S
Sheshbazzar
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Gödel's Original. Transcript: 0 & 1.
Now is M(Ex)G(x)? Of course it is, for if ~M(Ex)G(x) then G(x) => ~G(x) i.e., P(~G) in contradiction with the ax. P(X) xor P(~X).
Hence N(Ex)G(x) i.e., it is necessary that there exists a Being having all the positive properties & only these.
Code:
Th. 1
G(x)
A(x)
~P(A)
P(~A) : P(X) xor P(~X)
~A(x) : P(X) => X(x)
(A)[A(x) => P(A)]
A(x)
G(y)
P(A) : see above
A(y) : P(X) => X(y)
(y)[G(y) => A(y)]
N(y)[G(y) => A(y)] : if there is a proof of X then NX
(A)[A(x) => N(y)(G(y) => A(y))]
G(x) => (A)[A(x) => N(y)(G(y) => A(y))]
G(x) => G Ess x
Th. 2
G(x)
E(x) : P(E) & P(X) => X(x)
G Ess x
N(Ex)G(x) : E(x) = (A)[A Ess x => N(Ex)A(x)]
G(x) => N(Ex)G(x)
Hence (Ex)G(x) => N(Ex)G(x)
" " M(Ex)G(x) => MN(Ex)G(x)
" " => N(Ex)G(x) : MNX => NX
Hence N(Ex)G(x) i.e., it is necessary that there exists a Being having all the positive properties & only these.