๐ŸŽ– Military Aviation

Neurological Readiness Before Wheels Up

A pilot's eyes reveal what no drug test, self-report, or standard flight physical can measure. ClearGazeTest delivers 12 quantitative oculomotor biomarkers in 5 minutes โ€” detecting blast TBI, fatigue-induced impairment, G-force neurological effects, and medication risk before mission launch.

Pre-Flight Neuro Check ยท Pilot 7-Alpha
LIVE ASSESSMENT
Saccadic Latency 185 ms โœ“
Smooth Pursuit Gain 0.91 โœ“
Anti-Saccade Inhibition 58% โš 
Contrast Sensitivity โ†“22% โš 
Scotopic Visual Threshold โ†“38% โœ—
Pupil Constriction Velocity 3.4 mm/s โœ“
Convergence Accuracy 76% โš 
Fixation Micro-Instability โ†‘ Elevated โš 
โšก No existing pre-mission screening tool can detect the neurological impairment left by a single blast exposure โ€” until now.
413K+
Active duty service members
with blast-related TBI
~25%
Military aviation accidents
attributed to physiological episodes
5 min
Complete neurological
readiness screen
12
Quantitative oculomotor
biomarkers assessed

The Threats Standard Physicals Cannot See

Flight surgeons and aeromedical examiners evaluate medical fitness โ€” but no standard flight physical quantifies real-time neurological function. These threats fly undetected.

๐Ÿ’ฅ

Blast Exposure TBI

A single blast overpressure event can produce micro-vascular shear injury without any physical signs, loss of consciousness, or positive imaging. Oculomotor deficits โ€” prolonged saccadic latency, smooth pursuit breakdown โ€” are among the first measurable neurological sequelae. Standard flight physicals miss them entirely.

๐ŸŒ€

G-Force Neurological Effects

High-G maneuvers produce sustained cerebral hypoperfusion, retinal artery compression, and vestibulo-cerebellar stress. Cumulative G exposure across a flying career creates measurable oculomotor drift โ€” particularly in smooth pursuit gain and saccadic velocity โ€” that standard visual acuity screening cannot detect.

๐Ÿ˜ด

Fatigue-Induced Impairment

Sleep deprivation produces oculomotor deficits that closely mimic alcohol intoxication at 0.06โ€“0.08 BAC. Saccadic latency increases, smooth pursuit degrades, and anti-saccade error rates double after 24 hours without sleep. Pilots cannot reliably self-assess their own fatigue-induced neurological impairment.

๐Ÿ’Š

Prescription Medication Risk

CNS-active medications โ€” sleep aids (zolpidem), antihistamines (diphenhydramine), anxiolytics, and anticonvulsants โ€” suppress oculomotor function at therapeutic doses. Medication effects can persist beyond the stated label duration. Quantitative oculomotor assessment detects residual pharmacological impairment that self-report cannot.

๐ŸŒฟ

Cannabis Legalization Gap

Cannabis is now legal in most states. Blood and urine THC tests detect weeks-old exposure, not current impairment. Cannabis reduces contrast sensitivity 30โ€“50% at recreational doses โ€” critically dangerous for NVG operations and low-light approaches. ClearGazeTest detects functional impairment regardless of substance and regardless of when exposure occurred.

๐Ÿ”„

Cumulative Sub-Concussive Load

Repeated sub-threshold impacts โ€” catapult arrestment in carrier aviation, repeated blast exposure, parachute landing falls โ€” accumulate oculomotor deficits without any single event meeting clinical concussion criteria. Serial ClearGazeTest assessment tracks subtle biomarker trajectory changes across a flying career.

Built for the Full Spectrum of Military Aviation

From pre-mission readiness screening to post-incident aeromedical evaluation, ClearGazeTest integrates into the flight surgeon's workflow across every aviation platform.

AF

Air Force Fighter Bomber Aviation

Pre-mission neurological readiness screening for high-G platforms (F-16, F-22, F-35, B-2). Post-AGSM evaluation, return-to-fly assessment after G-LOC incident, fatigue protocol monitoring during high-tempo operations and ORI periods.

High-G Pre-Mission G-LOC Recovery AGSM Compliance
USN

Navy Carrier Aviation

Catapult/arrestment repetitive impact assessment, low-light approach night vision readiness (contrast sensitivity, scotopic threshold), post-arrested landing fatigue evaluation, and pre-deployment aeromedical baseline registry for longitudinal comparison.

