doronshadmi
Penultimate Amazing
- Joined
- Mar 15, 2008
- Messages
- 13,320
EDIT:
Furthermore, Koch fractal can be found by using only non-locality (a single bended line):
Try to use only points (localities) in order to define Koch fractal, and you get no more than a single point (the line's bended levels are collapsed into a single point).
Koch fractal (finite or not) actually can be defined by using only a single line (non-locality), which is actually a 1-dim element over finite of infinitely many bended (scale) levels, which is not composed by segments AND no 0-dim is found along it (we do not need a point nor a segment in order to bend a line).
n= 1 to ∞
k = 0 to n-1
In general, we do not need k-dim elements or a collection of n-dim elements in order to define a bended n-dim element.
In that case the Koch fractal is some representation of the non-local atomic aspect, which is not the same as a Koch fractal that is defined by collections of n-dim elements or n-dim AND k-dim elements.
Furthermore, Koch fractal can be found by using only non-locality (a single bended line):
Try to use only points (localities) in order to define Koch fractal, and you get no more than a single point (the line's bended levels are collapsed into a single point).
Koch fractal (finite or not) actually can be defined by using only a single line (non-locality), which is actually a 1-dim element over finite of infinitely many bended (scale) levels, which is not composed by segments AND no 0-dim is found along it (we do not need a point nor a segment in order to bend a line).
n= 1 to ∞
k = 0 to n-1
In general, we do not need k-dim elements or a collection of n-dim elements in order to define a bended n-dim element.
In that case the Koch fractal is some representation of the non-local atomic aspect, which is not the same as a Koch fractal that is defined by collections of n-dim elements or n-dim AND k-dim elements.
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