doronshadmi
Penultimate Amazing
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- Mar 15, 2008
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zooterkin 


The Man said:What? That “(1/2+1/4+1/8+…) - (1/2+1/4+1/8+…) = 0” is a key element of the proof that such a convergent series has a sum.
Not at all.
Two sizes of the same incompleteness have result 0 if they are subtracted from each other.
The real problem here is 1 – (1/2+1/4+1/8+…) and Archimedes did prove that it = 0.
The self similarity over scales clearly shown also by the following diagram, where the values 1,2,4,8,16,32,… etc. are not reached, ad infinituum:
[qimg]http://farm5.static.flickr.com/4062/4405947817_0146693fb4_o.jpg[/qimg]
In other words:
1 – (1/2+1/4+1/8+…) > 0
The real problem here is 1 – (1/2+1/4+1/8+…) and Archimedes did prove that it = 0.
2 - (1/1+1/2+1/4+...) > 0
4 - (2/1+1/1+1/2+...) > 0
...
etc. ad infinituum/
All you did is to show that an infinite interpolation has no accurate sum (in your language it is about 1.814…), which is exactly the same result of my infinite converges series, which has an invariant length of Koch's fractal > 0 that can't reach the limit value, which is exactly 0.
And I also showed it without using any circle, but simply show how the convergent length between the opposite edges of the Koch's fractal can't be 0, as long as these edges are in common with the invariant length of the Koch's fractal, upon infinitely many bended levels
zooterkin![]()
Oh, and happy birthday zooterkin.
Thanks!
The Man said:What so now 1 has “the same incompleteness” as “(1/2+1/4+1/8+…)”? Again what Archimedes proved is that an infinite convergent series has a finite sum and in this case it is 1
Further assumptions based on your simple assumption that the “(1/2+1/4+1/8+…)” has no sum are just as invalid as your initial assumption, which again was proven wrong some 2,300 years ago.
jsfisher said:only the generation limit is a fractal.
Exeactly the opposite, only the incomplete generation is an infinite fractal.
Again, 1 is not a fractal....
The Man, 1 is an accurate value where (1/2+1/4+1/8+…) does not have an accurate value.
As a result 1 – (1/2+1/4+1/8+…) = 0.000…1[base 2]
If you think that X+X = accurate value, you simply wrong, because 2X, 4X, 8X etc … do not have accurate values, and Archimedes did not prove that any of 1X, 2X, 4X, 8X ,16X , 32X … etc. have accurate values, and the following diagrams are a proof without words that Archimedes initial assumption was wrong:
[qimg]http://farm5.static.flickr.com/4062/4405947817_0146693fb4_o.jpg[/qimg]
No, you got a big fail on this for multiple reasons.
First, you still continue to refer to the generations of Koch's curve as a fractal. This is pure ignorance on your part; only the generation limit is a fractal.
Second, you have not actually proven the curve generations under your length invariant constraint fit your "lute of doron" shape. It is trivial to do, but you seem unable to actually do it.
Third, you claim (in effect) the distance between the end points of any Koch curve generation cannot be zero in your construction. While the statement is true (but completely beyond your ability to prove, I suspect), it does not let you draw your bogus conclusion about the limit.
Fourth, you make a baseless assumption relating end-point distance and overall curve length for the limiting case in your Koch curve construction.
Fifth, you still insist on using the bogus word "bended".
For your original construction of Koch's snowflake, your argument was equally deficient, but the focus then was the relationships of area and perimeter.
Again the basis of Archimedes proof are self similarity
No, it has an incomplete area based on infinite interpolation that has no accurate sum.
You still do not get that any infinite collection is inherently incomplete, whether it is expressed as infinite interpolation or infinite extrapolation.
All you did is to show that an infinite interpolation has no accurate sum (in your language it is about 1.814…), which is exactly the same result of my infinite converges series, which has an invariant length of Koch's fractal > 0 that can't reach the limit value, which is exactly 0.
And I also showed it without using any circle, but simply show how the convergent length between the opposite edges of the Koch's fractal can't be 0, as long as these edges are in common with the invariant length of the Koch's fractal, upon infinitely many bended levels, here it is again (no circles are used):
[qimg]http://farm5.static.flickr.com/4034/4423020214_87676ef96b_o.jpg[/qimg]
You simply have no real notion of the inherent incompleteness of infinite collection (and in this case, infinite collection of bended levels).
