Science-Backed · V2

Vertical Jump
Potential Calculator

Find your genetic ceiling and see a personalised growth projection based on your body, age, and training history.

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How well do you know your body?
🙋
Just the basics
Height, weight, age — we estimate the rest
📏
I know my numbers
Inseam, wingspan, body fat if you have them
🔬
Full detail
All measurements + sprint / broad jump data
1
About You
Step 1 of 3 — basics required, everything else optional
ft in
Male
Female
Ectomorph
(lean / slim)
Mesomorph
(athletic)
Endomorph
(stocky)
2
Training History
Step 2 of 3 — this separates current from potential
🏀 Basketball
🏐 Volleyball
🏋️ General fitness
🛋️ Untrained
None / just starting
Under 6 months
6 mo – 1 year
1–3 years
3+ years
Not training
1–2x / week
3–4x / week
5+ / week
Plyometrics
Weight training
Sport practice
Sprints / speed
None
Slow
Average
Fast
Elite
Small
Average
Large / muscular
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3
Growth Projection
Step 3 of 3 — how to frame your results
Casual
1–2x/wk
Consistent
3–4x/wk
Serious
5–6x/wk
Elite
Full program
2 years
4 years
5 years
📊
Your graph will show two lines — perfect training (optimal program, no setbacks) and achievable (your commitment level, real life). Both converge toward your genetic ceiling.
Standing Vertical Ceiling
no-step jump from stationary position
Running / Approach
+4–6" from momentum
With Technique
+2–4" from arm swing & timing
Running and technique figures are estimates. Approach jump gains vary by sport mechanics and individual biomechanics.
Genetic Potential Score
050100
Your Vertical Jump Growth Projection
Perfect training
Achievable (your commitment)
Genetic ceiling
How You Compare
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Your Training Recommendations

What Is Your Vertical Jump Potential?

Your vertical jump potential is the maximum height you could theoretically reach with optimal training given your genetic and physical profile. Research shows genetics explains approximately 62% of variance in vertical jump performance — the other 38% is training, nutrition, and consistency.

This calculator uses a science-backed model drawing on published biomechanics research to estimate your ceiling and plot how close you can get with different levels of commitment.

Key Genetic Factors

Vertical Jump Norms by Population

GroupAverageElite
Untrained male (20–30)17–20 inches
Untrained female (20–30)12–15 inches
HS varsity basketball22–26 inches30+ inches
College D1 basketball26–30 inches36+ inches
NBA average28 inches40+ inches
College D1 volleyball (W)18–22 inches28+ inches
College D1 volleyball (M)26–30 inches36+ inches

How Much Can Training Add?

The research is clear: beginners gain the most, fastest. A structured plyometric program of at least 10 weeks (20 sessions, 50+ jumps/session) produces 4–8 inch improvements in untrained individuals. After 1–2 years, gains slow significantly — most athletes in their second or third year of serious training see 1–3 inches per training cycle. The genetic ceiling is real; training determines how close you get to it.

Standing vs Running Vertical — What is the Difference?

This calculator outputs a standing vertical — a no-step jump from a stationary two-foot position. A running or approach jump adds 4–6 inches on average by converting horizontal momentum into vertical force. On top of that, refined technique — arm swing timing, penultimate step mechanics, and hip extension sequencing — can add a further 2–4 inches. A 35" standing ceiling therefore corresponds to a realistic 41–45" approach jump ceiling with proper training.

Data Sources

SourceWhat it informs
Peeters et al. (2015) — European Journal of Applied Physiology62% heritability of vertical jump (meta-analysis, 15 twin studies, N=874)
Deurenberg et al. (1991) — British Journal of NutritionOriginal BMI-to-BF% formula basis
Gomez-Ambrosi et al. (2012) — CUN-BAE equationBody fat % estimation from height, weight, age, gender (N=6,510, validation sample)
Barker et al. (2011) — PubMed (normative data, N=1,845)Jump height norms for males aged 10–15, year-on-year increases
Boccia et al. (2018) — ResearchGate / EJSSAdolescent VJ development rates by age and sex, peak rate at age 14 for males
Aouadi et al. — PubMed (volleyball study)Lower limb length vs countermovement jump correlation (r²=0.69)
JSCR (2010)Femur-to-tibia ratio correlation with jump height (r=0.39); shin length penalty (r=−0.33)
ScienceDirect (recreational male athletes study)Body fat explains 62% of VJ variability; best regression model R²=0.87
NHANES normative dataPopulation average vertical jump for untrained males 17.7" (45cm)
Lloyd & Oliver (2012) — Youth Physical Development modelCritical training windows: ages 12–16 male, 11–15 female
Various plyometric meta-analyses30% untrained-to-trained jump gain; 4–8" beginner gains in 10 weeks; diminishing returns after 2 years

This calculator is for educational and training reference purposes only. It is not a substitute for professional athletic testing (Vertec, force plate). Estimates carry inherent uncertainty — treat results as informed projections, not precise measurements.

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