The Man
Unbanned zombie poster
By using the fact that we are dealing with collections of distinct objects, let us re-search such collections by understanding notations according to verbal_symbolic AND visual_spatial skills.
Just making up crap still does not constitute research.
The cardinality of Fullness is |{}| = ∞, where Fullness (that has no successor) is notated by the outer "{" and "}".
The "{" and "}" are inside not outside the only other symbols in your purported notation, so much for your “visual_spatial skills”.
The cardinality of Emptiness is {||} = 0, where Emptiness (that has no predecessor) has no notation.
And once again you give notations to what you claim “has no notation”, so much for your “verbal_symbolic skills”.
Well that’s two out of three down, you also claimed you would be “using the fact that we are dealing with collections of distinct objects”, let’s see how that pans out.
By understanding the difference between |{}| and {||}, we are able to deal with cardinality which is > {||} AND < |{}|, for example, such that {|...|} < |{...}|, where "..." is a general notation of members.
{|{}|} = 1
Everyone here, but you, has no problem dealing with cardinality without any of your nonsense.
|{{}}| = ∞ because Fullness has no successor (its cardinality is inaccessible to all that have cardinality with successors (whether the amount of successors is finite or not).
Well that just makes your “Fullness” useless, congratulations.
Generally, all that have cardinality with successors, such cardinality is notated (for example) as {||}, {|a|}, {|a,b|}, {|a,b,c|} , ... etc. in the case of finite cardinality, or notated (for example) as {|,a,b,c,...|} in the case of infinite cardinality.
No it isn’t see again Cardinality.
Russell's paradox is naturally solved as follows:
|{,a,b,c,...}| = ∞
{|,a,b,c,...|} < ∞
{|,{,a,b,c,...},a,b,c,...|} < ∞ = |{,{,a,b,c,...},a,b,c,...}|
Nope, you just mis-mashing symbols together doesn’t solve anything other than simply your pretence that you have any “verbal_symbolic AND visual_spatial skills” whatsoever.
Generally , the cardinality of all given collections with distinct objects < cardinality ∞.
“Generally”? So not always? When does the “cardinality of all given collections with distinct objects change such that “< cardinality ∞” does not apply?
So no collection of distinct objects can be its own member, because being a member of collection of distinct members, does not change the fact that the cardinality of all members of a given collection of distinct objects < ∞.
Since when is changing “the fact that the cardinality of all members of a given collection of distinct objects < ∞” a requirement for a collection of distinct objects being its own member?
By understanding that (for example) cardinality |{,{,a,b,c,...},a,b,c,...}| > {|,{,a,b,c,...},a,b,c,...|} , one captures that no member (which is no more than "hosted" mathematical space) of a given collection (which is not less than "host" mathematical space) is equivalent to the given collection.
If the collection were a member of itself then the collection would be equal to at least one member of the collection. All you have done is to simply assert that “no collection of distinct objects can be its own member” because it does not change some irrelevant nonsense about your “∞” that you assert above “is inaccessible to all that have cardinality with successors”. Again congratulations not only have you failed to use “the fact that we are dealing with collections of distinct objects” as you claimed above you tried using just your claim that your “inaccessible” “∞ remains, well, “inaccessible” simply by your own edict.
That’s three for three.
Your failure is now complete.
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