Overall Readiness
77/100
Solid
Peak Level (Proven)
81/100
High
Access Gap
4 points
Minimal
Current readiness is solid; performance access is near demonstrated peak.
WHY the gap exists
Right-side reactions run 11ms slower than left, and cognitive load rises through sessions—these create small but measurable limits on bilateral symmetry and late-session precision.
WHAT is limiting performance
Uneven trigger speed between sides and gradual timing degradation under sustained demand; the athlete isn't consistently accessing proven 213ms best-case reaction capacity.
HOW it can be unlocked
Lateralized reaction training to equalize side-to-side speed; end-of-session neuromotor blocks to maintain drive; perception drills for decision accuracy under changing situations.
REACTION & ANTICIPATION
Dive Reaction Speed & Consistency
How fast and reliable are left vs right dive reactions?
Avg reaction | Dashed line = worst observed
Right-side reactions are 11ms slower but more consistent; left side faster with occasional outliers.
Coach: "Does the athlete look marginally late setting for right-post dives, or does push-off from left foot look different?"
Best-Case Reaction Capacity
What is the athlete's response system capable of when the read is clear?
Best trial is 213ms; average is 33ms slower, showing capacity exists but access varies.
Coach: "On a clear read, how often does the athlete commit at peak speed vs hesitating slightly?"
DECISION TIMING & CONTROL
Commit Speed Under Conflict
How quickly can the athlete commit when the first read is wrong?
Penalty for override is low when the situation changes unexpectedly.
Coach: "On late ball-path changes or deceptive shots, does the athlete switch commitment cleanly or show hesitation?"
Decision Accuracy Under Complexity
How reliable are commits when the situation is complex?
Accuracy drops 6 points under interference—speed preserved but correctness decreases.
Coach: "When the read is wrong, does speed override accuracy or vice versa?"
STABILITY & SESSION DURABILITY
Late-Session Timing Stability
Does timing quality hold when fatigue increases?
Variability is moderate; workload trend increases from mid to late session.
Coach: "In the last 10 minutes of training or late-match saves, does timing look different from early work?"
Left-Right Symmetry Under Load
Are both sides balanced early and late session?
Early Session
Late Session
Scale: 0-100 | Bars show left vs right motor quality
Left and right sides show different average speed; right slower but more consistent.
Coach: "Does one side look mechanically different during push-off or landing?"
Secondary Detail
Neural Drift (Session)
Timing + decision sharpness
Mental sharpness steadily declines across the session.
Coach: Watch late-session closeouts/cuts — rotate earlier or reduce stacked reps.
Brain-Body Convergence
Is the body doing what the brain is asking it to do?
The body follows the brain, but brain-driven precision slows late in the session.
Coach: This points to neural fatigue rather than coordination breakdown — manage late-game mental load.
Emerging Risk Flags
Performance Degradation Signals
Mechanical / Injury-Relevant Signals
Risk flags show late-session drift — protect quality late and monitor asymmetry.
Coach: If late reps get sloppy, shorten bursts, rotate earlier, and re-test after recovery.