Developing headless edge-node telemetry architecture to continuously map the relationship between spatial operant extinction and microglial phagocytosis.
Establishing the fundamental biobehavioral mechanisms linking unpredictable environmental extinction schedules to cognitive decay and cortisol neurotoxicity within multi-subject shared environments.
Quantifying spatial memory as a covert behavior vulnerable to environmental modification, bridging traditional operant conditioning with advanced neuroendocrinology.
Tracking high-fidelity shifts in vagal baseline and sympathetic arousal (RMSSD) to map the physiological toll of unpredictable behavioral extinction in real time.
Utilizing localized micro-controllers (Raspberry Pi integration) to process autonomic data instantly in the field, ensuring zero latency and absolute data sovereignty without cloud reliance.
Proprietary mobile application infrastructure engineered to capture, synchronize, and analyze continuous heart rate variability (HRV) streams from clinical-grade sensors like the Polar H10.
Internal academic release detailing the biobehavioral telemetry framework, pack dynamics, sociality, and foundational models of covert memory extinction.
Field deployment of the telemetry system in non-verbal subjects. Empirical biometric data collection focusing on spatial behavioral assessment and continuous RMSSD tracking.
Scaling the BIOperant architecture for human clinical trials. Establishing neurological baselines and tracking real-time autonomic shifts during environmental operant conditioning.