• Olcott is provably correct --- no one can correct refute this

    From olcott@3:633/10 to All on Fri Oct 30 22:14:24 2026
    01 int DD()
    02 {
    03 int Halt_Status = HHH(DD);
    04 if (Halt_Status)
    05 HERE: goto HERE;
    06 return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that simulates DD()

    DD simulated by HHH according to the operational semantics
    of the C programming language cannot possibly reach its own
    simulated return statement while being simulated by HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH

    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From olcott@3:633/10 to All on Fri Oct 30 22:16:38 2026
    01 int DD()
    02 {
    03 int Halt_Status = HHH(DD);
    04 if (Halt_Status)
    05 HERE: goto HERE;
    06 return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that simulates DD()

    DD simulated by HHH according to the operational semantics
    of the C programming language cannot possibly reach its own
    simulated return statement while being simulated by HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From Mikko@3:633/10 to All on Sat Oct 31 11:11:56 2026
    On 31/10/2026 05:14, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that simulates DD()

    DD simulated by HHH according to the operational semantics
    of the C programming language cannot possibly reach its own
    simulated return statement while being simulated by HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH

    The proof is invalid. If HHH(DD) returns 0 then DD goes to line 6
    and returns 0. The "proof" does not prove that HHH(DD) does not
    return 0 and therefore does not prove that line 6 is unreachable.

    --
    Mikko

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 10:42:17 2026
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that simulates >>>>>>>> DD()

    DD simulated by HHH according to the operational semantics
    of the C programming language cannot possibly reach its own
    simulated return statement while being simulated by HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the simulated DD >>>>>>> resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does _not_ >>>>>>> interfere with the simulation being run, like a turing machine
    itself does not interfere with it's own execution

    HHH does interfere, therefore it's not a universal simulator.
    it's only reporting on a truncated partial trace of DD, not the >>>>>>> full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT


    HHH is not ? the universal simulator and does not simulate DD in
    total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating line 01

    looks like your own brain just entered the infinite recursion you
    claimed HHH could detect. too bad HHH didn't abort before line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.



    HHH cuts off the simulation of DD short, so ofc it doesn't reach
    DD's return statement

    asking for a rebuttal to explain how HHH simulating DD reaches DDs
    return statement is just ... nonsense. HHH is _not_ a universal
    simulator and does _not_ simulate DD in total nor even is expected
    to do so!

    it is therefore _not_ actually reporting on a complete simulation
    of DD, objectively so as HHH cuts off DDs simulation before DD
    reaches it's final state. if u compared the states the HHH(DD)
    records in it's simulation, this would not match the states that
    ?(DD) records in it's simulation. HHH(DD) would match up to some
    point, at which point HHH(DD) would record no more states, while
    ?(DD) does.

    HHH is merely a broken algorithm that does not refute the halting
    theorem in the slightest. i don't even think it's a total algorithm >>>>> cause who tf knows what HHH(collatz_conj) would return, if even. i
    bet it wouldn't, i bet HHH(collatz_conj) diverges as written.

    now idk if ur gunna accept that or not, prolly u stopped reading by >>>>> now tbh ... but you wanna know what i think is useful about this
    issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an infinite
    looping recursion like what it tries on DD, because that's how the
    inductive math proofs work. but u can't actually build a machine
    that totally implements that as an automated prover precisely
    because of the machine DD that u wrote...

    something feels off about that for sure, if the math was good HHH
    should work cause the algo is so dead simple.









    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sat Oct 31 08:52:32 2026
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that
    simulates DD()

    DD simulated by HHH according to the operational semantics
    of the C programming language cannot possibly reach its own
    simulated return statement while being simulated by HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the simulated >>>>>>>> DD resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does
    _not_ interfere with the simulation being run, like a turing
    machine itself does not interfere with it's own execution

    HHH does interfere, therefore it's not a universal simulator. >>>>>>>> it's only reporting on a truncated partial trace of DD, not the >>>>>>>> full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT


    HHH is not ? the universal simulator and does not simulate DD in
    total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot crap on me >>>>

