doronshadmi
Penultimate Amazing
- Joined
- Mar 15, 2008
- Messages
- 13,320
...and then a 20-unit line segment would be a non-composed object. A 20-unit line segment could be situated completely "at" a 40-unit line segment. That would make the 20-unit line segment "local" to the 40-unit line segment.
Do you want to make any last minute changes to your definition, Doronshadmi?
Thank you for your post.
Changes are always welcome, if they make things more simple and accurate.
So, let's simplify my definitions of locality and non-locality.
We can actually use only one definition as follows:
The definition of Locality:
If non-composed X is entirely at Y, then non-composed X is local w.r.t Y, otherwise non-composed X is non-local w.r.t Y.
Examples:
A non-composed line segment X with length 20 is non-local w.r.t any lower dimensional space (for example 0-dimensional space, known as a point) along it, and it is local w.r.t a given line segment with length 40, only if it is entirely at its domain.
0-dimensional space can't be but local w.r.t any given space, by the following definitions.
This is not the case about dimensional spaces > 0, they can be local or non-local w.r.t a given dimensional space exactly because their non-composed aspect have length > 0.
I do not see how Classical Logic provides the needed reasoning that enable a collection of a objects of, for example 0-dimesional objects (which have exactly 0 length for each object) to be an object with more than 0 length.
Please show to the posters here how (by using Classical logic) a collection of 0-dimesional objects (which have exactly 0 length for each object) can be an object with more than 0 length (the term "aspect" means that dimensional spaces can be fractional (for example 0.999...10, which is a composition of the two non-composed building-blocks 0 and 1 dimensional spaces).

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