I don't think you are missing anything, but it's obvious the rest of us are 

I am sure we would appreciate if you could explain the relation.

Find out the relations, the antagonistics.

At spin 4 my pigeonhole corresponding to odd spin 1 has two elements. Reset

Quote from: 6th-sense on Mar 11, 12:44 PM 2023Again...why name yourself Dyslexic? in relation to Professor Dijkstra ?

I'm assuming the name itself has to do with "order". I'm not sure how exactly it's related to Dijkstra, perhaps it has to do with subsequnces and their relations?

Quote from: ati on Mar 16, 06:40 PM 2023I'm assuming the name itself has to do with "order". I'm not sure how exactly it's related to Dijkstra, perhaps it has to do with subsequnces and their relations?

yes....

Quote from: Drazen on Mar 11, 04:33 PM 2023I don't think you are missing anything, but it's obvious the rest of us are 

I am sure we would appreciate if you could explain the relation

i am considering doing this excact thing....

One, two,
Freddy's coming for you.
Three, four,
Better lock your door
Five, six,
grab a crucifix.
Seven, eight,
Gonna stay up late.
Nine, ten,
Never sleep again....

What fascinates me is that on one side you have people saying how simple it is once you know the solution...


"No, I'm not using a tracker. If you know what you are looking for it is easy to see!"

"But, I decided not to neatly package the info because the system is so easy to remember"

"It is so simple that an idiot can learn it."

"I said that I bet 2 THINGS: what could those 2 things be? It is really very simple!"

"It is simple."

"I could explain the system in 4 senteces..."

On the other hand, you have riddle after riddle, after riddle... Sunrise, Sunset, 2 planets, rotations, what not...
You have layer upon layer upon layer of mathematical principles, theorems and concepts used to create the bet...

Mind bending indeed 

Cheers

You forgot one.

We can easily find the related roulette numbers, so betting on the derived sets is rather simple.

Imagine that you have an apple tree growing in your garden without one important branch. And someone said that if you can grow this extra branch, then you can harvest gold bars from it year after year. But an apple tree cannot turn into a golden klondike - such is its nature, its genetic codes are tuned to produce only apples. So the wheel - 2.7%, no system will crack.

Let's face it. I'll try to be a detective) Waddy found out about the law of 2/3 and really managed to win (hmm, I myself spent 10 sessions playing Turbo systems and did not lose a single one, but then I tested on RX and it crashed). Since there was a lot of adrenaline in his body, he believed that this was really the grail and, on emotions, began to preach about his achievements. But then suddenly disappeared - adrenaline over? Weird tricks.

Or their level of presentation of the material is so well encrypted that they surpassed the Masons and the Illuminati, using roulette symbolism to explain the systems. That is, in each system, the essence is explained in the language of symbols, but we cannot understand what, for example, the symbol means Sunrise, Sunset, etc. Perhaps behind these words are deeper thoughts that lead to the system. I don't know, it doesn't sound like crap. My personal opinion.

Carpediem posted this a few months ago. I think it's very insightful. I think there is something there. I can't interpret it but I think it's there. I just can't figure it out. I have tried very hard. I very much appreciate all the help Gordon and others have posted. I just can't get there unfortunately. I do believe there is something though.

Carpediem post:

If you are only observing the effect, you'll get nowhere. Cycles and statistics will get you nowhere.
Taking single numbers into account, what causes 99,99... % of the time a repeater on the Low partition on singles? A repeat on the last 18 numbers.(see 1st post in this thread)
Anyone that has a working method has an answer to this question.
The answer can only be this: you will chose not to play a guessing game. You will forget about hope and the 1000 other methods you read on online forums(including this one). They will lead you to perdition. Forget hot numbers and cold numbers. They are an illusion. Substitute the numerals with 37 types of cars. Or 37 names of people.37 words. Now, you are already ahead of the game. There are no "dozens", no "even chances", no "colors" or "quads"

IF you were to bet on a spun number,your sequence from hell will be this: all 37 numbers appearing in the last 37 spins. No way around that. Table limts and unfair payout will lead you to Minus.
You will probably have to wait for the extinction of life on Earth and Death of the Universe, but say for the sake of it, imagine you are there with a roulette wheel and you got that run from hell.
Once a 37 spin cycle ends, you will observe something: the number of unhits  equals the number of 1+ display.(record this in your mind)
That is the balanced state.
You now that have restricted the play session to max 37 spins, and as you have limited the number of permutations, you've cut one (out of the many) Random tentacles.
If you play only hit numbers, you will lose.
If you play only unhit numbers, you will lose.
So obviously, within a 37 spaces game, the winning bet has to include both the hit and unhit numbers. At the same time.
Your goal will be to achieve Balance.
At the end, from chaos(roulette spins), you will get order.
There are 2 school of thought, one that focuses on Repeaters (chaos) another one that focuses on End State:Ballance(order). Both can be used to profit.
The law of large numbers is your number 1 enemy. Play the same numbers, the same color and same method(bet) and you will lose.
All methods fail unless you find ballance.
This thread initiated by rrbb is not the Holy Grail, but it gives you food for thought. Remember from this thread only this:
1)repeaters happen on the Low side of the dynamic appearances 99 percent of time. That is just 1 principle.
2) you need to create a game, where you set up dependancies. Divide everything by half, then create opposite pairs. The color, the perfume, the class Name of the pairs does not matter in this selection. The pairs need to be mutually exclusive.
The only way to exploit the dependancies is to seek the balance. That is all.

