The Architecture of Catastrophe: A Structural Explanation for Endogenous Pilot Error

ABSTRACT

Aerodynamic stall remains a primary cause of commercial aviation fatalities, often driven by improper pilot responses during emergencies. Traditional safety investigations classify fatal cockpit actions through static error taxonomies, attributing accidents to individual pilot judgment. This paper challenges this view, utilizing system dynamics to model the high‐frequency, tactical interaction between pilot and the aircraft state. Representing flight as the management of interconnected potential and kinetic energy stocks, the model reveals inappropriate behavior as an endogenous outcome of the feedback architecture. Colgan Air Flight 3407 simulation results demonstrate legacy training standards inadvertently calibrated pilots with a high‐gain altitude‐balancing loop. Reaching physical stall thresholds triggers a structural phase transition creating a lethal reinforcing cycle. Findings validate shifting towards Upset Prevention and Recovery Training (UPRT), restructuring feedback priorities to favor airspeed over altitude preservation. This framework provides a structural explanation for non‐intuitive pilot actions, guiding resilient human‐machine interface design.