Reality Check
Penultimate Amazing
The original topic is about primes (you do remember writing it don't you?)No, the title is "Deeper than Primes".
http://www.internationalskeptics.com/forums/showpost.php?p=4099460&postcount=216
The original topic is about primes (you do remember writing it don't you?)No, the title is "Deeper than Primes".
http://www.internationalskeptics.com/forums/showpost.php?p=4099460&postcount=216
I suggest you to read again post 1.The original topic is about primes (you do remember writing it don't you?)
And the result is again nothing but the particular case of asymmetry (each object's id is clearly distinct, and we again closed under the particular case of asymmetry, as if it is the general property of the researched framework).Where in this is Distinction defined? All you say is that you think that it exists due to other undefined terms.
A definition would be: "Given an arbitary multiset this is how you calculate the Distinction of each member".
So your definition is: If the multiset is asymetrical then it is distinctive (has the property of Distinction). Other wise the multiset does not have Distinction.And the result is again nothing but the particular case of asymmetry (each object's id is clearly distinct, and we again closed under the particular case of asymmetry, as if it is the general property of the researched framework).
And the result is again nothing but the particular case of asymmetry (each object's id is clearly distinct, and we again closed under the particular case of asymmetry, as if it is the general property of the researched framework).Where in this is Distinction defined? All you say is that you think that it exists due to other undefined terms.
A definition would be: "Given an arbitary multiset this is how you calculate the Distinction of each member".
Remember that a multiset does not have any order (you know that is part of the definition of a multiset and have stated it in several posts). So a multiset can be asymmetrical in one representation, the members can be swapped and it will be symmetrical. This is a basic property of multisets. I can even give you your own example:
[a, a, b] is "asymmetrical" (but maybe you have yet again your own definition of asymmetrical). Exactly the same multiset is [a, b, a] and exactly the same multiset is "symmetrical" (but maybe you have yet again your own definition of symmetrical).
Let us research what enables us to define Distinction as an inseparable factor of Math.
Let's not.
Let's go back to the opening post and make sense of it. You used several words there in ways that just aren't standard.
In that first post, you told us entropy was a number, but later in the same post you used it as a tri-state property.
In that first post, you told us entropy was a property of multi-sets, but later in the same post you told us it was a property of numbers.
In a later post, you told us [1] had "no entropy", but in another post you indicated it had "full entropy".
Clearly, you have no firm idea what you, yourself, mean by entropy. There is no point, therefore, "research[ing] what enables us to define" anything, since you are incapable of defining anything.
In other words, since nothing enables you to define things; there is nothing to research.
jsfisher said:In a later post, you told us [1] had "no entropy", but in another post you indicated it had "full entropy".
doronshadmi said:Let us examine the partitions that exist within any given n > 1
{x} = Full entropy
{x} = Intermediate entropy
{x} = No entropy
Entropy and Distinction are in Inverse Proportion. It means that more entropy means less distinction and vice versa. Symmetry is used as the measurement tool of this Inverse Proportion.
The current paradigm of Math is nothing but the particular case of asymmetry (no entropy and clear distinction as the first-order general state of the mathematical science).
x, in this case, is not a singleton but a general way to notate any muti-set of more than one element (as can be found at the beginning of post 1 ( http://www.internationalskeptics.com/forums/showpost.php?p=4083359&postcount=1 )).
{1} has no entropy.
Again where is the definition?And the result is again nothing but the particular case of asymmetry (each object's id is clearly distinct, and we again closed under the particular case of asymmetry, as if it is the general property of the researched framework).
It is correct and also the particular case where clear distinction is used to distinguish between itself and non-clear distinction.
Another particular case that must not ignored is an unclear distinction that is used to not distinguish between itself and a clear distinction.
In the first particular case, each thing has a clear id.
In the second particular case, there is a superposition of ids.
(The last two cases are also some particular case of clear id, if compared with each other).
You do have your own definition of asymmetry that includes "partial asymmetry"! Please provide it.Again Distinction is not based on any particular order. It means that {a,a,b} and {a,b,a} have the same partial asymmetry (order is not important for Distinction).
I see that this thread is now in the appropriate forum - Religion and Philosophy. This is not my area so I will leave it here.
1472 posts and waiting for one that shows mathematical insight. Every other post by Doron reinforces my conviction your theory is right.Heck, Doron won't even disprove my theory of his ignorance. It'd be so easy to disprove, were it false.
I see that this thread is now in the appropriate forum - Religion and Philosophy. This is not my area so I will leave it here.
This should go start to the Religion and Philosophy section since it is just his "Deeper than primes" musings again.
It can return here once doron gives the mathematical definitions of:
cardinal
Entropy
Distinction degree
And some idea of what the reseached subject is (set theory, calculus, number theory, topology, something else?) would be nice.