A quick read of the profile, then the detail below. Bigger = stronger.
Baseline assessment no prior comparison
Athlete 001
Shooting Guard · Age 33
Bigger = stronger
Athlete 001 (in this assessment)
Primary finding
Decision-Making Under Pressure
75% → 31%
Accurate on clean reads; accuracy drops off when the picture gets crowded.
Watch item
Left-Right Balance
Right ~70% less steady
Same side, same story across speed and steadiness.
Strength
Calm Baseline
HR 56 bpm
Body stays calm under pressure — not a nerves problem.
01 — Decisions & Reading the Play
Decision-Making Under Pressure
Victor processes the game well when situations are controlled, but accuracy and composure drop as pressure and cognitive load increase. The biggest changes appear when decisions must be made quickly under stress — especially after mistakes or during chaotic sequences.
Decision Performance Matrix
Where each read lands on the speed × accuracy plane
Accuracy Under Pressure
How often is he right when it's clean vs crowded?
Clean read
75%
Under pressure
31%
−44 pts
Decision / Commit Speed
Does he slow down under pressure?
Clean read
602 ms
Under pressure
526 ms
Cognitive Flexibility
Change the read without losing the play.
Time on the trigger under pressure
Correct answers
526 ms
Wrong answers
538 ms
Wrong answers take just as long as correct ones — not impulsive.
Resting heart rate mid-50s — body stays calm.
02 — Bilateral Control & Asymmetry
Bilateral Control and Asymmetry
Victor shows significant left-right imbalance, with the right side becoming less stable and responsive under load. These asymmetries appear to increase as fatigue builds, creating compensation patterns that may affect movement efficiency and durability.
Left-Right Balance · Steadiness / Consistency
How much does each side vary, rep to rep?
Variation rep to rep (lower = steadier)
Left
7.3%
Right
12.4%
Right side varies about 70% more rep-to-rep than left.
A second measure agrees — his motor-cortex activity leaned more to the right side across the session.
Error Recovery
Does a mistake throw him off the next read?
After a mistake
44%
After a success
47%
+3 pts · essentially flat
Brain side · Across session
Left-Right Brain Balance
Dominant Hemisphere / Which hemisphere dominates control
Left-Right Balance · Speed
Does the reaction time asymmetry worsen as the session goes on?
LeftRight
03 — Fatigue & Stability
Fatigue and Stability Over Time
Victor maintains neural sharpness well across the session, with signs of adaptation rather than overall decline. The primary issue is not fatigue itself, but preserving processing stability when visual and cognitive complexity increase together.
Reaction Consistency
Where are his reaction times clustered relative to his fastest and slowest times?
Neural Fatigue
How did his sharpness hold across the session?
04 — Reaction & Visual Processing
Reaction and Visual Processing
Victor reads the floor well when visual information is clean and organized, but performance drops when the environment becomes visually crowded and processing demands stack rapidly together.
Visual Scanning Speed
Sweeping the full court vs tracking small changes
Full-chart scan time45.6 s
Well outside benchmarkNBA elite < 20 s
Two-chart switching31
Within benchmarkNBA elite < 40
Near-far accommodative rock37 s
Within benchmarkNBA elite < 40 s
Vision Under Load
What happens when the visual processing gets complex
Speed (time to complete)
Single90 s
Dual60 s
FASTER
Accuracy (words found)
Single11
Dual2
COLLAPSES
Binocular Stability
Do both eyes stay in the game as load and distance increase
Low load
High load
Near
Both eyes engaged
Both eyes engaged
Distance
Both eyes engaged
Right-eye suppression
Worth noting
Three right-side signals show up across separate measures: right-eye suppression under load (Binocular Stability), the ~20 ms slower right side (Left-Right Balance), and the slow reaction-time tail that comes almost entirely from his right side (Reaction Consistency). Whether one drives the others or they share a common cause, this assessment can't establish. But they're consistent with one another — and that consistency is itself a finding.
05 — Strengths
What's Working
Genuine strengths confirmed in this assessment.
Clean-Read Decision-Making
75%
Accuracy when the floor is clear
Calm Baseline
56
Resting HR (bpm)
Conditioning Held Up
Fatigue wasn't a factor — his reactions actually got a little sharper as the session went on.
05 — Training Priorities
Training Priorities
Mapped to the corrected findings. Full plan in the Neural Training tab.
Decision-Making Under Pressure
When the court gets crowded, decision accuracy is what separates good guards from great ones — and it's Victor's biggest trainable lever.
Cognitive Flexibility
Being able to abandon a first read and find the next solution when the play changes — the skill that turns broken plays into baskets.
Left-Right Asymmetry
Building right-side consistency to balance his game, reduce injury exposure, and make him harder to predict on the court.
Clinician / Analyst ViewNumbers, limits, and source detail — click to expand
Stroop · timing
Decision Speed
Per-condition reaction time (secondary signal).
