before controller logic can act on it.
A FlightPhase model covering the entire lifecycle: pushback → taxi → lineup → climb → SID → enroute → STAR → approach → rollout → gate. Each phase maps to a controller role, a geometry engine, and an instruction vocabulary.
Updates only when the system meaningfully evolves. Surface intent logic is currently being validated before broader control layers begin.
Signal, not noise. Each update reflects actual system maturity.
X-Plane 12 first. MSFS follows after core maturity.