Real-Time Cognitive Tools for Space Systems

Abstract

This paper presents an innovative integration of real-time cognitive monitoring technologies with cognitive flexibility and awareness tools, framed within the Skill, Rule, and Knowledge (SRK) model, to enhance human performance and resilience in extreme environments. Conducted at NASA's Lunar/Martian habitat simulator at the University of North Dakota (UND), the study investigates how these advanced technologies improve cognitive readiness, decision-making, and overall mental fitness during long-duration spaceflights (LDSF).The SRK model, developed by Jens Rasmussen, categorizes human cognitive behavior into three levels—skill-based, rule-based, and knowledge-based actions—providing a structured approach to understanding and enhancing cognitive flexibility in high-stakes environments. By leveraging EEG-based monitoring and Brain-Computer Interface (BCI) technologies, this research enables dynamic, real-time assessments and interventions that are critical for maintaining cognitive control and adaptability during space missions.Traditional cognitive training and monitoring methods, which rely on periodic assessments and static protocols, fall short in providing the continuous feedback required for high-pressure scenarios. In contrast, the integrated system described in this study offers ongoing, adaptive training aligned with the SRK model, allowing for more precise and effective cognitive interventions. This approach facilitates seamless transitions between different levels of cognitive control, optimizing decision-making and preventing cognitive overload.The findings from this research have significant implications beyond space missions. The application of these cognitive tools within the SRK framework demonstrates potential for enhancing performance in other high-stakes domains, including aerospace, healthcare, and military operations, where cognitive readiness is paramount.In summary, this paper introduces a novel framework that integrates cognitive monitoring and flexibility tools within the SRK model to sustain cognitive readiness and performance in extreme environments. The results suggest that this approach not only enhances individual cognitive capabilities but also improves overall mission outcomes by reducing cognitive overload and optimizing decision-making processes, making it a valuable contribution to the field of intelligent human-system integration.

Keywords: Real-Time Cognitive Monitoring, Space Flight, Cognitive Readiness

DOI: 10.54941/ahfe1005813