Congruent (clean)602 ms
Incongruent (pressure)526 ms
⚠ Stroop timing is noisy this run (broken neutral condition, one 1879 ms outlier). Incongruent-correct (526 ms) is actually faster than congruent-correct (602 ms) — accuracy is the reliable signal; treat timing as secondary. Do not headline a speed cost.
Stroop · control
Error Recovery & Conditions
Tilt, recovery, and per-condition notes.
Error recovery — flat, no tilt
Post-error accuracy 44% vs post-correct 47%. He doesn't spiral after a mistake.
Errors slower than correct
Incorrect responses (538 ms) take slightly longer than correct ones (526 ms) under pressure — argues against impulsivity/guessing.
Neutral condition — logging artifact
Partly non-responding (logging artifact); exclude from interpretation.
Reaction · variability
Left-Right Variability (CV)
7.3%
Left CV
12.4%
Right CV
~70%
relative gap
CV reported for context only; client surfaces describe "steadiness" qualitatively.
EEG · cortical
Motor Cortex & Workload
Motor cortex (C3 / C4)
Activation leaned more to the right side across the session — consistent with the right-side timing/steadiness gap.
Cognitive workload & attention
Workload rose 0.67 → 0.86 across the session; resting HR drifted 52 → 59 bpm. Sharpness held, so this reads as effort-to-sustain rather than fatigue. Effort overlay is an early signal — low confidence.
Left-Right Asymmetry · supporting detail
The 70 / 30 left-side-dominant split is computed across 740 measurements during the session from the brain-asymmetry metric. The directional finding agrees with the reaction-time gap (right hand slower) and the steadiness gap (right hand less consistent).
Position & assessment metadata
Position listed as Shooting Guard on the client face. Has early-career point-guard / combo-guard history — relevant for context when interpreting decision-under-pressure findings but not used as a client-facing label. Assessment date: Mar 31, 2026 (Baseline).
Source & limits
Reaction timing reflects 30 simple-RT trials (15 per side). Decision figures reflect the Stroop battery with the caveats above. Vision figures are from the vision battery (Hart chart, lateral scanning, near-far focus switching, word-finding under single vs dual chart). Brain-asymmetry figures are computed across 740 in-session measurements. Confidence chips on the client surfaces summarise these limits without exposing raw sample counts.
Bottom Line
His brain runs in a left-side-dominant mode about 70% of the time — a real asymmetry. His whole right side (hip to ankle, plus the right shoulder) gets less work and runs less consistently, with the right quad/knee being where this has historically expressed. It's worth training symmetry to bring the right side up.This is what we measured. It is not predicting injury.
01Body Regions
Neural-Driven Exposure Region
Two exposure regions identified from this battery — an upstream right-side asymmetry pattern, plus the specific right quad/knee finding that sits inside it. Click a region to see its mechanism trail below.
This identifies a pattern to monitor and train. It is not predicting injury.
Risk Context
What's Working For HimThese strengths make his risks less dangerous.
Left-Side Reaction Stability · Mean 322 ms · No false positives
Left-side simple-RT mean 322 ms — tight, fast, no false positives. The timing asymmetry is right-side specific, not a general motor-control issue.
Autonomic Regulation in Range · HR 56 bpm · SDNN 24 ms · RR 13.7 br/min
HR 56 bpm, SDNN 24 ms, RR 13.7 br/min sit in expected ranges with low SEM. No acute stress-state interference in this assessment.
Late-Session Trajectory Stable · No within-session fatigue degradation
Within-task RT accelerated late on both sides. No fatigue degradation signal — neither the right-side variability nor the inhibition pattern is fatigue-driven.
What's Working Against HimThese factors make his risks more dangerous.
Right-Side Timing Less Steady · Right side slower and less steady than left · Moderate
Right-side reaction timing is a touch slower and less steady in the data, and the same right-side lean shows up across three measures. Given his right-side history, it's worth tracking across sessions.
Decision Accuracy Drops Under Pressure · High severity
Decision accuracy drops off sharply when the picture gets crowded. Shown here for context — it's a performance finding, not a measured biomechanical mechanism. Worth monitoring alongside the right-side timing data.
02 — Mechanism Trail
Per-Region Causal Detail
Trigger → Compensation → Impact, with watch list and action protocols.
02Causal Chain
Trigger
Compensation
Impact
03High-Risk Contexts
Fatigue State
Game State
04What Staff Should Watch
05Training Priority
03 — Neural Signals
Underlying Neural Signals
Neural metrics behind the body region map. Neural measurement data from this assessment.
Left-Right Symmetry / Balance
Left-Right Symmetry (Injury Frame)
How balanced are response timing and motor output across sides?
Signal
Right side carries the slower and more variable response pattern on a leg with documented quad rupture and repair history — load asymmetry signal from the data.
Monitor
Monitor right-leg plant mechanics and push-off symmetry in training; track right-side RT variability across sessions.
Confidence: High
Inhibition / Stop-Change Control
Stop-Change Control (Injury Frame)
Can the athlete cancel a queued response when pressure arrives?