NVG Readiness Catapult Impact Night Ops Pre-Deployment
SOF

Special Operations Aviation

Blast exposure post-incident assessment for MH-6, MH-47, and MH-60 crews. Repeated low-altitude NVG operations create progressive contrast sensitivity degradation โ€” quantified and tracked. Serial monitoring for crews in sustained high-OPTEMPO environments.

Blast TBI Low-Level NVG OPTEMPO Serial Monitoring
USMC

Marine Corps Army Aviation

Combat aviation integration for helicopter crews (AH-1Z, UH-60, CH-47) in combined arms environments. Post-combat blast screen, pre-deployment baseline, and return-to-fly clearance following IED exposure or rotary wing hard landing incidents.

Combat Aviation Hard Landing IED Exposure Return-to-Fly
FAA

Civil Aviation โ€” AME Medical Certification

Aviation Medical Examiner (AME) integration for FAA First, Second, and Third Class medical certificate evaluation. Objective oculomotor data to support Special Issuance documentation, post-accident evaluation, and fitness assessment for pilots with neurological history or medication regimens.

AME Integration Special Issuance Post-Accident Med Certification
DoD

DoD Aeromedical Research Policy

Population-level oculomotor baseline databases for military aviation communities. Research partnerships for G-force neurological impact studies, blast exposure dose-response characterization, and fatigue-induced impairment threshold development for duty hour standards.

Research Population Database Policy Support Threshold Studies

12 Biomarkers. 5 Minutes. Mission-Critical Data.

Each biomarker maps to a distinct neural circuit โ€” and each is disrupted by the specific threats military aviation faces. Together they produce an objective neurological readiness signature.

01
Saccadic Latency
Reaction time from visual stimulus to eye movement. First biomarker disrupted by blast TBI, fatigue, and sedating medication. Critical for threat acquisition timing in combat aircraft.
Threat: Blast TBI ยท Fatigue ยท Opioids ยท Sedatives
02
Peak Saccadic Velocity
Maximum eye rotation speed. Reflects brainstem excitability and cerebellar burst neuron function. Reduced velocity indicates CNS depression or cerebellar compromise from cumulative G-force or blast.
Threat: Cumulative G ยท Blast ยท Cannabis ยท Fatigue
03
Smooth Pursuit Gain
Quality of tracking a moving target. Essential for aerial tracking tasks. Degraded by alcohol, cannabis, and cortical-cerebellar dysfunction from blast or G-force hypoperfusion.
Threat: Alcohol ยท Cannabis ยท G-LOC sequelae ยท TBI
04
Corrective Saccade Rate
Frequency of catch-up saccades during tracking. Elevated rate indicates cerebellar or vestibular dysfunction. Pilots with elevated rates show degraded instrument scan technique.
Threat: Vestibular TBI ยท Blast ยท Fatigue
05
Pupil Constriction Velocity
Speed of pupil response to light. Parasympathetic function marker. Depressed by opioids, sedatives, and autonomic dysregulation from blast-induced brainstem injury.
Threat: Opioids ยท Sedatives ยท Autonomic TBI
06
Re-Dilation Slope
Rate of pupil re-expansion after constriction. Sympathetic tone indicator. Abnormal in fatigue, stimulant impairment, and autonomic instability following blast exposure.
Threat: Fatigue ยท Stimulants ยท Blast autonomic
07
Hippus Oscillation
Rhythmic pupil fluctuation pattern. Dysrhythmic hippus indicates autonomic or brainstem instability. Sensitive to blast neurotrauma and fatigue-induced autonomic dysregulation.
Threat: Blast brainstem ยท Autonomic fatigue
08
Fixation Micro-Instability
Micro-drift during fixed gaze. Essential for precision aiming and instrument reading. Elevated in cerebellar dysfunction, cannabis, and blast injury โ€” degrades both weapons employment and avionics scan.
Threat: Cannabis ยท Cerebellar TBI ยท G-force
09
Convergence Accuracy
Binocular alignment on near targets. Critical for head-down instrument reading and HMD fusion. Highly sensitive to concussion and blast โ€” one of first and most persistent post-injury oculomotor findings.
Threat: Blast TBI ยท Concussion ยท Alcohol
10
Anti-Saccade Inhibition
Prefrontal executive inhibitory control โ€” suppressing reflexive eye movements to distractors. Critical for cockpit task prioritization. Highly sensitive to alcohol, blast injury, and sleep deprivation.
Threat: Alcohol ยท Blast ยท Sleep deprivation
11
Contrast Sensitivity
Visual contrast detection across luminance levels. Cannabis reduces contrast sensitivity 30โ€“50% โ€” directly degrading NVG performance, low-visibility approaches, and terrain detection in low-light environments.
Threat: Cannabis ยท TBI ยท NVG operations
12
Scotopic Visual Threshold
Minimum detectable luminance in darkness. Rod photoreceptor function โ€” the foundational visual system for NVG and night operations. Impaired by cannabis, fatigue, vitamin A deficiency, and retinal stress from G-force.
Threat: Cannabis ยท Fatigue ยท G-force retinal

