For a roulette strategy based on scientific principles, this is the one to use. Taking a concept from physics and applying it to a game of chance, this technique requires you to predict where the ball is going to land by calculating certain variables. Just saw this video and made me wonder if it is possible to really predict where the ball will land, given the very low frets of the new roulette wheels There are various methods that try to predict the spin out come. There are many gambling books around, especially on roulette. Often they come with very attractive titles, such as 'Predict where the ball will land'. This book is rather about how difficult, if not impossible, it is to make any serious predictions, at best well calculated guesses. The reward for being able to predict where the ball is going to land in any given spin on a roulette table is just too tempting! In this section, we take a look at some basic roulette physics to see if this can help us, in any way, to understand the dynamics of the game and thus to gain an edge. Roulette probabilities are fixed. Get the Edge at Roulette: How to Predict Where the Ball Will Land! G - Reference, Information and Interdisciplinary Subjects Series Get-the-edge Guide Scoblete Get-The-Edge Series: Author: Christopher Pawlicki: Contributor: Frank Scoblete: Edition: illustrated: Publisher: Bonus Books, 2001: ISBN:, 600: Length: 229 pages.
Get Your Brain Cells Fired Up
Just about as many people have studied the physics of a roulette wheel and ball as have tried to beat the wheel with a roulette system. The reward for being able to predict where the ball is going to land in any given spin on a roulette table is just too tempting!
In this section, we take a look at some basic roulette physics to see if this can help us, in any way, to understand the dynamics of the game and thus to gain an edge. Roulette probabilities are fixed. But that hasn't stopped people from trying to predict those outcomes.
There might be some roulette mathematics involved here by the way!
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The first thing to say, is that the roulette wheel is designed to generate outcomes of pure chance. There is no purer form of gambling, and although most wheels are not 100% random (they may be biased, or the dealer may have a signature), they are as close to random as you can possibly get. Casinos aren't bothered about having perfect roulette wheels. They just need them perfect enough so that humans are unable to spot any trends.
Let's take an American Roulette Wheel. There are 38 pockets into which the ball can fall, and all are the same size. The probability of the ball landing in any of them is equal. You could say that a roulette wheel is a random number generator or an RNG.
Physical Properties of a Roulette Wheel
But, and it's a big but- the result isn't determined by an electronic random number generator like it is in virtual or video roulette. It is determined by the mechanics of a ball going round a wheel, and friction and gravity acting on that ball. Eventually the ball will lose all of its kinetic energy thanks to friction with the wheel and the air, and will eventually bounce across pockets losing more and more energy faster and faster until it comes to a stop.
In theory, if you are able to measure certain parameters, you should be able to work out the pocket into which the ball will fall. Even if you are unable to predict the exact pocket, you should be able to predict a 'zone' of numbers. And that is enough in roulette to give you an edge, because of course you can make multiple single number bets.
Laser Eyes
Visual spotting, or even lasers have been used to collect the necessary initial values of the variables in the system. All this becomes easier if the wheel is biased- even a minor tilt of the rotor, for example, can create shadow zones on the wheel where the ball never falls.
Here we get into the actual physics of a roulette wheel, a topic that has been covered by many scientists including , using the work of Edward Thorp who wrote Elementary Probability (1966), The Mathematics of Gambling (1984) and several mathematical papers on probability, game theory, and functional analysis and Eichberger who has attempted to beat roulette with a computer in his Roulette Physics paper.
In these approximations, friction and air resistance need to be plugged in to the model. Another paper worth looking at, as this comes from the casino's perspective, is Dixon's Roulette Wheel Testing in which he claims that an angle of as little as 0.1° will cause a discernable bias in the wheel.
The Physics of Roulette
Friction and Drag
Let's look at a roulette wheel. It consists of an outside s a rim along which the ball rolls at the beginning of its journey. At some stage the ball will drop down from the rim when it loses momentum and travel towards the centre of the wheel. The ball will hit a set of bumps, which will send the ball scattering in a chaotic fashion. Then the ball reaches the inner section of the wheel, with 38 identically sized pockets into which it can land.
