Pete Olcott wrote on 2/16/2018 11:42 PM:
a Collection is defined one or more things that have one or more properties in common. These operations from set theory are available: {⊆, ∈}
An BaseFact is an expression X of (natural or formal) language L that has been assigned the semantic property of True. (Similar to a math Axiom).
A Collection T of BaseFacts of language L forms the ultimate foundation of the notion of Truth in language L.
To verify that an expression X of language L is True or False only requires a syntactic logical consequence inference chain (formal proof) from one or more elements of T to X or ~X.
True(L, X) ↔ ∃Γ ⊆ BaseFact(L) Provable(Γ, X)
False(L, X) ↔ ∃Γ ⊆ BaseFact(L) Provable(Γ, ~X)
Copyright 2018 (and many other years since 1997) Pete Olcott
The above is plain silly. Why not write, instead:
True(L, X) <-> Provable(BaseFact(L), X)
False(L, X) <-> Provable(BaseFact(L), X)
You might want to confound truth and provability but it gains little and loses a lot as has been pointed out to you for years. I believe that you have set a record for low number of converts per message. Please note that most responses to your messages are from (wait for it!) you. Usually with yet another correction.
You claim elsewhere that you've spent 30,000 hours
and you have pointless complications like the above that provide no insight to you or anybody else; they only serve to confuse you. 30,000 hours is about 15 work years and every attempt to write a proof by you must be corrected a zillion times and it never quite comes out right in the end. Take a holiday. Relax. Start again. Quit arguing and try to listen to others so you might learn something. You have picked a way to waste your life and destroy a newsgroup.
I don't expect this message to turn you wise. You are too dedicated to being recognized as a great thinker. Maybe after another 30,000 hours you will be old and broken but you will not secure your theorem or your fame. Get some sleep. Read a good book. Assume that the scientific and philosophical communities are 1) not all nuts and 2) not out to get you.
http://liarparadox.org/index.php/2018/02/17/the-ultimate-foundation-of-a-priori-truth/
I got rid of the need to even refer to the term "collection"
ignoramus.
Some concept of axiomatic set/class/collection/group theory is
implied.
Basically I must divide finite strings into three categories:
∀L ∈ Formal_Systems
∀X ∈ Finite_Strings
Semantically_Correct(L, X) ⊆ WFF(L, X) ⊆ Finite_Strings
A continually
increasing better way to prove that I was totally right all
along.
(Since at least 1997, as far back as my USENET
messages go).
On 2/17/2018 4:22 PM, Peter Percival wrote:
Pete Olcott wrote:
My purpose in studying math and logic was to provide the infrastructure
And what have you learned of mathematics and logic?
A continually increasing better way to prove that I was totally right all along.
(Since at least 1997, as far back as my USENET messages go).
On Saturday, February 17, 2018 at 8:17:01 PM UTC-8, Pete Olcott wrote:∀L ∈ Formal_Systems ∀X True(L, X) ↔ ∃Γ ⊆ Axioms(L) Provable(Γ, X)
Why subset the axioms?
Your definition of "True" works just as well as
True (L, X) means Provable (Axioms (L), X)
Here is my model for saying these things
In this above case ∃Γ ⊆ FS would be more accurately stated as ∃Γ ⊆ WFF(FS)
The above has been simplified and clarified:
--BaseFact is defined as an expression X of (natural or
--formal) language L that has been assigned the semantic
--property of True. (Similar to a math Axiom).
New Material:
--BaseFacts that contradict other BaseFacts are prohibited.
--BaseFacts must specify Relations between Things. There
--are no other requirement for BaseFacts.
--To verify that an expression X of language L is True
--or False only requires a syntactic logical consequence
--inference chain (formal proof) from one or more BaseFacts
--to X or ~X. (Backward chaining reverses this order).