Signal
Failure to cancel pre-programmed responses under pressure is the neural pattern behind mistimed cuts and plants — same mechanism that loads vulnerable joints unexpectedly.
Monitor
Drill response-cancellation under sudden cue change before adding lateral-load mechanics work.
Confidence: High
Risk Score Breakdown
Six neural-driver categories that decompose the body region risk picture.
Pressure-Driven Exposure38MODERATE
Decision timing is not the finding — it's noisy this run, and under pressure he's actually slightly faster (526 ms vs 602 ms clean), not slower. The signal is in accuracy (72% → 31%), not speed. No speed-cost headline is claimed.
Decision-Quality-Driven Exposure85ACUTE
A 41-point accuracy drop under pressure is the dominant performance finding. Clean-condition accuracy is intact (72%) but drops to 31% under pressure. It's pressure-specific — and not impulsivity, since wrong answers take slightly longer than right ones. Shown here as performance context; no biomechanical mechanism is claimed.
Fatigue-Driven Exposure8MINIMAL
No within-session fatigue signal. Capacity holds at 98–100% across all four segments — late-third reactions directionally faster on both sides. Fatigue is a protective factor in this battery, not a risk amplifier.
Variability-Driven Exposure45MODERATE
Right-side timing is less steady than left (roughly twice as variable) — the dominant-side timing is the noisier side. Combined bilateral timing is within normal range, but the asymmetric distribution (dominant side more variable) creates uneven loading during shooting and finishing cycles.
Asymmetry-Driven Exposure33MODERATE
Bilateral gap of 20ms (left 322ms, right 342ms). Right side is consistently slower and less steady. Gap is stable (doesn't widen late session). The right-side pattern is corroborated across three systems — reaction timing, motor-cortex activation, and visual scanning.
Impulse-Control Protection10MINIMAL
Zero false starts across all reaction trials confirms clean impulse control. Victor doesn't pre-commit. The decision accuracy breakdown is specifically under competing cues — not a general inhibition failure. This is a meaningful protective factor.
Risk Modifiers
Factors that modify how the underlying risk picture should be managed.
Decision Accuracy Drop Under PressureIncreases Risk
72% → 31% accuracy under pressure (−41 pts) means that in contested play, wrong decisions become more likely. This is a performance finding, noted here for context. No biomechanical loading mechanism is claimed — that link is not in the assessment data.
The dominant shooting side is less consistent than left — this creates uneven rep-to-rep loading on the right upper extremity. Tendons and soft tissue adapt to consistent loading patterns — variable loading at moderate volumes is a known driver of overuse pathology even without extreme training load.
No Within-Session Fatigue SignalReduces Risk
98–100% capacity retention across all four session segments is a significant protective factor. No fatigue-amplification of the right-side variability constraint during this battery. The constraint is condition-specific (pressure cue), not a fatigue-dependent finding. This battery understates the risk that would emerge under a higher-volume or higher-load assessment.
Regulated Low-Arousal PhysiologyReduces Risk
HR 55.9 bpm, SDNN 24.0 ms, respiration 13.7 br/min — well-regulated baseline with no acute stress state. This is a protective factor: neural performance data from a controlled physiological baseline is more representative of actual capacity than data collected under sympathetic activation.
Post-Task Cortical AsymmetryNeutral · Monitoring Value
C3/C4 sensorimotor lean: +1.34 right / −0.85 left post-task. Right cortical sensorimotor zone shows elevated post-session activation. Volume is insufficient to confirm this as a risk driver — but combined with the right-side timing variability pattern, it warrants monitoring. Biomechanical battery will help confirm or revise this signal.
Biomechanical Battery PendingNeutral · Assessment Gap
This battery is neural assessment only. Landing mechanics, braking patterns, and lateral cut data have not been collected. The right-side exposure picture could be revised (higher or lower) once biomechanical data is available. Current risk classification (Moderate) reflects neural-only evidence and carries appropriate uncertainty.
Time-Horizon View
Risk scenarios separated by temporal context.
Confidence & Limitations
Overall confidence: MODERATE
Reaction trials and Stroop trials — sufficient for direction of the patterns but limited for absolute thresholds.
Reaction asymmetry curves use 4-segment bins as a proxy for time progression; coarse-grained, treat as directional rather than precise time-series.
Right-side variability estimate is based on the trial distribution from this battery; volume is sufficient for pattern direction but not for precise sub-population comparisons.
Body region attribution is inferential from neural performance patterns and basketball biomechanics, not directly measured at tissue level. Biomechanical battery (landing, braking, lateral cuts) is pending — will resolve sided attribution and confirm specific structures.
Brain-body alignment phase values were not surfaced in the available analyst output; only summary indicators are usable.
First baseline assessment for this athlete — no longitudinal comparison available. Trend direction will require follow-up assessment in 4–6 weeks.
Injury risk inferred from neural performance patterns and mechanism mapping; this is a vulnerability identification framework, not a medical diagnostic tool.