    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating line 01

    looks like your own brain just entered the infinite recursion you
    claimed HHH could detect. too bad HHH didn't abort before line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much bigger
    reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy of
    reading all that i wrote, and that really is ur loss because i'm most definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't reach
    DD's return statement

    asking for a rebuttal to explain how HHH simulating DD reaches DDs >>>>>> return statement is just ... nonsense. HHH is _not_ a universal
    simulator and does _not_ simulate DD in total nor even is expected >>>>>> to do so!

    it is therefore _not_ actually reporting on a complete simulation >>>>>> of DD, objectively so as HHH cuts off DDs simulation before DD
    reaches it's final state. if u compared the states the HHH(DD)
    records in it's simulation, this would not match the states that
    ?(DD) records in it's simulation. HHH(DD) would match up to some
    point, at which point HHH(DD) would record no more states, while
    ?(DD) does.

    HHH is merely a broken algorithm that does not refute the halting >>>>>> theorem in the slightest. i don't even think it's a total
    algorithm cause who tf knows what HHH(collatz_conj) would return, >>>>>> if even. i bet it wouldn't, i bet HHH(collatz_conj) diverges as
    written.

    now idk if ur gunna accept that or not, prolly u stopped reading
    by now tbh ... but you wanna know what i think is useful about
    this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an infinite
    looping recursion like what it tries on DD, because that's how the >>>>>> inductive math proofs work. but u can't actually build a machine
    that totally implements that as an automated prover precisely
    because of the machine DD that u wrote...

    something feels off about that for sure, if the math was good HHH >>>>>> should work cause the algo is so dead simple.











    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 11:31:35 2026
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that
    simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>> simulated return statement while being simulated by HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the simulated >>>>>>>>> DD resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does >>>>>>>>> _not_ interfere with the simulation being run, like a turing >>>>>>>>> machine itself does not interfere with it's own execution

    HHH does interfere, therefore it's not a universal simulator. >>>>>>>>> it's only reporting on a truncated partial trace of DD, not the >>>>>>>>> full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT


    HHH is not ? the universal simulator and does not simulate DD in >>>>>>> total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot crap on me >>>>>

    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating line 01

    looks like your own brain just entered the infinite recursion you
    claimed HHH could detect. too bad HHH didn't abort before line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    01 int DD()
    02 {
    03 int Halt_Status = HHH(DD);
    04 if (Halt_Status)
    05 HERE: goto HERE;
    06 return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach
    its own line 06, unless your primary goal is to
    be disagreeable.

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.



    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much bigger
    reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy of
    reading all that i wrote, and that really is ur loss because i'm most definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't reach >>>>>>> DD's return statement

    asking for a rebuttal to explain how HHH simulating DD reaches
    DDs return statement is just ... nonsense. HHH is _not_ a
    universal simulator and does _not_ simulate DD in total nor even >>>>>>> is expected to do so!

    it is therefore _not_ actually reporting on a complete simulation >>>>>>> of DD, objectively so as HHH cuts off DDs simulation before DD
    reaches it's final state. if u compared the states the HHH(DD)
    records in it's simulation, this would not match the states that >>>>>>> ?(DD) records in it's simulation. HHH(DD) would match up to some >>>>>>> point, at which point HHH(DD) would record no more states, while >>>>>>> ?(DD) does.

    HHH is merely a broken algorithm that does not refute the halting >>>>>>> theorem in the slightest. i don't even think it's a total
    algorithm cause who tf knows what HHH(collatz_conj) would return, >>>>>>> if even. i bet it wouldn't, i bet HHH(collatz_conj) diverges as >>>>>>> written.

    now idk if ur gunna accept that or not, prolly u stopped reading >>>>>>> by now tbh ... but you wanna know what i think is useful about
    this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an infinite
    looping recursion like what it tries on DD, because that's how
    the inductive math proofs work. but u can't actually build a
    machine that totally implements that as an automated prover
    precisely because of the machine DD that u wrote...

    something feels off about that for sure, if the math was good HHH >>>>>>> should work cause the algo is so dead simple.













