biophysical_prophylaxis_thesis

Autistic over-activation states, conventionally categorized into sensorimotor meltdowns
(sympathetic nervous system surges) or shutdowns (dorsal vagal immobilization), are
traditionally managed via cognitive-behavioral, educational, or sensory-deprivation
paradigms. This paper presents an alternative biophysical approach to autonomic self
regulation. Through a 7-month longitudinal single-subject case study, we demonstrate that the
proactive use of a high-mass (3 kg) vertical aircraft-aluminum structure acts as an external
capacitive sink, stabilizing autonomic nervous system fluctuations before they cross critical
behavioral thresholds. Strikingly, longitudinal observation reveals a secondary neuroplastic
effect: over the 7-month experimental timeline, the target organism exhibited autonomous
neurological adaptation, increasingly incorporating the regulatory loop into internal
processes. As a consequence of this homeostatic conditioning, the subject developed long-term
self-regulation capabilities, drastically reducing reliance on the physical apparatus. This
suggests that high-mass conductive interfaces not only serve as effective acute external buffers
but can actively catalyze long-term autonomous neuro-somatic restructuring.