While I still have much to say, I will limit my post to talking about a few topics for the moment, and if discussion here is fruitful we can branch back out to other things. Furthermore, for the moment, I will drop my points about the real line and Zeno's paradox (for the moment, mind you!). I feel that neither of us will be able to convince the other of anything unless we both have a firm understanding of the other's ideas.
To that extent, I have two questions I would like you to answer when you get the chance.
Firstly;
sanelunatic said:
I’m assuming you accept the completeness of the reals (you should, its axiomatic), that is to say that if a,b are points on the real number line a+b and ab are also points on the real number line
Wrong assumption, any collection is incomplete with respect to actual infinity (that its minimal form is an edgeless line), or to actually finite (that its minimal form is a point).
When I say you should accept it, I mean there is a problem if you do not, a problem with mathematics.
The closure of the real number line under multiplication and addition is an
axiom of mathematics.
For those not familiar with the term, an axiom is an idea that is accepted, without proof because it is "obviously true" or so goes the classical phrasing. There are (in classical algebra) 10 axioms.
They are, for those unfamiliar:
1) Closure: if x and y are in a set x + y and xy are also in the set
2) Commutativity of addition: x + y = y + x
3) Associativity of addition: (x + y) + z = x + (y + z)
4) Additive identity: There exists an element which we will denote 0 such that x + 0 = x
5) Additive inverse: There exists an element which we will denote -x such that x + -x = 0
6) Associativity of multiplication: (xy)z = x(yz)
7) Distributive law: x(y + z) = xy + xz
8) Commutativity of multiplication: xy = yx
9) Multiplicative Identity: There exists an element which we will denote 1 such that 1x = x
10) Multiplicative Inverse: There exists an element which we will denote x
-1 such that x
-1x = 1
Not all of these are
absolutely necessary for math to make sense, particularly numbers 6+. By removing some of these we can obtain structures such as rings; however, "standard math" would accept all 10.
My first question is this:
Are there any of these axioms that you feel are either: untrue, true only in some cases or require any changes in order to be true. Additionally, do you feel that there are any axioms that should be added to this list?
This, for me at least, is the single most important question you can answer.
The second point I would like to address is your notion of an Atomic state. To quote your paper that I referenced in my last post:
Atomic state is an existing thing that has no sub-existing things...
You also state
In order to be expressed beyond the atomic state, we suggest at least two existing things that are linked to each other, without deriving from each other.
This seems to be a somewhat related concept to the standard notion of dimensionality and the basis of a set.
To express the notion loosely, a set B is a basis of a given set X provided that:
1) By combining, in various ways, the elements of B I can produce any element of X (and no elements not in X).
2) I can not, by combining in any way, form one element of B from any of the other elements of B.
Furthermore, if the set B has n elements, we refer to the set X as being n-dimensional.
This, of course, is not the formal mathematical definition (and if anyone is interested in seeing the formal definition, I suggest wikipedia); however, I feel this clearly communicates the idea.
My second question is this.
What do you think about the standard notion of dimensionality and the basis of a set with respect to your notions of atomic state and linkage? Do you feel that the two notions are essentially the same? Do you feel that one notion is lacking somehow? If so, how?
If you can answer, in part or in whole, those two questions it would greatly abet me in understanding your ideas.