    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From olcott@3:633/10 to All on Sat Oct 31 12:01:00 2026
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that
    simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>> simulated return statement while being simulated by HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the simulated >>>>>>>>> DD resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does >>>>>>>>> _not_ interfere with the simulation being run, like a turing >>>>>>>>> machine itself does not interfere with it's own execution

    HHH does interfere, therefore it's not a universal simulator. >>>>>>>>> it's only reporting on a truncated partial trace of DD, not the >>>>>>>>> full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT


    HHH is not ? the universal simulator and does not simulate DD in >>>>>>> total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot crap on me >>>>>

    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating line 01

    looks like your own brain just entered the infinite recursion you
    claimed HHH could detect. too bad HHH didn't abort before line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much bigger
    reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy of
    reading all that i wrote, and that really is ur loss because i'm most definitely not like the other chucklefucks around here


    01 int DD()
    02 {
    03 int Halt_Status = HHH(DD);
    04 if (Halt_Status)
    05 HERE: goto HERE;
    06 return Halt_Status;
    07 }

    Changing the subject away from the behavior of DD
    simulated by HHH while DD is being simulated by HHH
    ONE-MORE-TIME ENDS THIS CONVERSATION
    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sat Oct 31 10:33:29 2026
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that
    simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>>> simulated return statement while being simulated by HHH. >>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the simulated >>>>>>>>>> DD resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does >>>>>>>>>> _not_ interfere with the simulation being run, like a turing >>>>>>>>>> machine itself does not interfere with it's own execution

    HHH does interfere, therefore it's not a universal simulator. >>>>>>>>>> it's only reporting on a truncated partial trace of DD, not >>>>>>>>>> the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT


    HHH is not ? the universal simulator and does not simulate DD in >>>>>>>> total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot crap
    on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating line 01

    looks like your own brain just entered the infinite recursion you
    claimed HHH could detect. too bad HHH didn't abort before line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06: HHH(DD)
    does a partial simulation of DD, and therefor will not simulate DD to
    line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so
    disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches line 06 in
    the simulation ... how would that refute ur proof?




    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much bigger
    reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy of
    reading all that i wrote, and that really is ur loss because i'm most
    definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't reach >>>>>>>> DD's return statement

    asking for a rebuttal to explain how HHH simulating DD reaches >>>>>>>> DDs return statement is just ... nonsense. HHH is _not_ a
    universal simulator and does _not_ simulate DD in total nor even >>>>>>>> is expected to do so!

    it is therefore _not_ actually reporting on a complete
    simulation of DD, objectively so as HHH cuts off DDs simulation >>>>>>>> before DD reaches it's final state. if u compared the states the >>>>>>>> HHH(DD) records in it's simulation, this would not match the
    states that ?(DD) records in it's simulation. HHH(DD) would
    match up to some point, at which point HHH(DD) would record no >>>>>>>> more states, while ?(DD) does.

    HHH is merely a broken algorithm that does not refute the
    halting theorem in the slightest. i don't even think it's a
    total algorithm cause who tf knows what HHH(collatz_conj) would >>>>>>>> return, if even. i bet it wouldn't, i bet HHH(collatz_conj)
    diverges as written.

    now idk if ur gunna accept that or not, prolly u stopped reading >>>>>>>> by now tbh ... but you wanna know what i think is useful about >>>>>>>> this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an infinite >>>>>>>> looping recursion like what it tries on DD, because that's how >>>>>>>> the inductive math proofs work. but u can't actually build a
    machine that totally implements that as an automated prover
    precisely because of the machine DD that u wrote...

    something feels off about that for sure, if the math was good >>>>>>>> HHH should work cause the algo is so dead simple.















    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 12:55:26 2026
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that >>>>>>>>>>>> simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>>>> simulated return statement while being simulated by HHH. >>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the
    simulated DD resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does >>>>>>>>>>> _not_ interfere with the simulation being run, like a turing >>>>>>>>>>> machine itself does not interfere with it's own execution >>>>>>>>>>>
    HHH does interfere, therefore it's not a universal simulator. >>>>>>>>>>> it's only reporting on a truncated partial trace of DD, not >>>>>>>>>>> the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT


    HHH is not ? the universal simulator and does not simulate DD >>>>>>>>> in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot crap >>>>>>> on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating line 01 >>>>>
    looks like your own brain just entered the infinite recursion you
    claimed HHH could detect. too bad HHH didn't abort before line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06: HHH(DD)
    does a partial simulation of DD, and therefor will not simulate DD to
    line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so
    disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches line 06 in
    the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.




