Defence Applications of Neuroscience
NeuroTargeted Training
Our NeuroTargeted Training (NTT) approach leverages cutting-edge neuroscience to enhance military training by identifying specific cognitive needs. Using real-time brain activity monitoring, NTT allows us to compare the brain signatures of trainees with those of experienced operators during high-stakes simulations. This comparison highlights areas of cognitive discrepancy, enabling us to pinpoint individual training needs and target them with precision. By adapting training protocols to these unique cognitive profiles, we ensure that each trainee builds the necessary skills efficiently and effectively, preparing them for the demands of real-world operations.
Pilot Evaluation Protocols
Our pilot evaluation protocol harnesses functional Near-Infrared Spectroscopy (fNIRS) to gain deep insights into cognitive workload and decision-making processes during flight simulations. By monitoring specific brain regions associated with focus, problem-solving, and stress management, we can identify patterns of brain activation that differentiate novice pilots from experts. This data-driven approach allows us to assess how effectively pilots manage complex scenarios and adapt under pressure. By capturing these cognitive signatures, we not only gauge current proficiency but also tailor individualized training plans that target areas for improvement, ultimately enhancing pilot readiness and performance in real-world conditions.
fNIRS to Evaluate Automation Technology
Our fNIRS-based approach to evaluating automation technology offers a sophisticated method for understanding how operators adapt to and interact with new automation systems. By tracking brain activity over time, we measure cognitive workload to determine the length of time required for operators to reach proficiency with new technologies. This data-driven insight not only pinpoints when full mastery is achieved but also helps identify specific operational scenarios where automation would significantly reduce mental load. This capability is particularly valuable in commissioning new weapon systems, where decisions about automation can be strategically aligned with operators’ cognitive needs, ensuring that systems are both effective and seamlessly integrated into mission-critical workflows.