The strange case of The Pigeon-hole Principle
If you come to think about it, The Pigeon-hole Principle presents a case that is curious in more than one respect.

It has a remarkably high status: it has a special name, under which it is well-known; Ross Honsberger even calls it "A fundamental tool of combinatorics".

It is surrounded by some mystique. Proofs using it are often regarded as something special, something particularly ingenious. This feeling of awe is, for instance, nicely reflected by Honsberger when he concludes one of his examples with "(Another triumph of the pigeonhole principle.)".

Its usual formulation is —as we shall see in a moment— unfortunate. Let me quote Honsberger once more —there is nothing special about me quoting Honsberger all the time: one of his books just happens to lie on my desk—:

"if more than n objects are distributed into a set of n compartments, some compartment must receive [ for "must receive" read "receives", EWD] more than one of the objects."
(Instead of "more than n" one often encounters the more specific "n + 1".)
My feeling is that these three observations are not unrelated.

*      *      *
To begin with, let me formulate the Purified Pigeon-hole Principle (PPP):

"For a non-empty, finite bag of numbers, the maximum value is at least the average value."
It is a generalization, because in the old formulation, it would be (OFPP)

"If more than n·k objects are distributed into a set of n compartments, some compartment receives more than k of the objects."
I think it is illuminating to analyze the differences between those two formulations (in what I consider increasing order of seriousness):

PPP does not mention n and k explicitly; this eases the application, because the conscientious application of OFPP would require explicit instantiations of n and k.
OFPP is very operational; it would have been less so, had "are distributed" and "receives" had been replaced by "have been distributed" and "contains" respectively. The metaphor drags a process into the picture, where only the final state matters. (This is really serious, for what if "the objects are already in the compartments"? Well, of course we could have put them there, but then some people feel obliged to argue that we could have done so in "arbitrary" order: irrelevantia in the formulation of a theorem have the awkward consequence that the conscientious user of the theorem has to demonstrate their irrelevance.)
OFPP mentions "objects" and "compartments", things that have nothing to do with the theorem. I know that some people believe that the introduction of such things "ease the visualisation", but I think the price too heavy to pay. When dealing with natural numbers, we should be able to deal with them in their own right and not be forced to introduce "objects" counted by them! (It is really like representing natural numbers in a unary number system, with the well-known difficulty of "the invisible zero".) Also, one may have to invent "compartments" that don't "look" like compartments at all. The "mystique" of the Pigeon-hole Principle is partly due the sometimes surprising invention of "objects" and the "compartments".
*      *      *
Let me now relate to you two stories about the Pigeon-hole Principle that both amazed me; for me —but perhaps I am sensitive to the point of allergy— they suggest that the traditional Pigeon-hole Principle is a focal point of how mathematics is (but not should be) taught.

A few weeks ago I was told "The Problem of the Soccer Toto". (Not knowing the rules of the soccer toto, I got the explanation; for your benefit I shall repeat them.)

On a given Sunday, 13 soccer matches will be played. Each match has one of three possible outcomes, denoted by "1", "2" and "X" respectively. Hence there are 313 possible Sundays. For our purpose "Sunday" will be one of those 313 possible "columns" of height 13, with in each line one of the three permissible entries 1, 2 or X.

A toto form consists of a row of blanc columns of height 13; its user is free in his choice of the number of columns he is going to fill in. The question is to devise a strategy for filling in the minimal number of columns so that at least 1 column coincides with Sunday in at least 5 entries. Here we go.

Forget about the 5: what if at least 1 column should coincide with Sunday in at least 1 entry? Two columns won't do, for Sunday then could contain for each line an outcome missing in the corresponding line of the toto form. With 3 columns such that at least one row contains all three outcomes, at least one coincidence —in that row— is guaranteed. So far we needed 3 columns and have used only one row. Can we use the remaining 12 rows to increase the score? By filling those each with some permutation of the three outcomes, we force in each row precisely one coincidence with Sunday. Make in each column the count of coincidences: their sum being 13, their average is 4⅓. and their maximum (PPP) is ≥5. End of argument (heuristics included). Notice that there was no need at all to interpret the form as a table defining how, indeed, each object (=match) was placed in one compartment (=column).

