master_coda
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Providing pdfs with even more undefined terms makes it harder to understand what you are talking about.
The discussion centers around the limitations of Boolean logic in dealing with infinitely many objects, particularly in the context of Cantor's Diagonalization method and its implications for set theory and cardinality. Participants explore the nature of combinations lists, the mapping of infinite sequences, and the validity of Cantor's argument.
Participants do not reach consensus on the validity of Cantor's Diagonalization method or the implications of their arguments regarding Boolean logic and infinite sets. Multiple competing views remain, with some defending Cantor's argument and others challenging its application.
There are unresolved issues regarding the definitions of combinations lists and the assumptions underlying the application of Cantor's Diagonalization method. The discussion also highlights the importance of clarity in mathematical communication.
Originally posted by Organic
Hi NateTG,
Thank you for your reply.
Please take this by the standard mathematical meaning:
limits
emptiness
floating point
{}
extrapolation
interpolation
scales
The other concepts can be understood from the examples in the last pdf file.
Please fill free to ask any question that you like about them.
Thank you,
Organic
Originally posted by Organic
Master_coda
Fullness is the highest limit of any form of information.
Emptiness is the lowest limit of any form of information.
Originally posted by Organic
the set A such that x not in A is always true, regardless of what x is.
If you look at this definition, then x must be some existing form of information.
Originally posted by Organic
And what if x is Emptiness?
Originally posted by Organic
And what if x is Fullness?
Originally posted by Organic
x is the input A is the set.
the set A such that x not in A is always true, regardless of what x is.
Whet is A if x is Emptiness?
What is A if x is Fullness?
What is A if x is not Epmtiness nor Fullness?
Really ?A is the same thing in all three cases. A is the empty set. It doesn't matter what x is.
Originally posted by Organic
Really ?
x=Eemptiness
the set A such that Emptiness not in A is always true.
the set A such that x not in A is always true, regardless of what x is.
Originally posted by Organic
No, you used a formal definition and learned through our last posts
that this formal definition has logical holes in it that you did not close.
Please show me why do i have to define an intuiative concepts like 'Emptiness' and 'Fullness'?
Please show me why do i have to define intuiative concepts like 'Emptiness' and 'Fullness'?