    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much bigger
    reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy of
    reading all that i wrote, and that really is ur loss because i'm most
    definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't
    reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD reaches >>>>>>>>> DDs return statement is just ... nonsense. HHH is _not_ a
    universal simulator and does _not_ simulate DD in total nor >>>>>>>>> even is expected to do so!

    it is therefore _not_ actually reporting on a complete
    simulation of DD, objectively so as HHH cuts off DDs simulation >>>>>>>>> before DD reaches it's final state. if u compared the states >>>>>>>>> the HHH(DD) records in it's simulation, this would not match >>>>>>>>> the states that ?(DD) records in it's simulation. HHH(DD) would >>>>>>>>> match up to some point, at which point HHH(DD) would record no >>>>>>>>> more states, while ?(DD) does.

    HHH is merely a broken algorithm that does not refute the
    halting theorem in the slightest. i don't even think it's a >>>>>>>>> total algorithm cause who tf knows what HHH(collatz_conj) would >>>>>>>>> return, if even. i bet it wouldn't, i bet HHH(collatz_conj) >>>>>>>>> diverges as written.

    now idk if ur gunna accept that or not, prolly u stopped
    reading by now tbh ... but you wanna know what i think is
    useful about this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an infinite >>>>>>>>> looping recursion like what it tries on DD, because that's how >>>>>>>>> the inductive math proofs work. but u can't actually build a >>>>>>>>> machine that totally implements that as an automated prover >>>>>>>>> precisely because of the machine DD that u wrote...

    something feels off about that for sure, if the math was good >>>>>>>>> HHH should work cause the algo is so dead simple.

















    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sat Oct 31 11:06:51 2026
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH)
    Line 03: simulated DD() invokes simulated HHH(DD) that >>>>>>>>>>>>> simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>>>>> simulated return statement while being simulated by HHH. >>>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the
    simulated DD resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does >>>>>>>>>>>> _not_ interfere with the simulation being run, like a turing >>>>>>>>>>>> machine itself does not interfere with it's own execution >>>>>>>>>>>>
    HHH does interfere, therefore it's not a universal
    simulator. it's only reporting on a truncated partial trace >>>>>>>>>>>> of DD, not the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>

    HHH is not ? the universal simulator and does not simulate DD >>>>>>>>>> in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot crap >>>>>>>> on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating line 01 >>>>>>
    looks like your own brain just entered the infinite recursion you
    claimed HHH could detect. too bad HHH didn't abort before line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06: HHH(DD)
    does a partial simulation of DD, and therefor will not simulate DD to
    line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so
    disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches line 06
    in the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility?

    so u were just outright lying to me when u said such would be the only acceptable rebuttal... because it's _not_ an acceptable rebuttal





    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much bigger
    reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy of
    reading all that i wrote, and that really is ur loss because i'm
    most definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't >>>>>>>>>> reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD reaches >>>>>>>>>> DDs return statement is just ... nonsense. HHH is _not_ a >>>>>>>>>> universal simulator and does _not_ simulate DD in total nor >>>>>>>>>> even is expected to do so!

    it is therefore _not_ actually reporting on a complete
    simulation of DD, objectively so as HHH cuts off DDs
    simulation before DD reaches it's final state. if u compared >>>>>>>>>> the states the HHH(DD) records in it's simulation, this would >>>>>>>>>> not match the states that ?(DD) records in it's simulation. >>>>>>>>>> HHH(DD) would match up to some point, at which point HHH(DD) >>>>>>>>>> would record no more states, while ?(DD) does.

    HHH is merely a broken algorithm that does not refute the >>>>>>>>>> halting theorem in the slightest. i don't even think it's a >>>>>>>>>> total algorithm cause who tf knows what HHH(collatz_conj) >>>>>>>>>> would return, if even. i bet it wouldn't, i bet
    HHH(collatz_conj) diverges as written.

    now idk if ur gunna accept that or not, prolly u stopped
    reading by now tbh ... but you wanna know what i think is >>>>>>>>>> useful about this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an infinite >>>>>>>>>> looping recursion like what it tries on DD, because that's how >>>>>>>>>> the inductive math proofs work. but u can't actually build a >>>>>>>>>> machine that totally implements that as an automated prover >>>>>>>>>> precisely because of the machine DD that u wrote...

    something feels off about that for sure, if the math was good >>>>>>>>>> HHH should work cause the algo is so dead simple.



