But suppose that the question had been different: given a form in which 4 columns have been filled in such that each row contains each of the three possible outcomes, can you show that at least 1 column coincides in at least 4 entries with Sunday? Now the total number of coincidences is ≥13, the average count is ≥3¼, and hence the maximum count is ≥4. Please notice that in this case the metaphor of putting objects (=matches) into compartments (=columns) creates problems: an object may "occupy" two compartments! (It is utterly predictable how the average mathematician will save his face: "Sure! If generalize the problem, I don't take the matches but the coincidences as my objects! I would have done so right at the start, would I have known that you would generalize the problem!") So much for the avoidable obligation of identifying the "objects".

But now the sad part of the story. The colleague that posed me this problem had been challenged with it by one of his graduate students. When we met again he was utterly amazed to hear that the problem could be solved without pen and paper, and when I told him my solution, he looked so puzzled that I am not sure he understood it. "Of course I know the Pigeon-hole Principle, but I never.....", and then wandering thoughts prevented him from completing the sentence. Was he still looking for the objects and the compartments? The way he had been introduced to the principle and all the imaginations that went with it was obviously a barrier to its straight-forward application. I felt that I had had a glimpse of something frightening.

The second story concerns my preparation of a lecture on the Pigeon-hole Principle: I wanted to show my students the most spectacular application of it I had ever encountered. I scratched my memory, and then I remembered: the lower bound for the length of the longest monotonic subsequence! I remembered my thrill, but had forgotten the argument, which I then set out to construct.

Let me state the problem first. We consider a sequence of numbers a.i with 0 ≤ i < N. We get a subsequence of length n by removing some N - n elements from the sequence and retaining the remaining ones in their original order. It is called "an upsequence" provided for any a.i and a.j in the subsequence we have

i < j ⇒ a.i ≤ a.j ;
in the case that we have
i < j ⇒ a.i ≥ a.j ;
it is called "a downsequence".
Let U be the length of a longest upsequence contained in the given sequence, and let D be the length of a longest downsequence contained in it. Prove that N ≤ U·D holds.

The argument I came up with went as follows. Let us construct U·D different labels; if we can now devise a regime that assigns to each element a distinct label, then N —being the number of labels used— is at most U·D —being the number of labels available.

How do we construct U·D different labels? The simplest way I can think of is all the integer pairs (u,d), with 1 ≤ u ≤ U and 1 ≤ d ≤ D. How do we devise a regime that assigns for i < j different labels to a.i and a.j? In order to relate the regime to up- and downsequences, we observe

i < j ⇒ a.i ≤ a.j ∨ a.i ≥ a.j
i.e. a.j can be used to extend either an upsequence or a downsequence ending at a.i. This observation reveals the regime: assign to a.i the pair (u,d) with u (and d) the maximum length of an upsequence (and a downsequence respectively) that ends at a.i. This guarantees
that distinct elements get distinct labels
that each label (u,d) needed satisfies 1 ≤ u ≤ U and 1 ≤ d ≤ D.
I was quite pleased with the reconstruction of this argument, until I realized that what used to be "a triumph of the Pigeon-hole Principle" no longer used the Pigeon-hole Principle at all!

I could reintroduce an appeal to the Pigeon-hole Principle, but only by a contorted rephrasing. [ Identify the elements with objects, the labels with compartments; assume N —the number of objects— to exceed U·D —the number of compartments—; then —PP— at least one compartment would contain more than one objects, which contradicts that distinct elements get distinct labels. Hence N does not exceed U·D. ]

Remark It is in this connection noteworthy that no one I asked formulated the Pigeon-hole Principle as follows: " With objects distributed into compartments such that each compartment contains at most one object, the number of objects is at most the number of compartments". It is logically equivalent to the original formulation, but looks quite different. And that, presumably, is precisely the trouble. (End of Remark.)

With its physical, object-oriented formulation, the classical Pigeon-hole Principle is very vivid, almost catchy. And there lie precisely its major shortcomings: the problem caused by such object-oriented formulation is that A ⇒ B and the logically equivalent "counter-positive" ¬B ⇒ ¬A invite completely different visualisations. The moral of the story seems to be that we should sharply distinguish between good mathematics and public relations.

Austin, 19 September 1986

prof. dr. Edsger W. Dijkstra
Department of Computer Sciences
The University of Texas at Austin
Austin, TX 78750–1188
United States of America

transcribed by Martijn van der Veen
revised Thu, 27 May 2010

Quote from: 6th-sense on Mar 20, 06:16 PM 2023To begin with, let me formulate the Purified Pigeon-hole Principle (PPP):

just like to add..PPP CONCEPT...strange coinincidence to the original win3million bet the PPPC bet

Quote from: 6th-sense on Mar 20, 06:20 PM 2023just like to add..PPP CONCEPT...strange coinincidence to the original win3million bet the PPPC bet

Hello,
what do you mean by 'original PPPC bet'? As far as I know, it was never described in any practical way. There were plenty of divagations about the bet (CWB). Some of them were: EC combo: bet the last outcome + bet against the last outcome + bet decision before the last outcome. Another: combination of 2x EC + 1x column. Probably many more I don't remember at the moment