Let us see: “0 extensions” is superfluous exactly “0 members” is superfluous in the case of the empty set.
“1 extensions” is superfluous exactly “1 members” is superfluous in the case of non-empty set.
Let’s see: your “0 extensions” is superfluous in the case of the empty set having exactly, well, “0 members”.
Likewise your ““1 extensions” is superfluous in the case of a set with exactly “1 members” being, well, non-empty.
Got any more exactly superfluous comparisons you’d like to make?
You don’t get the generalization of these notions.
You still don’t get that just making up whatever (extended or otherwise) crap you want does not constitute a “generalization”.
No the man, it would be an additional property which distinguishes between at least two kinds of building-blocks, where building-blocks are called elements (element is non-composed).
In a set of the properties of your “building-blocks” those properties are elements of that set as those properties are also elements of your “building-blocks”.
Certainly not, each dimensional space that is represented by whole values is a building-block that has its own magnitude, and yet these building-blocks share the same concept (Dimension, in this case).
Again what “concept (Dimension, in this case)” are you referring to?
So your properties are not elements of your “building-blocks”?
For example: 1 dimensional space + 1 dimensional space ≠ 2 dimensional space, because no 1 dimensional space (and you can add infinitely many 1 dimensional spaces) has the magnitude of 2 dimensional space (which is a building-block).
Well of course no 1 dimensional space has two dimensions or it would be, well, 2 dimensional. However this restriction of yours that two 1 dimensional spaces do not comprise a 2 dimensional space restricts only you.
Wait, so now you can have a set of “infinitely many 1 dimensional spaces”?
You actually say: “identify some location (use 0 dimensional space) on that line (on 1 dimensional space) not covered by points (not covered by 0 dimensional spaces)” .
I actually say what I actually said. Although your attempt to paraphrase did far better this time than you usually do. However to be precise your paraphrasing should read ‘identify some location (a 0 dimensional object) on that line (in 1 dimensional space) not covered by points (not covered by 0 dimensional objects).
So have you found such an ‘uncovered’ location yet.
Again, it is a matter of different magnitudes.
No Doron it is specifically a matter of dimension. A point has none while two points defines one.
For example: 0 dimensional space + 0 dimensional space ≠ 1 dimensional space, because no 0 dimensional space (and you can add infinitely many 1 dimensional spaces) has the magnitude of 1 dimensional space (which is a building-block).
Doron, once again two points define a line segment which is one dimensional. Your simple and continued ignorance of that fact does not change that fact.
As a result given infinitely locations (where each location is 0 dimensional space) upon infinitely many scale levels, there is always a 1 dimensional space at AND beyond any given 0 dimensional space, because 1 dimensional space extends the magnitude of 0 dimensional spaces.
Again if you think a line or line segment is not completely covered by points then indentify the locations on that line or line segments you claim to be not covered by points.
“just the number of dimensions of some given space” requires magnitude X that enables more than 0 degrees of freedom for any given magnitude X w.r.t any given magnitude < magnitude X.
0 dimensional space has magnitude A.
A 0 dimensional space or object has no “magnitude” as it has no dimension.
0 dimensional space has 0 extensions of the concept of Dimension because there is at most 0 degrees of freedom of Magnitude A w.r.t Magnitude A.
“extensions”?, How and to where?
1 dimensional space has magnitude B.
1 dimensional space has 1 extensions of the concept of Dimension, which is resulted by at most 1 degrees of freedom of Magnitude B w.r.t Magnitude A.
2 dimensional space has magnitude C.
2 dimensional space has 2 extensions of the concept of Dimension, which is resulted by at most 2 degrees of freedom of Magnitude B w.r.t Magnitude A.
Etc ... ad infinitum ...
“extensions”?, How and to where?
Etc ... ad infinitum
a) 1 dimensional space + 1 dimensional space = 2 dimensional spaces of at most 1 degrees of freedom for each dimensional space.
b) 2 dimensional spaces of at most 1 degrees of freedom for each dimensional space ≠ 2 dimensional space that has 2 degrees of freedom.
Your assertion, so simply your restrictions.
You still do not get the notion that a line segment is a composed result of dimensional spaces, which its magnitude > 0 AND < 1, and in the case of 0.999...[base 10], this intermediate dimensional space is > 0 dimensional space and < 1 dimensional space by 0.000...1[base 10], which is the inaccessibility of magnitude of 0.999...[base 10] to magnitude 1, where both 0.999...[base 10] and 0.000...1[base 10] are fogs (non-local numbers, where summation is essentially not their property).
You still don’t get the notion that your fogs are deliberate and simply just yours. Still that does not change the fact that they are one dimensional as line segments.
Is that simply your problem, your inability to distinguish a 0 non-composed dimensional space (a point) from a 1 non-composed dimensional space (a line) , which are the building-blocks of a composed result like a line segment?
Nope as those are your restrictions it remains just your problem.
The Man.
There is a distinction between the magnitude of a line segment, which is a composed object with certain or uncertain length, and the magnitude of a given dimensional space (which is a non-composed element).
Doron, a line segment can be “a given dimensional space” or it can just be a object in some space with at least one dimension.
For example:
If we take a line as a dimensional space of magnitude 1, then along it there can be finitely or infinitely many line segments (composed objects), where their magnitudes is less than 1 because each line segment is the result of an intermediate magnitude of value > 0 AND < 1.
Again this deliberate ‘indeterminism’ is simply and entirely yours.
You seem to be confusing, again perhaps deliberately, the 1 dimensionality of a line and of lines segment with its length.
So now you can have a set of “infinitely many line segments”.