Say there was no friction, drag, or tilt, the ball would roll around the rim of the wheel in the opposite direction to the wheel spin, infinitely. Ignition poker. It's path can be determined by the initial angular velocity of the ball and the initial angular velocity of the wheel. Here we are going to use Eichberger's equation of motion for the wheel without tilt:
ω is the angular velocity of the ball, and α is the angular acceleration of the ball. The constants a and b refer to the effects of friction and drag
Tilted Wheels
If the wheel is tilted, (ie you have a biased wheel), you need additional parameters to describe this. Andy Hall (2007) has written a paper on this called the Forbidden Zones of Roulette Wheels, which make for interesting reading if you are keen on roulette physics. His equation for tilted wheels is as follows:
The ball's angular acceleration α, now depends on the speed of the ball, AND its location, theta. This is due to the tilt- in some areas the ball is deccelerating up the tilt, and in others it is accelerating down it.
Using these and other equations to model the ball's behaviour, the authors have made claimed that they are able to predict the final resting place of the ball with a high enough degree of accuracy to be able to get an edge over the casinos, by predicting:
Where the ball leaves the Rim and
Working out the Departure Angle of the Ball
Summary
The amount of tilt that a wheel has affects how big the 'shadow zones' are on roulette wheels, as modelled by these equations. But importantly, these shadow zones or 'forbidden zones' relate to where the ball comes off the rim of the outer wheel, not where it stops. The casinos still have one ace up their sleeve- and that is the 'bumps' that chaotically scatter the ball in all directions.
This is a far harder thing to model. Can you beat roulette with chaos theory? Well, that's a whole different subject!
Is it possible to win at the roulette tables? There are people who have actually, provably managed to do so. Despite many proposed 'systems' there are only two profitable ways to play roulette. One can either exploit an unbalanced wheel, or one can exploit the inherently deterministic nature of the spin of both ball and wheel. Casinos will do their utmost to avoid the first type of exploit. The second exploit is possible because placing wagers on the outcome is traditionally permitted until some time after the ball and wheel are in motion. That is, one has an opportunity to observe the motion of both the ball and the wheel before placing a wager.
Taking advantage of biased wheels
Unbalanced wheel
The archetypal tale of the first type of exploit is that of a man by the name of Jagger (various sources refer to him as either William Jaggers or Joseph Jagger, or some permutation of these). Jagger, an English mechanic and amateur mathematician, observed that slight mechanical imperfection in a roulette wheel could afford sufficient edge to provide for profitable play. According to one incarnation of the tale, in 1873 he embarked for the casino of Monte Carlo with six hired assistants. Once there, he carefully logged the outcome of each spin of each of six roulette tables over a period of five weeks. Analysis of the data revealed that for each wheel there was a unique but systematic bias. Exploiting these weaknesses he gambled profitably for a week before the casino management shuffled the wheels between tables. This bought his winning streak to a sudden halt. However, he soon noted various distinguishing features of the individual wheels and was able to follow them between tables, again winning consistently. Eventually the casino resorted to re- distributing the individual partitions between pockets. A popular account, published in 1925, claims he eventually came away with winnings of £65,0008. The success of this endeavor is one possible inspiration for the musical hall song 'The Man Who Broke the Bank at Monte Carlo' although this is strongly disputed.
Statistical analysis
Similar feats have been repeated elsewhere. The noted statistician Karl Pearson provided a statistical analysis of roulette data, and found it to exhibit substantial systematic bias. However, it appears that his analysis was based on flawed data from unscrupulous scribes (apparently he had hired rather lazy journalists to collect the data).
Irregularities
In 1947 irregularities were found, and exploited, by two students, Albert Hibbs and Roy Walford, from Chicago University. Following this line of attack, S.N. Ethier provides a statistical framework by which one can test for irregularities in the observed outcome of a roulette wheel. A similar weakness had also been reported in Time magazine in 12 February 1951. In this case, the report described various syndicates of gamblers exploiting determinism in the roulette wheel in the Argentinean casino Mar del Plata during 1948. The participants were colorfully described as a Nazi sailor and various 'fruit hucksters, waiters and farmers'.
Using physics and computers
Henri Poincaré
The second type of exploit is more physical (that is, deterministic) than purely statistical and has consequently attracted the attention of several mathematicians, physicists and engineers. One of the first was Henri Poincaré in his seminal work Science and Method. While ruminating on the nature of chance, and that a small change in initial condition can lead to a large change in effect, Poincaré illustrated his thinking with the example of a roulette wheel (albeit a slightly different design from the modern version).
He observed that a tiny change in initial velocity would change the final resting place of the wheel (in his model there was no ball) such that the wager on an either black or red (as in a modern wheel, the black and red pockets alternate) would correspondingly win or lose. He concluded by arguing that this determinism was not important in the game of roulette as the variation in initial force was tiny, and for any continuous distribution of initial velocities, the result would be the same: effectively random, with equal probability. He was not concerned with the individual pockets, and he further assumed that the variation in initial velocity required to predict the outcome would be immeasurable. It is while describing the game of roulette that Poincaré introduces the concept of sensitivity to initial conditions, which is now a cornerstone of modern chaos theory.
