doronshadmi
Penultimate Amazing
- Joined
- Mar 15, 2008
- Messages
- 13,320
jsfisher, you say the right words to the wrong person.You make many, many bogus claims.
The name of the right person is jsfisher.
jsfisher, you say the right words to the wrong person.You make many, many bogus claims.
jsfisher, you say the right words to the wrong person.
The name of the right person is jsfisher.
It's obvious that translating the Cantor's proof into an informal version would do no good, coz you can't grasp the significant difference between a set and its power set. If S = {1, 2, 3, 4, . . .}, then the members progress toward infinity via 1-dim space.|S| = |P(S)| is right, where both |S| and |P(S)| are equally ever increasing (which is present continuous).
It's obvious that translating the Cantor's proof into an informal version would do no good, coz you can't grasp the significant difference between a set and its power set.
Cantor simply wrongly used the right tool.Don't you find it a tad ironic, too, that according to Doron, Cantor was completely wrong except when Doron's using Cantor's results to advance his own nonsense?
This is the best advice that you can give to yourself, it is about time to wake up from Cantor's "paradise" dream.
Given some set and its power set, there is any chosen degree of mapping between the set and its powerset, starting from no mapping and ending with |P(S)| mappings, or vice versa.It's obvious that translating the Cantor's proof into an informal version would do no good, coz you can't grasp the significant difference between a set and its power set.
Happy birthday sympathic.I see you are back to your childish reflection strategy. Way to go! while this can be practical with your kindergarten students crowd, it will not get you a long way in the adults world.
Happy birthday sympathic.
Celebrating birthdays holds for both children AND adults, isn't it sympathic?
Given some set and its power set, there is any chosen degree of mapping between the set and its powerset, starting from no mapping and ending with |P(S)| mappings, or vice versa.
The Man, your inability to get the simultaneity of the invariance of pi AND the variance of curvature among a collection of infinitely many circles, is equivalent to your inability to get the ever increasing collection of natural numbers as a present continuous state.
By all means please explain to us the difference between increasing and decreasing with “no past (before) and no future (after)”?
Oh and happy birthday sympathic.

Sympathic!Sympathic!
Since Cantor's continuum hypotheses states thatFurthermore, we actually discover that Cantor's GCH http://en.wikipedia.org/wiki/Continuum_hypothesis is false.
you and the demons who you confer with must have such a set stashed under the pillow. Stop being secretive and let the world see it.There is no set whose cardinality is strictly between that of the integers and that of the real numbers.
You can take the mapping between natural numbers and the results of Cantor's construction method, as a parallel one step, such that no mapping between natural numbers and any powerset degree, is missing.Just one that is bijective is all that is required...just one...say between {A} and its power set. Despite your claims and nonsense, you cannot produce one.
Doron your inability to get the fact that pi doesn't change specifically because the circumference of a circle increases or decreases to the same proportion as its diameter increases or decreases does nothing to support your assertion that the set of all natural numbers is ever increasing.
Again what is "increasing" in your set of "natural numbers" and thus what has changed about your set of "natural numbers"? What is increasing or changing in the set of all natural numbers?
Again..
You can take the mapping between natural numbers and the results of Cantor's construction method, as a parallel one step, such that no mapping between natural numbers and any powerset degree, is missing.
Since Cantor's continuum hypotheses states that
you and the demons who you confer with must have such a set stashed under the pillow. Stop being secretive and let the world see it.