Preprint / Version 1

Why It Is Almost Impossible to Drive a Golf Ball 450 Yards

A Literature Review

##article.authors##

  • Arnur Bozzhigit High school student

DOI:

https://doi.org/10.58445/rars.3844

Keywords:

Golf Driving Distance, Biomechanics of Golf Swing, Aerodynamics of Golf Balls

Abstract

Is driving a golf ball 450 yards actually possible? After reviewing the relevant literature across
equipment technology, biomechanics, and aerodynamics, the short answer is: almost certainly
not under normal competitive conditions, and the reasons are more fundamental than many
people realise.
On the equipment side, modern drivers are already within 0.5–1.5% of their regulatory
ceilings—the rulebook caps coefficient of restitution at COR ≤ 0.830, characteristic time at CT ≤
257 μs, and moment of inertia at Izz ≤ 5,900 g·cm². A 450-yard carry would require ball speeds
around 225–235 mph. Elite professionals average 165–190 mph. That gap does not close with
better club-fitting.
Biomechanics is similarly constrained. Across 308 golfers, kinematic sequence efficiency alone
accounts for 54.8% of carry distance variance (r = 0.74) [2]. Yet even well-designed training
programmes raise clubhead speed by only 1.5–7.2%—bringing a typical Tour player from
perhaps 115 mph to 123 mph, not the 150 mph that 450 yards requires.
Aerodynamics offers little additional help. Dimples already cut drag by roughly 50% compared to
a smooth sphere; drag coefficients of 0.21–0.25 are close to the physical minimum, and the
literature estimates at most ±4 yards of remaining optimisation potential.
All three domains would need to be at their simultaneous best—a probability of around 0.01%
even for elite athletes. Distance limits in golf are not waiting on a technological fix; they reflect
genuine physical boundaries [1,2,3,4,5,6,7,8,9,10,11,12,13,14,15,16].

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2026-05-30