Pre-Mission Assessment in 4 Steps

Designed for flight line and aeromedical clinic environments โ€” no specialist operator, no disruption to pre-mission flow, automated output to flight surgeon.

1

Individual Baseline

Pre-deployment or pre-season baseline establishes personal neurological reference. All subsequent assessments are compared to individual โ€” not just population โ€” norms.

2

5-Min Assessment

Automated oculomotor protocol administered by flight crew admin or aeromedical tech. No pilot preparation required. No subjective input influences results.

3

Automated Scoring

All 12 biomarkers computed and compared to individual baseline and age-stratified population norms. Deviation flags and interpretive summary generated in real time.

4

Flight Surgeon Review

Flagged results route to flight surgeon with structured report. Clear / review / ground decision supported by objective quantitative data โ€” not symptom self-report.

Cannabis and the NVG Readiness Gap

30โ€“50%
Reduction in contrast sensitivity at recreational cannabis doses โ€” the primary visual function underlying NVG effectiveness
3โ€“4 hrs
Oculomotor impairment from THC persists after the pilot subjectively feels "sober" โ€” urine and most blood tests are irrelevant to this window
38 states
Have legalized recreational cannabis. No validated field or pre-mission test currently detects real-time functional impairment from THC
0
Standard flight physical tests that quantify scotopic visual threshold โ€” the rod photoreceptor function cannabis most directly impairs

Why Standard Drug Screens Fail Aviation

THC urine screens detect cannabis use from 3 to 30+ days prior โ€” bearing no relationship to whether a pilot is neurologically impaired at mission time. A pilot who used cannabis three weeks ago will test positive; a pilot who used it 6 hours before flying will test the same way. Neither tells you what you need to know.

ClearGazeTest measures what matters operationally: Is contrast sensitivity impaired right now? Is scotopic threshold elevated right now? Is smooth pursuit degraded right now? These are the functional questions NVG operations demand answers to โ€” and they require quantitative oculomotor measurement, not urinalysis.

Beyond cannabis, fatigue, benzodiazepines, antihistamines, and blast injury all produce characteristic patterns of scotopic and contrast sensitivity degradation โ€” invisible to standard pre-mission screening. ClearGazeTest captures all of them in the same 5-minute protocol.

What Existing Screens Can and Cannot Detect

The aeromedical screening gap is not a gap in effort โ€” it's a gap in the right measurement.

Impairment Threat Flight Physical Drug / Urinalysis Symptom Self-Report ClearGazeTest
Blast TBI (subclinical) Misses N/A Unreliable Detects โœ“
Current cannabis impairment Misses Tests exposure only Unreliable Detects โœ“
Fatigue-induced impairment Misses N/A Unreliable Detects โœ“
Medication residual effect Partial Partial Unreliable Detects โœ“
Scotopic / NVG readiness Misses N/A Not measurable Detects โœ“
Cumulative G-force deficit Misses N/A Unreliable Tracks โœ“
Convergence / HMD fusion Misses N/A Not measurable Detects โœ“
Longitudinal career tracking Annual only N/A N/A Every assessment โœ“

Designed for DoD and FAA Environments

ClearGazeTest is built to integrate with existing aeromedical frameworks โ€” not to replace them, but to fill their objective measurement gap.

USAF / AMC

Air Force Aeromedical Services

Supports Flight Surgeon pre-mission readiness assessment protocols, Class III flight physical documentation, and return-to-fly evaluation following physiological episodes, G-LOC incidents, or blast exposure. Integrates with AERO-MED documentation systems.

USN / NAMI

Naval Aerospace Medical Institute

Naval Aviation Medicine integration for carrier-based aviation communities. Pre-deployment baseline registry, post-catapult/arrestment cumulative impact tracking, and Special Issuance documentation support for aviators with neurological history.

SOCOM

Special Operations Command

Forward-deployable assessment capability for special operations aviation units. Blast TBI serial monitoring in high-OPTEMPO environments. NVG readiness screening for low-observable night operations and sensitive site exploitation missions.