The first roulette computer
A general procedure for predicting the outcome of a roulette spin, and an assessment of its utility was described by Edward Thorp in a 1969 publication for the Review of the International Statistical Institute. In that paper, Thorp describes the two basic methods of prediction. He observes (as others have done later) that by minimizing systematic bias in the wheel, the casinos achieve a mechanical perfection that can then be exploited using deterministic prediction schemes.
He describes two deterministic prediction schemes (or rather two variants on the same scheme). If the roulette wheel is not perfectly level (a tilt of 0.2◦ was apparently sufficient — we verified that this is indeed more than sufficient) then there effectively is a large region of the frame from which the ball will not fall onto the spinning wheel. By studying Las Vegas wheels he observes this condition is meet in approximately one third of wheels. He claims that in such cases it is possible to garner a expectation of +15%, which increased to +44% with the aid of a ‘pocket-sized' computer. Some time later, Thorp revealed that his collaborator in this endeavor was Claude Shannon17, the founding father of information theory.
| Math professor Ed. Thorp |
Richard A. Epstein
In his 1967 book the mathematician Richard A. Epstein describes his earlier (undated) experiments with a private roulette wheel. By measuring the angular velocity of the ball relative to the wheel he was able to predict correctly the half of the wheel into which the ball would fall. Importantly, he noted that the initial velocity (momentum) of the ball was not critical. Moreover, the problem is simply one of predicting when the ball will leave the outer (fixed rim) as this will always occur at a fixed velocity. However, a lack of sufficient computing resources meant that his experiments were not done in real time, and certainly not attempted within a casino.
The Eudaemons
Roulette How To Predict Where The Ball Will Landslide
Subsequent to, and inspired by, the work of Thorp and Shannon, another widely described attempt to beat the casinos of Las Vegas was made in 1977-1978 by Doyne Farmer, Norman Packard and colleagues, who's team was called 'The Eudaemons'. It is supposed that Thorp's 1969 paper had let the cat out of the bag regarding profitable betting on roulette. However, despite the assertions of Bass, Thorp's paper is not mathematically detailed (there is in fact no equations given in the description of roulette). Thorp is sufficiently detailed to leave the reader in no doubt that the scheme could work, but also vague enough so that one could not replicate his effort without considerable knowledge and skill.
Farmer, Packard and colleagues implemented the system on a 6502 microprocessor hidden in a shoe and proceeded to apply their method to the various casinos of the Las Vegas Strip. The exploits of this group are described in detail in Bass. The same group of physicists went on to apply their skills to the study of chaotic dynamical systems and also for profitable trading on the financial markets. In Farmer and Sidorowich's landmark paper on predicting chaotic time series the authors attribute the inspiration for that work to their earlier efforts to beat the game of roulette.
Roulette How To Predict Where The Ball Will Land Cruiser
The Ritz casino attack
Less exalted individuals have also been employing similar schemes, in some cases fairly recently. In 2004, the BBC carried the report of three gamblers (described only as 'a Hungarian woman and two Serbian men') arrested by police after winning £1,300,000 at the Ritz Casino in London. The trio had apparently been using a laser scanner and their mobile phones to predict the likely resting place of the ball. Happily, for the trio but not the casino, they were judged to have broken no laws and allowed to keep their winnings.
The physics approach
Get The Edge At Roulette How To Predict Where The Ball Will Land Christopher Pawlicki
In their 2012 paper, Predicting the outcome of roulette, Michael Small and Chi Kong TseThe come to these conclusions:
First, deterministic predictions of the outcome of a game of roulette can be made, and can probably be done in situ. Hence, the tales of various exploits in this arena are likely to be based on fact.
Second, the margin for profit is quite slim. Minor manipulation with the frictional resistance or level of the wheel and/or the manner in which the croupier actually plays the ball (the force with which the ball is rolled and the effect, for example, of axial spin of the ball) have not been explored here and would likely affect the results significantly.
Roulette How To Predict Where The Ball Will Land Of The World
Hence, for the casino the news is mostly good. Minor adjustments will ameliorate the advantage of the physicist-gambler. For the gambler, one can rest assured that the game is on some level predictable and therefore inherently honest.