--True(L, X) ↔ ∃Γ ⊆ BaseFacts(L) Provable(Γ, X)
--False(L, X) ↔ ∃Γ ⊆ BaseFacts(L) Provable(Γ, ~X)
Defining a
generic decidability decider
∀L ∈ Formal_Systems
∀X ∈ Closed-WFF(L)
~True(L, X) ∧ ~False(L, X) → Incorrect(L, X)
Copyright 2018 (and many other years since 1997) Pete Olcott
On 2/17/2018 12:42 AM, Pete Olcott wrote:
a Collection is defined one or more things that have one or more properties in common. These operations from set theory are available: {⊆, ∈}
An BaseFact is an expression X of (natural or formal) language L that has been assigned the semantic property of True. (Similar to a math Axiom).
A Collection T of BaseFacts of language L forms the ultimate foundation of the notion of Truth in language L.
To verify that an expression X of language L is True or False only requires a syntactic logical consequence inference chain (formal proof) from one or more elements of T to X or ~X.
True(L, X) ↔ ∃Γ ⊆ BaseFact(L) Provable(Γ, X)
False(L, X) ↔ ∃Γ ⊆ BaseFact(L) Provable(Γ, ~X)
Copyright 2018 (and many other years since 1997) Pete Olcott
Pete Olcott <Pe...@NoEmail.address> writes:On 2/20/2018 7:50 PM, Ben Bacarisse wrote:Pete Olcott <Pe...@NoEmail.address> writes: <snip>Ben Bacarisse refused to consider that a halt decider must do a step-by-step debug trace of its input TMD untilYou have yet to answer the very simple question I posed to you three days ago. It's a key question (which is presumably why you are avoiding it) because the answer is both clear and damaging for your position. Any answer other than the correct one will make it clear that you have never really been talking about the hating problem. (And, to answer you silly assertion here, what a halt decider must do is the same as asserting the what the smell of unicorn shit must be.)Yes and my lack of psychic ability to read your mind to determine what question you could possibly be referring is certainly totally destroying my credibility !Message-ID: <87606w1...@bsb.me.uk>Quite often I answer questions by providing all of the reasoning behind the answer. Quite often people mistake this as avoiding the question.Unless my news feed is broken you simply abandoned the thread.
Since it is really not all that hard to repeat the question I find statements such as the one that you just made a little dodgy.Ah, but the context matters. I'll repeat the question here but I suspect you will use the change of context to repudiate earlier statements. Here it is again: You finally agreed that: | Every TM computation halts or fails to halt. To which I replied: Great. Do you also accept that every finite string either encodes a TM computation or it does not?
I went on give an encoding which I've edited slightly on re-reading:
My fundamental position (That I first stated publicly on USENET in 1998) is that the Liar Paradox, The 1931 Incompleteness Theorem, and the Halting Problem are all based on the exact same semantic error that I first called pathological self-reference in 2004.I know. You have been wrong for 14 years. Every instance of the halting problem (not your version -- the real one) has a correct yes/no answer. This is quite unlike questions such as the liar paradox, or the nonsense questions you sometimes try to suggest as being equivalent.
Copyright 2004, 2006, (2012 through 2018) Pete Olcott
Whoops I goofed.
Putting this in the proper
terminology of Rice's Theorem:
The above Decidabilty Decider
segregates (a) into two sets:
(1) Decides halting for (a,b)
(2) Does not decide halting for (a,b)
a Collection is defined one or more things that have one or more properties in common. These operations from set theory are available: {⊆, ∈}
An BaseFact is an expression X of (natural or formal) language L that has been assigned the semantic property of True. (Similar to a math Axiom).
A Collection T of BaseFacts of language L forms the ultimate foundation of the notion of Truth in language L.
To verify that an expression X of language L is True or False only requires a syntactic logical consequence inference chain (formal proof) from one or more elements of T to X or ~X.
True(L, X) ↔ ∃Γ ⊆ BaseFact(L) Provable(Γ, X)
False(L, X) ↔ ∃Γ ⊆ BaseFact(L) Provable(Γ, ~X)
Copyright 2018 (and many other years since 1997) Pete Olcott