Bunching of numbers in a non-ideal roulette: the key to winning strategies
A.V. Kavokin, A.S. Sheremet, M.Yu. Petrov

TL;DR
This paper investigates how deviations from ideal randomness in real roulette wheels create opportunities for gamblers, showing that number bunching can significantly increase winning chances under certain conditions.
Contribution
It introduces a statistical model of non-ideal roulette deviations and identifies a critical deviation threshold where gambler's chances improve, revealing the importance of number bunching.
Findings
Critical deviation {} where gambler's chances equal casino's.
Above critical {}, gambler's expected return becomes positive.
Number bunching in non-ideal roulette enhances gambler's winning prospects.
Abstract
Chances of a gambler are always lower than chances of a casino in the case of an ideal, mathematically perfect roulette, if the capital of the gambler is limited and the minimum and maximum allowed bets are limited by the casino. However, a realistic roulette is not ideal: the probabilities of realisation of different numbers slightly deviate. Describing this deviation by a statistical distribution with a width {\delta} we find a critical {\delta} that equalizes chances of gambler and casino in the case of a simple strategy of the game: the gambler always puts equal bets to the last N numbers. For up-critical {\delta} the expected return of the roulette becomes positive. We show that the dramatic increase of gambler's chances is a manifestation of bunching of numbers in a non-ideal roulette. We also estimate the critical starting capital needed to ensure the low risk game for an…
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Taxonomy
TopicsComplex Systems and Time Series Analysis · Financial Risk and Volatility Modeling · Probability and Statistical Research
