MI01 · Military Industry
Military Human Factors
How do attention, cognitive load, perception and decision-making affect performance during a military task?
Military human factors measured in the task, not inferred after it.
Military human factors measured in the task, not inferred after it.Military Human Factors
How do attention, cognitive load, perception and decision-making affect performance during a military task?
Military IndustryEye Tracking GlassesEye Tracking VREEG optional in advanced VRMilitaryHuman Factors
FIELDMilitary Industry
EXECUTIONIn-person execution
TECHNOLOGY PATHEye Tracking Glasses · Eye Tracking VR · EEG optional in advanced VR · GSR optional
STUDY CODEMI01
The research question
How do attention, cognitive load, perception and decision-making affect performance during a military task?
Military Human Factors is the military counterpart of Industrial Human Factors. It examines how personnel interact with information, equipment, interfaces, procedures and the operational environment, identifying overload, omissions, delayed responses, situational-awareness losses and human-system bottlenecks before they become operational errors.
Real operational environmentTraining environmentSimulatorVR
Technology configuration
Measurement follows the task
The technology path shown here is the approved structure for this service. The exact protocol is configured around the research question, environment and participant flow.
Real, training and simulator tasks.
Immersive tasks requiring synchronized visual-attention and neurophysiological measurement.
Added when the protocol requires physiological activation / stress measurement.
Typical protocol · Military Industry
How this study is executed.
The protocol below reflects the service definition developed for Neuro Garage. Final details are confirmed before execution.
Define the military task, information sources, decision points and potential human-system frictions.
Execute the task in the real environment, training setting, simulator or VR.
Capture visual attention and, when selected, synchronized EEG / GSR across the same task timeline.
Identify overload, errors, omissions, response delays, information-prioritization failures, situational-awareness losses and interaction bottlenecks.
Translate the evidence into recommendations for procedures, training, interfaces / equipment and task design.
Typical outputs
What this specific study can produce
01Cognitive overload points
02Errors
03Omissions
04Response times
05Visual-attention sequence
06Workload indicators
07Operational bottlenecks
08Information prioritization
09Situational awareness
10Response to unexpected events
Decisions supported
What the client can change with the evidence
The study is designed to translate observed behavior into concrete operational, people, design or risk-management decisions.
Industry references / comparable applications
Who has used comparable research approaches?
Publicly documented examples from companies and institutions worldwide. These organizations are not presented as Neuro Garage clients, and the examples do not imply they purchased this exact Neuro Garage protocol.
01
U.S. active-duty service-member researchPublic precedent
Published work used eye tracking and EEG to examine situational awareness during virtual navigation under cognitive load.
View public source ↗02NASA Langley Research CenterPublic precedent
Operator-state and human-performance research using eye tracking and psychophysiological measures in aviation contexts.
View public source ↗03OHB SwedenPublic precedent
Mission-control research on workload, visual behavior, task familiarity and interface use in satellite operations.
View public source ↗Scientific configuration
The method follows the question
Technology is selected because it is scientifically appropriate for the research objective, not because a device must be used. Santiago configures the study scope, stimuli, participant flow and measurement path before execution.
Discuss this study