The Damaged Pickleball: Why “Equal” Doesn’t Mean “Fair”

The Damaged Pickleball: Why “Equal” Doesn’t Mean “Fair”

Written by: Brian Laposa

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Time to read 2 min

We explain mathematically why a damaged ball’s effect appears equal but is actually not. This is investigated through the concept of a noise function, N(t), which represents the random element introduced by a damaged ball. The effect of this noise function is not equal for both players due to factors such as reaction time, spin dependence, and strategic asymmetry. The conclusion is that the impact of a damaged ball is not evenly distributed, and claims of “equal effect” are incorrect.

You’ve got a cracked pickleball, but everyone insists on playing anyway. “It affects everyone equally,” they say. Plus it's roughed and will grip better. While it’s true both players face the same faulty ball, the claim of equal impact is mathematically flawed. Here’s why: 

1. The Illusion of Symmetry: A damaged ball introduces a random element to the game. Imagine this randomness as a noise function, N(t), affecting the ball’s trajectory, speed, and spin over time. Since both players encounter this N(t), it seems symmetrical, thus “equal.”

 2. The Asymmetry of Play: However, pickleball isn’t symmetrical in how players interact with the ball. Consider these factors: Reaction Time: The receiver has significantly less time to react to N(t)'s effects on the ball’s bounce and trajectory. This creates an immediate disadvantage. 

Spin Dependence: Players relying on spin (topspin, slice) are more susceptible to the unpredictable effects of N(t) on spin decay and ball movement. A player using primarily flat shots is less affected. 

Strategic Asymmetry: Drop shots, lobs, and dinks require precise control and predictable ball behavior. N(t) disrupts this predictability, unequally affecting players who employ these strategies. 

3. The Mathematics of Disruption: Let’s represent a player’s performance as a function P(S, B) where S represents skill and B represents ball behavior. With a normal ball, B is relatively constant. A damaged ball introduces N(t), modifying B to B + N(t). Now, the performance becomes P(S, B + N(t)). The impact of N(t) is not uniform. It’s magnified for players whose performance, P, is highly sensitive to changes in B. Players who rely on spin or precise placement will experience a larger change in P compared to those with less sensitive playing styles. 

4. The Perception Problem: Because N(t) is random, sometimes it might appear to benefit the “wrong” player. A lucky bounce here, an unexpected wobble there. This reinforces the false impression of equality. However, over many points, the underlying asymmetry will statistically favor the player less reliant on predictable ball behavior. You might consider the analogy of how different balls effect players highly conditioned to play with certain balls to a greater degree. 

While a damaged pickleball introduces randomness affecting both players, the mathematical reality is that this randomness interacts asymmetrically with different playing styles. The impact is not evenly distributed, and claims of “equal effect” are often based on a superficial understanding of the dynamics at play.  

Here the contribution of player skill is paramount as and all aspects. Whether it be spin power or control. No paddle will ever make a greater contribution then the human dexterity behind it. Our new rules are placing paramount blame on the paddle while placing almost no consideration on the actual projectile in question. 

As with PBCoR and CoF secondary factors are oddly considered before direct characterization. We blame the paddle for its behavior in a collision where said behavior is explicitly linked to the ball in question. So the next time you think someone has a hot paddle. Consider the ball as well. It's unfair and illogical not to. 

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