    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 13:11:20 2026
    On 10/31/2026 12:59 PM, Python wrote:
    WHY THIS REFERENCE POST IS NEEDED


    <snip>


    The observation

    ˙˙ H0 simulates D0
    ˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation pattern.

    That point is not disputed.

    What IS disputed is


    That the above pattern continues while
    DD is simulated by HHH.

    <snip>

    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From olcott@3:633/10 to All on Sat Oct 31 13:13:38 2026
    On 10/31/2026 1:06 PM, dart200 wrote:
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH) >>>>>>>>>>>>>> Line 03: simulated DD() invokes simulated HHH(DD) that >>>>>>>>>>>>>> simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>>>>>> simulated return statement while being simulated by HHH. >>>>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the >>>>>>>>>>>>> simulated DD resulting in only a partial simulation

    a universal simulator (? as defined by turing himself) does >>>>>>>>>>>>> _not_ interfere with the simulation being run, like a >>>>>>>>>>>>> turing machine itself does not interfere with it's own >>>>>>>>>>>>> execution

    HHH does interfere, therefore it's not a universal
    simulator. it's only reporting on a truncated partial trace >>>>>>>>>>>>> of DD, not the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>>

    HHH is not ? the universal simulator and does not simulate DD >>>>>>>>>>> in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot >>>>>>>>> crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory): >>>>>>> line 01: simulated olcott() invokes all-caps macro repeating line 01 >>>>>>>
    looks like your own brain just entered the infinite recursion you >>>>>>> claimed HHH could detect. too bad HHH didn't abort before line 5. >>>>>>>

    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06:
    HHH(DD) does a partial simulation of DD, and therefor will not
    simulate DD to line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so
    disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches line 06
    in the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility?


    Until you say that you understand it is a logical
    impossibility you remain an Eliza bot in rebuttal mode.

    so u were just outright lying to me when u said such would be the only acceptable rebuttal... because it's _not_ an acceptable rebuttal





    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much bigger >>>>> reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy
    of reading all that i wrote, and that really is ur loss because i'm >>>>> most definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't >>>>>>>>>>> reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD
    reaches DDs return statement is just ... nonsense. HHH is >>>>>>>>>>> _not_ a universal simulator and does _not_ simulate DD in >>>>>>>>>>> total nor even is expected to do so!

    it is therefore _not_ actually reporting on a complete
    simulation of DD, objectively so as HHH cuts off DDs
    simulation before DD reaches it's final state. if u compared >>>>>>>>>>> the states the HHH(DD) records in it's simulation, this would >>>>>>>>>>> not match the states that ?(DD) records in it's simulation. >>>>>>>>>>> HHH(DD) would match up to some point, at which point HHH(DD) >>>>>>>>>>> would record no more states, while ?(DD) does.

    HHH is merely a broken algorithm that does not refute the >>>>>>>>>>> halting theorem in the slightest. i don't even think it's a >>>>>>>>>>> total algorithm cause who tf knows what HHH(collatz_conj) >>>>>>>>>>> would return, if even. i bet it wouldn't, i bet
    HHH(collatz_conj) diverges as written.

    now idk if ur gunna accept that or not, prolly u stopped >>>>>>>>>>> reading by now tbh ... but you wanna know what i think is >>>>>>>>>>> useful about this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an
    infinite looping recursion like what it tries on DD, because >>>>>>>>>>> that's how the inductive math proofs work. but u can't
    actually build a machine that totally implements that as an >>>>>>>>>>> automated prover precisely because of the machine DD that u >>>>>>>>>>> wrote...

    something feels off about that for sure, if the math was good >>>>>>>>>>> HHH should work cause the algo is so dead simple.





