FAA / AME

Aviation Medical Examiners

ClearGazeTest provides AMEs with objective oculomotor data to support FAA First, Second, and Third Class medical certification decisions โ€” particularly for Special Issuance cases involving neurological history, TBI, or medication management.

ARNG / ANG

Army Air National Guard Aviation

Guard and Reserve aviation units with dual civilian-military flying populations benefit from pre-mobilization readiness assessment and civilian aviation environment crossover evaluation โ€” particularly relevant for part 121/135 pilots with concurrent Guard service.

DoD RESEARCH

DARPA / USAMRDC Research Programs

Research partnership pathway for blast TBI characterization, G-force neurological impact quantification, and pharmacological impairment detection in military populations. IRB-approved research protocol support, population database access, and co-investigator collaboration available.

"The most dangerous impaired pilot isn't the one who knows they're impaired โ€” it's the one who passed every screen we gave them because we were measuring the wrong things."
โ€” Aeromedical assessment principle

Questions from Flight Surgeons Safety Officers

ClearGazeTest is designed as a complementary objective measurement tool โ€” not a replacement for the flight physical. It fills the quantitative gap that standard flight physicals have always had: the inability to measure real-time neurological function. The assessment can be used as a pre-mission screening tool (added to existing pre-flight protocols), as a post-incident evaluation component after G-LOC, blast exposure, or hard landing, and as a serial monitoring tool for longitudinal neurological career tracking. All data is physician-interpreted; no autonomous go/no-go decision is generated without flight surgeon review.

This is a critical aeromedical consideration. ClearGazeTest uses largely passive and semi-passive oculomotor measures โ€” pupillary light reflex, fixation stability, smooth pursuit tracking โ€” that cannot be voluntarily controlled or strategically performed around. Pilots cannot voluntarily normalize their pupil constriction velocity, fixation micro-instability, or hippus oscillation pattern. Anti-saccade and saccadic tasks require effort, but the assessment has built-in effort validity indices and can detect inconsistent performance patterns. The combination of passive and active measures makes strategic manipulation significantly more difficult than cognitive tests or symptom self-report.

The assessment takes 5 minutes per pilot, requires no specialist operator (flight crew admin or aeromedical tech), and produces automated output. For a typical 4-ship flight, total assessment time is 20 minutes. The device is portable and requires standard power. For pre-mission applications, assessment is designed to integrate into the existing crew brief / step timeline, with flagged results routing electronically to the flight surgeon without requiring additional pilot interaction in non-flagged cases. For large-scale deployment screening, the assessment can be run in parallel across multiple devices.

ClearGazeTest is designed to be field-deployable โ€” no internet requirement for assessment, with periodic sync capability for longitudinal database management. For blast exposure scenarios, the recommended protocol is pre-deployment individual baseline establishment, immediate (within 24h) post-blast assessment for individuals within the overpressure zone, and serial reassessment at 48h, 7 days, and 30 days. Deviation-from-baseline reporting is the most sensitive metric for blast TBI โ€” which is why the pre-deployment baseline is so critical. Contact our military operations team to discuss JOPES-compatible implementation planning.

ClearGazeTest is currently deployed in clinical and occupational medicine settings as a quantitative neurological assessment tool. Integration into formal FAA and DoD aeromedical certification frameworks as a required or recommended test component is in active development through our regulatory affairs team. We work directly with FAA AMEs for Special Issuance documentation support now. For DoD commands interested in evaluation programs or clinical validation studies within military aviation populations, we have established a military partnership pathway that can move from initial briefing to on-base evaluation in 60โ€“90 days. Contact our government affairs team directly for program development discussion.

Request a DoD / Aviation Briefing

Reach our military and aviation team for a classified or unclassified briefing, site evaluation visit, or research partnership discussion. We speak both aeromedical and operational.

๐ŸŽ–

Military Aviation Programs

ClearGazeTest ยท Medical Card Exam
military@medicalcardexam.com

โœˆ๏ธ

FAA AME Integration

Aviation Medical Examiner partnerships for FAA medical certification support. Structured Special Issuance documentation workflow available.

๐Ÿ”ฌ

Research Partnerships

IRB-approved military aviation research protocols, blast TBI characterization studies, and G-force neurological impact quantification programs.

๐Ÿ›๏ธ

Government Regulatory Affairs

For DoD program development, SBIR/STTR opportunities, or FAA regulatory integration discussion, contact our government affairs team directly.