In general Relation cannot be but Non-local, where an Element can be Non-local of Local w.r.t another Element.
If I wrote that an Element cannot be but local, then I was wrong.
You weren't even wrong. You weren't even meaningful.
In general Relation cannot be but Non-local, where an Element can be Non-local of Local w.r.t another Element.
If I wrote that an Element cannot be but local, then I was wrong.
Because that change is so important in interpreting the otherwise meaningless gibberish.
In approximately the same way that a turd sandwich is much better when made with dijon mustard instead of the ordinary yellow stuff.
That's worth being repeated, for the hapless who might bump into this thread unprepared.I suggest a much simpler rewriting of the relevant post:
It has to be:
"[Every word that Doron writes] cannot be understood and be developed [and should be] totally ignored."
BTW, notice what happened to the "Consciousness" thread?
More importantly, notice what happened to our main lecturer. He has apparently taken a one week sabbatical.
Is this the right place to point out there is a significant difference between dijon mustard and ketchup? For those who want to keep track of time as well want to savour now and then some mustard, the integrated solution of a mustard watch is feasible; whereas for ketchup, you'd need at least a teaspoonful for a good tasting, which is beyond the limitations of a wrist watch.
Lit.: Yann-Joachim Ringard, "Mustard Watches: an integrated approach to time and food".
That is brilliant. The truly scary thing is that Dr. Ringard's mathematics is substantially better -- more rigorous, more creative, and above all, more coherent -- than Doron's.
doronshadmi said:The non-local ur-element is the maximum entropy of itself (no differences can be found within it). Also a local ur-element is the maximum entropy of itself (no differences can be found within it).
Maximum entropy exists in both non-locality and locality, but they are opposite by their self nature, so if non-locality and locality are associated, then a non-entropic domain is created.
I bet improving means that you put even more gibberish and nonsense in it? I, at least, won't bother downloading it. You don't even bother to indicat what you might have changed, and I doubt you even know what you changed.
That's not the way it works here. You could simply have improved post #1. But at post #688, you have not been able to explain the various questions about post #1, so why could you do that in a PDF we should download?By carefully reading all of it, one can understand post 1 ( http://www.internationalskeptics.com/forums/showpost.php?p=4083359&postcount=1 ).
I bet improving means that you put even more gibberish and nonsense in it? I, at least, won't bother downloading it. You don't even bother to indicat what you might have changed, and I doubt you even know what you changed.
Definition 4: An object that is distinguished from another object by exactly one relation, is called Local.
Example: a point is a local object.
No,Ok, but then you will miss such gems as:
So, "Local" is a relative concept. An object is local with respect to another object. But why then does doron cite "a point" as an example of a local object without providing its relative referent?
Also, how hard is it to establish more than one relation between any two distinct objects?
In other words, nothing is local. Doron has provided a non-standard definition for the empty set.
A point cannot be but local w.r.t another element.
Please read all of http://www.geocities.com/complementarytheory/UR.pdf very carefully, then think about it before you reply.
You will not get it by using only a step-by-step observation, as explained in pages 6-7.
A non-local element (which is not defined by (not made of) any collection of local
elements) can be both a member and not a member of any given non-empty set.
Therefore, non-locality is a property that is stronger than any cardinal of any non-empty
set of local members. As a result, any non-empty set of local members, is incomplete by
definition.
non-locality is a property that is stronger than any cardinal of any non-empty
set of local members.
Relation 1: The point is not on the line.
Relation 2: The point is not equal to the line.
Relation 3: The point and line share a common plane.
Observations 1 and 2 are the result of observation 3 (where the plane is the non-local w.r.t a point or a line).
Apathia the Mad Gardener cannot resist.
From the UR.pdf:
Lets say we represent the Local/Non-Local Complementation by a table with some fruit on it.
The bare tabletop represents Non-Locality. Distinguising individual items of fruit represents Locality. A bowl of oranges represents the complementation of Relation and Element. The oranges are elements. A relation of classification identifies, lets say three, of them as members of the bowl of oranges.
How many oranges are there?
Three it seems.
But suppose there are some other oranges on the table that have not been localized in the bowl. They are non-local to it. They haven't been counted among the elect.
How many oranges are there? Well, I don't know how many are rolling around on the table. Are these virtual oranges?
I can say how many are in the bowl, can't I? A total of three in the bowl.
It would seem that my bowling relation both includes and excludes.
So the total, complete number of oranges in the bowl is three.
However:
Doron, it seems by your reckoning those non-local oranges that by non-locality are everywhere and nowhere are and are not in the bowl.
So, the one hundred and forty-four thousand dollar question:
Are there more than three oranges in the bowl?
Remember:
Orenge in the bowl or on the table = *
The bowl = [*,*,*]
* is local w.t.r the bowl.
The bowl is non-local w.r.t any *.
The table (notated by "{" and "}") is non-local w.r.t the bowl ( notated as{[]} ) or to any given * no matter if it is in the bowl or not.
{[*,*,*,*,[*,*,*]*,*,...} or in other words, any given orange is local w.r.t the table, the bowl, or to any * .
Ok, but then you will miss such gems as:
Definition 4: An object that is distinguished from another object by exactly one relation, is called Local.
Example: a point is a local object.
So, "Local" is a relative concept. An object is local with respect to another object. But why then does doron cite "a point" as an example of a local object without providing its relative referent?
Also, how hard is it to establish more than one relation between any two distinct objects?
In other words, nothing is local. Doron has provided a non-standard definition for the empty set.
was quite spot-on.ddt said:and I doubt you even know what you changed.
Between any point and any line, there exist more than one relation.