    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sat Oct 31 11:51:58 2026
    On 10/31/26 11:13 AM, olcott wrote:
    On 10/31/2026 1:06 PM, dart200 wrote:
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH) >>>>>>>>>>>>>>> Line 03: simulated DD() invokes simulated HHH(DD) that >>>>>>>>>>>>>>> simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>>>>>>> simulated return statement while being simulated by HHH. >>>>>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the >>>>>>>>>>>>>> simulated DD resulting in only a partial simulation >>>>>>>>>>>>>>
    a universal simulator (? as defined by turing himself) >>>>>>>>>>>>>> does _not_ interfere with the simulation being run, like a >>>>>>>>>>>>>> turing machine itself does not interfere with it's own >>>>>>>>>>>>>> execution

    HHH does interfere, therefore it's not a universal >>>>>>>>>>>>>> simulator. it's only reporting on a truncated partial >>>>>>>>>>>>>> trace of DD, not the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>>>

    HHH is not ? the universal simulator and does not simulate >>>>>>>>>>>> DD in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot >>>>>>>>>> crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory): >>>>>>>> line 01: simulated olcott() invokes all-caps macro repeating
    line 01

    looks like your own brain just entered the infinite recursion you >>>>>>>> claimed HHH could detect. too bad HHH didn't abort before line 5. >>>>>>>>

    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06:
    HHH(DD) does a partial simulation of DD, and therefor will not
    simulate DD to line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so
    disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches line
    06 in the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility?


    Until you say that you understand it is a logical
    impossibility you remain an Eliza bot in rebuttal mode.

    i already repeatedly agreed HHH(DD) does not simulate DD until line 6 polcott...

    the only question i'm left with:

    why are you lying about it being an acceptable rebuttal?


    so u were just outright lying to me when u said such would be the only
    acceptable rebuttal... because it's _not_ an acceptable rebuttal





    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much
    bigger reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy >>>>>> of reading all that i wrote, and that really is ur loss because
    i'm most definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't >>>>>>>>>>>> reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD >>>>>>>>>>>> reaches DDs return statement is just ... nonsense. HHH is >>>>>>>>>>>> _not_ a universal simulator and does _not_ simulate DD in >>>>>>>>>>>> total nor even is expected to do so!

    it is therefore _not_ actually reporting on a complete >>>>>>>>>>>> simulation of DD, objectively so as HHH cuts off DDs
    simulation before DD reaches it's final state. if u compared >>>>>>>>>>>> the states the HHH(DD) records in it's simulation, this >>>>>>>>>>>> would not match the states that ?(DD) records in it's >>>>>>>>>>>> simulation. HHH(DD) would match up to some point, at which >>>>>>>>>>>> point HHH(DD) would record no more states, while ?(DD) does. >>>>>>>>>>>>
    HHH is merely a broken algorithm that does not refute the >>>>>>>>>>>> halting theorem in the slightest. i don't even think it's a >>>>>>>>>>>> total algorithm cause who tf knows what HHH(collatz_conj) >>>>>>>>>>>> would return, if even. i bet it wouldn't, i bet
    HHH(collatz_conj) diverges as written.

    now idk if ur gunna accept that or not, prolly u stopped >>>>>>>>>>>> reading by now tbh ... but you wanna know what i think is >>>>>>>>>>>> useful about this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an >>>>>>>>>>>> infinite looping recursion like what it tries on DD, because >>>>>>>>>>>> that's how the inductive math proofs work. but u can't >>>>>>>>>>>> actually build a machine that totally implements that as an >>>>>>>>>>>> automated prover precisely because of the machine DD that u >>>>>>>>>>>> wrote...

    something feels off about that for sure, if the math was >>>>>>>>>>>> good HHH should work cause the algo is so dead simple. >>>>>>>>>>>>






















    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 13:58:25 2026
    On 10/31/2026 1:51 PM, dart200 wrote:
    On 10/31/26 11:13 AM, olcott wrote:
    On 10/31/2026 1:06 PM, dart200 wrote:
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH) >>>>>>>>>>>>>>>> Line 03: simulated DD() invokes simulated HHH(DD) that >>>>>>>>>>>>>>>> simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>>>>>>>> of the C programming language cannot possibly reach its own >>>>>>>>>>>>>>>> simulated return statement while being simulated by HHH. >>>>>>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH


    HHH only runs a modified simulator that cuts off the >>>>>>>>>>>>>>> simulated DD resulting in only a partial simulation >>>>>>>>>>>>>>>
    a universal simulator (? as defined by turing himself) >>>>>>>>>>>>>>> does _not_ interfere with the simulation being run, like >>>>>>>>>>>>>>> a turing machine itself does not interfere with it's own >>>>>>>>>>>>>>> execution

    HHH does interfere, therefore it's not a universal >>>>>>>>>>>>>>> simulator. it's only reporting on a truncated partial >>>>>>>>>>>>>>> trace of DD, not the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement
    on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>>>>

    HHH is not ? the universal simulator and does not simulate >>>>>>>>>>>>> DD in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot >>>>>>>>>>> crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory): >>>>>>>>> line 01: simulated olcott() invokes all-caps macro repeating >>>>>>>>> line 01

    looks like your own brain just entered the infinite recursion you >>>>>>>>> claimed HHH could detect. too bad HHH didn't abort before line 5. >>>>>>>>>

    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of
    professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06:
    HHH(DD) does a partial simulation of DD, and therefor will not
    simulate DD to line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so
    disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches line
    06 in the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility?


    Until you say that you understand it is a logical
    impossibility you remain an Eliza bot in rebuttal mode.

    i already repeatedly agreed HHH(DD) does not simulate DD until line 6 polcott...


    That has the words backwards and you know it.
    This is your last chance.

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own
    line 06 while DD simulated by HHH.

    the only question i'm left with:

    why are you lying about it being an acceptable rebuttal?


    so u were just outright lying to me when u said such would be the
    only acceptable rebuttal... because it's _not_ an acceptable rebuttal





    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much
    bigger reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the courtesy >>>>>>> of reading all that i wrote, and that really is ur loss because >>>>>>> i'm most definitely not like the other chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it doesn't >>>>>>>>>>>>> reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD >>>>>>>>>>>>> reaches DDs return statement is just ... nonsense. HHH is >>>>>>>>>>>>> _not_ a universal simulator and does _not_ simulate DD in >>>>>>>>>>>>> total nor even is expected to do so!

    it is therefore _not_ actually reporting on a complete >>>>>>>>>>>>> simulation of DD, objectively so as HHH cuts off DDs >>>>>>>>>>>>> simulation before DD reaches it's final state. if u >>>>>>>>>>>>> compared the states the HHH(DD) records in it's simulation, >>>>>>>>>>>>> this would not match the states that ?(DD) records in it's >>>>>>>>>>>>> simulation. HHH(DD) would match up to some point, at which >>>>>>>>>>>>> point HHH(DD) would record no more states, while ?(DD) does. >>>>>>>>>>>>>
    HHH is merely a broken algorithm that does not refute the >>>>>>>>>>>>> halting theorem in the slightest. i don't even think it's a >>>>>>>>>>>>> total algorithm cause who tf knows what HHH(collatz_conj) >>>>>>>>>>>>> would return, if even. i bet it wouldn't, i bet
    HHH(collatz_conj) diverges as written.

    now idk if ur gunna accept that or not, prolly u stopped >>>>>>>>>>>>> reading by now tbh ... but you wanna know what i think is >>>>>>>>>>>>> useful about this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an >>>>>>>>>>>>> infinite looping recursion like what it tries on DD, >>>>>>>>>>>>> because that's how the inductive math proofs work. but u >>>>>>>>>>>>> can't actually build a machine that totally implements that >>>>>>>>>>>>> as an automated prover precisely because of the machine DD >>>>>>>>>>>>> that u wrote...

    something feels off about that for sure, if the math was >>>>>>>>>>>>> good HHH should work cause the algo is so dead simple. >>>>>>>>>>>>>
























    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sat Oct 31 12:13:21 2026
    On 10/31/26 11:58 AM, olcott wrote:
    On 10/31/2026 1:51 PM, dart200 wrote:
    On 10/31/26 11:13 AM, olcott wrote:
    On 10/31/2026 1:06 PM, dart200 wrote:
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness:
    Simulation invariant (while DD is simulated by HHH) >>>>>>>>>>>>>>>>> Line 03: simulated DD() invokes simulated HHH(DD) that >>>>>>>>>>>>>>>>> simulates DD()

