Abstract
This paper introduces a framework designed to enhance training effectiveness by creating next-generation simulation environments that replicate complex operational tasks. Central to the framework is the collection and integration of neurological and behavioral data to assess how immersion and realism influence learning outcomes. The approach systematically utilizes physiological signals—such as heart rate variability, skin conductance, and eye-tracking metrics—in combination with real-time cognitive monitoring and behavioral evaluations to generate comprehensive individual performance profiles.
The framework employs these physiological indicators to provide real-time feedback, enabling precise adjustments to training interventions tailored to each individual's needs. Initial experiments have demonstrated the framework's capability to accurately forecast performance outcomes, offering actionable insights for recruitment and personalized training design. However, testing has primarily been conducted in controlled settings with a limited selection of physiological metrics.
Given substantial improvements in reliability of physiological monitoring tools since their earlier usage in programs like the Office of Naval Research's efforts in Augmented Cognition, revisiting and refining this integrated approach is now feasible and essential. The proposed framework identifies specific areas requiring improvement, supports real-time neuro-physiological adjustments, and optimizes individual trainee performance. By aligning training methods with operational needs, the framework enhances efficiency and resource allocation, directly supporting the Department of Defense’s objectives for increased readiness and operational lethality.