A finite value has an accurate sum, an infinite value does not have an accurate sum, but you simply can't get it because you do not understand the real nature of infinite interpolation\extrapolation.
Again, the convergent length between the opposite edges of the Koch's fractal can't be 0 (where 0 is the value of the limit), as long as these edges are in common with the invariant length of the Koch's fractal, upon infinitely many bended levels, as shown above, but you prefer to ignore this proof without words, because it does not fit your Limit-oriented notion, which is obsolete.
Exactly because the Koch's fractal has an invariant length > 0 , there are infinitely many bended levels that can't reach the value of the limit, which is exactly 0.
The limitation is entirely the result of your Limit-oriented approach, that prevents the notion of infinite interpolation\extrapolation, which is inherently non-limited.
You do not get that in my model there is no dichotomy between invariant AND convergent length, as clearly shown and explained above, but you can't get this anomaly because you are using a model that is based on dichotomy.
Both Wiki sources are not based on the qualitative difference between the local and non-local atomic aspects that send at the basis of any complex like Set (for example).
Again an obsolete knowledge is used by you The Man, which is irrelevant to OM's novel notions, of this subject.
No, the incompleteness of a collection is not closed under Class, where a set is a particular case of a collection that is closed under Class.
Since any infinite collection (where a set is a particular case of a collection that is closed under Class) is inherently incomplete (it has a “Trojan horse”), it does not have "closed gates".
You simply ignore the inherent incompleteness of any collection, whether it is closed under Classes or not.
Again, the "“sudden effect” is the result of your obsolete Limit-oriented notion of this subject.
No, it is about an anomaly of the standard model, which shows how a length can be both invariant AND variant (converges, in this case) in a one model.
This is another example of your inability to understand the generalization of this subject.
Again, If it is a member (and least upper bound) then it is the finail element of that collection.Any infinite collection is inherently incomplete, or in other words, any given element of that collection is not its final element, and order has no impact on that fact.
On the contrary, your Limit-oriented notation, can't get the model where both invariant AND variant (converges, in this case) length are found.
Your built-in dichotomy of your notions simply can't get this anomaly of Standard Math model of this subject.
A typical reply of a person that uses built-in dichotomy and Limit-oriented notions of this subject.
How boring.
You still do not get it do you?
So let us improve the proof without words, but using Koch's fractal.
1) Take a straight 1-dim with length X.
2) Bend it and get 4 equal sides along it.
3) Since the length between the opposite edges is changed to the sum of only 3 sides
...and since the number of the sides after the first bending is 4 sides, we have to multiply the bended 1-dim element by 1/(the number of the bended sides), in order to get back length X.
As a result the bended 1-dim element has length X, but the length between its opposite edges becomes smaller
...(it converges).
Congratulations, you now have a square.You still do not get it do you?
So let us improve the proof without words, by using Koch's fractal.
1) Take a straight 1-dim with length X.
2) Bend it and get 4 equal sides along it.
Project much?
You mean a line segment of length X? You really, really need that dictionary.
Sloppy, sloppy, sloppy. Koch was never so sloppy as this in describing his procedure for generating each next iteration. You need to accurately describe what the result of this bending needs to be, yet you didn't.
By the way, line segments, even bent ones, don't have sides.
That presupposes many things not stated in Step 2. So, this is another fail for doron.
How about we just set aside your gibberish and assume you meant for Steps 2 and 3 that we applied Koch's procedure and then shrunk it by 3/4 to hold the overall length of the result constant.
Under my description of the steps, sure; under yours, not so much. In other news, "bended" is still not the right word to use here.
Another doron failure. So far, your steps take you from a line segment to line segment with a triangular bump in the middle. Perhaps you meant to reapply Steps 2 and 3 to the individual line segments in the current result to get the next result?
No wonder you get so much wrong. You just keep jumping from assumption to wrong conclusion without the least consideration for any gap between the two.
So, why not go back to my post and actually address my points rather than wasting our time with this failed tangent.
Congratulations, you now have a square.
Where is the squere in _/\_ ?