
Overall Readiness
55/100
MODERATE
Peak Level (Proven)
87/100
HIGH
Access Gap
32 points
MAJOR
Current readiness is solid, but performance under pressure is below demonstrated peak capacity.
Late-session timing precision degrades 29% (left side 238ms early → 308ms late), and bilateral symmetry flips unpredictably—early right slower, late left slower, creating 55ms late-session divergence.
Fatigue-driven neural control breakdown: the explosive dive trigger slows substantially under sustained load, and left-right motor balance becomes unstable rather than maintaining consistent bilateral execution across session duration.
Train reactive timing sequences specifically under controlled fatigue to maintain trigger precision when loaded, and enforce bilateral symmetry during explosive work to prevent state-dependent side-switching.
How fast and consistent are dive initiations by side?
Avg reaction | Dashed line = best observed
Right-side reactions are less consistent than left, with occasional very late outliers; side-to-side timing differs by 13ms on average under baseline conditions.
Coach: "Do his first steps to the right look slightly less explosive or more variable than his steps to the left in repeated save sequences?"
What is the proven ceiling when read is clear?
Best-case explosive reaction capacity is elite-level fast when stimulus is clear and neural state is fresh—ceiling is present.
Coach: "On clean direct shots where he reads it early—is his first movement as explosive as any keeper you've seen?"
How quickly does he commit when the situation changes unexpectedly?
Decision timing actually becomes faster (not slower) when situations change unexpectedly—non-standard pattern suggests strategy shift or task-specific adaptation rather than typical conflict cost.
Coach: "When strikers fake or situations change mid-action—does he commit decisively, or does he look caught between decisions?"
How accurate are decisions when situation is complex or ambiguous?
Accuracy stays high under explicit conflict (94%), but drops materially when cues are ambiguous or don't fit clear patterns (81%)—watch for occasional slips in mixed-read moments.
Coach: "On deflections or screens where the flight path is unclear until late—does he commit cleanly, or does he sometimes get caught wrong?"
Does timing precision hold steady or degrade across session time?
Left-side timing degrades 29% from early to late session (238 → 308ms), while right side improves—creating a complete symmetry flip and 55ms late-session divergence between sides.
Coach: "In the last 15 minutes of matches or late in training sessions—are his reactions noticeably slower, especially to his left?"
Are left and right sides balanced or does one dominate?
Early Session
Late Session
Scale: 0-100 | Bars show left vs right motor quality
Bilateral balance flips completely across session: early trials show right-side slowing, late trials show left-side slowing—creating unstable side dominance that switches based on fatigue state rather than maintaining stable symmetry.
Coach: "Does it look like he pushes off one leg harder early in training, then switches to favoring the other leg late in the session?"
Timing + decision sharpness
Mental sharpness steadily declines across the session.
Coach: Watch late-session closeouts/cuts — rotate earlier or reduce stacked reps.
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.
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.