Navy explores VR to improve pilot screening standards
The Naval Aerospace Medical Institute has begun advancing its method of pilot candidate assessment by using an immersive virtual reality platform known as ASANA, which monitors cognitive response and physiological behaviour during demanding simulated tasks. Developed at Naval Air Station Pensacola by Aerospace Experimental Psychologists working alongside civilian researchers, the system is intended to strengthen traditional screening approaches by capturing subtle signs of attention, adaptability and spatial awareness that are not always visible in conventional testing environments. The project has grown from ongoing efforts to refine the Aviation Selection Test Battery, a long-standing process that helps determine which candidates continue into flight training for the Navy, Marine Corps and Coast Guard.
The platform places candidates within a virtual cockpit where movement of the eyes, rotation of the head and changes in heart rate are measured as users respond to shifting scenarios and mission requirements. Researchers involved in the effort believe this layered data could help create clearer links between virtual task performance and real-world cognitive capability. By examining how candidates respond to complex information, react to pressure and adjust to unpredictable demands, the Institute aims to build a fuller understanding of individual potential rather than relying solely on written or classroom-based evaluation.
The intention behind ASANA is to develop a far more detailed profile of how future aviators think, prioritise and process information. This additional insight is expected to support selection teams and training authorities by highlighting individuals who not only meet academic standards but also demonstrate resilience, decision-making confidence and the capacity to adapt quickly in high-risk environments. The approach reflects a broader recognition within naval aviation that modern aircraft, advanced technology and increasingly complex operational missions require a deeper appreciation of human performance.
Although the system is still in development, early findings have encouraged the Naval Aerospace Medical Institute to consider possible applications beyond the cockpit. Initial analysis has led the Pensacola team to suggest that similar virtual reality methods could eventually be used to support assessment in fields that depend heavily on technical precision, concentration and spatial reasoning. Potential beneficiaries may include air traffic controllers, aircraft maintenance specialists and other essential operational roles where safety and effectiveness rely on rapid thinking and accurate judgment.
Researchers involved in the programme have also acknowledged the collaborative effort that made ASANA possible, pointing to the combined contributions of Aerospace Experimental Psychologists, civilian scientists and partners within naval research organisations. The platform has been shaped by technical innovation, careful study design and a strong focus on producing meaningful, evidence-based insight that genuinely assists decision-makers responsible for training investment and workforce readiness.
As testing continues and data sets expand, the overarching aim remains consistent: to improve alignment between individual aptitude and assigned role, strengthening readiness across naval aviation while reducing the financial and operational cost associated with training candidates who may later withdraw or fail to progress. By combining scientific analysis with modern immersive technology, the Naval Aerospace Medical Institute is seeking to create a more informed, fair and forward-looking approach to preparing the next generation of military aviators.
