Yes, but the fact that this has been pointed to him does not mean he acknowledges/understands that. All I am saying is that there is a communication problem here. No real dialog will take place unless all parties agree on the terms used.
Well, to be honest, the main reason for me to return to this thread is that it actually feels like a sitcom. Doron being Archie and me the long-haired meatball
Nothing changes until either 'we get it' (i.e. concede) or Doron figures out a way to show what his brainchild can actually 'do'.
Because, even though to date Doron has not shown anything with OM that can not be done with a conventional toolkit of maths, it just may be that he really really sees it, but that he is unable get it into the right verbage to make us see it.
If Doron could establish a consistent framework (not the 0-dim/1-dim nonsense, or the trying to find faults with other mathematicians works) then we might be able to slowly work our way towards an end.
That might be a good idea. Let me try and let's just see what we get:
Doron,
mind you, these are only definitions I got from your posts. We just define things, no talk about proof, or how got to them.
- Your OM has 0-dim and 1-dim elements. How can we refer to them, measure them and how do we define relations amongst them?
Let's, please, just refer to 0-dim and 1-dim elements as O and I. This way I am not tempted to talk about how to see what the size of 1-dim is.
- I propose that, to differentiate between different 1-dim types, we class them with a 'dimensional class' (could be the size, we do not define that, ok?) and 'dimensional type' (could be the curve, could be angular, we do not define that, ok?). So we would have O and I
nt
About the O and I elements we can state the following:
- Any I
nt is bounded by exactly 2 O. It can not be less, because then n would be infinite. It can not be more because then I would be more than 1-dimensional. This takes care of that no infinite O's can be on any I.
- Any I
nt can be curved, angular, whatever, on a 2-dim plane, but we do not care about that, that is the property of the class 't'. It has no points.
- Any collection of O can never have an infinite number of elements.
- Any collection of I
nt can never have an infinite number of elements.
- Therefore any collection of O and I
nt can never have an infinite number of elements.
- A collection is called 'complete' if all elements, be they O or I
nt are both the beginning and the end of the collection.
So, in this vein, Doron, can you complete this?