    DD simulated by HHH according to the operational semantics >>>>>>>>>>>>>>>>> of the C programming language cannot possibly reach its >>>>>>>>>>>>>>>>> own
    simulated return statement while being simulated by HHH. >>>>>>>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH >>>>>>>>>>>>>>>>>

    HHH only runs a modified simulator that cuts off the >>>>>>>>>>>>>>>> simulated DD resulting in only a partial simulation >>>>>>>>>>>>>>>>
    a universal simulator (? as defined by turing himself) >>>>>>>>>>>>>>>> does _not_ interfere with the simulation being run, like >>>>>>>>>>>>>>>> a turing machine itself does not interfere with it's own >>>>>>>>>>>>>>>> execution

    HHH does interfere, therefore it's not a universal >>>>>>>>>>>>>>>> simulator. it's only reporting on a truncated partial >>>>>>>>>>>>>>>> trace of DD, not the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>>>>>

    HHH is not ? the universal simulator and does not simulate >>>>>>>>>>>>>> DD in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot >>>>>>>>>>>> crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory): >>>>>>>>>> line 01: simulated olcott() invokes all-caps macro repeating >>>>>>>>>> line 01

    looks like your own brain just entered the infinite recursion you >>>>>>>>>> claimed HHH could detect. too bad HHH didn't abort before line 5. >>>>>>>>>>

    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of >>>>>>>> professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06:
    HHH(DD) does a partial simulation of DD, and therefor will not
    simulate DD to line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so
    disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches line >>>>>> 06 in the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility?


    Until you say that you understand it is a logical
    impossibility you remain an Eliza bot in rebuttal mode.

    i already repeatedly agreed HHH(DD) does not simulate DD until line 6
    polcott...


    That has the words backwards and you know it.

    HHH simulated with input DD, referred to by HHH(DD), simulates DD.

    this DD simulation by HHH(DD) does not reach line 06.

    what is backwards?

    This is your last chance.

    dud why do u keep making threats?


    DD simulated by HHH does not reach its own
    simulated "return" statement on its own
    line 06 while DD simulated by HHH.

    the only question i'm left with:

    why are you lying about it being an acceptable rebuttal?


    so u were just outright lying to me when u said such would be the
    only acceptable rebuttal... because it's _not_ an acceptable rebuttal





    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much
    bigger reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the
    courtesy of reading all that i wrote, and that really is ur loss >>>>>>>> because i'm most definitely not like the other chucklefucks
    around here




    HHH cuts off the simulation of DD short, so ofc it doesn't >>>>>>>>>>>>>> reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD >>>>>>>>>>>>>> reaches DDs return statement is just ... nonsense. HHH is >>>>>>>>>>>>>> _not_ a universal simulator and does _not_ simulate DD in >>>>>>>>>>>>>> total nor even is expected to do so!

    it is therefore _not_ actually reporting on a complete >>>>>>>>>>>>>> simulation of DD, objectively so as HHH cuts off DDs >>>>>>>>>>>>>> simulation before DD reaches it's final state. if u >>>>>>>>>>>>>> compared the states the HHH(DD) records in it's
    simulation, this would not match the states that ?(DD) >>>>>>>>>>>>>> records in it's simulation. HHH(DD) would match up to some >>>>>>>>>>>>>> point, at which point HHH(DD) would record no more states, >>>>>>>>>>>>>> while ?(DD) does.

    HHH is merely a broken algorithm that does not refute the >>>>>>>>>>>>>> halting theorem in the slightest. i don't even think it's >>>>>>>>>>>>>> a total algorithm cause who tf knows what
    HHH(collatz_conj) would return, if even. i bet it >>>>>>>>>>>>>> wouldn't, i bet HHH(collatz_conj) diverges as written. >>>>>>>>>>>>>>
    now idk if ur gunna accept that or not, prolly u stopped >>>>>>>>>>>>>> reading by now tbh ... but you wanna know what i think is >>>>>>>>>>>>>> useful about this issue of HHH that you bring up?

    ur kinda right that HHH _should_ be able to detect an >>>>>>>>>>>>>> infinite looping recursion like what it tries on DD, >>>>>>>>>>>>>> because that's how the inductive math proofs work. but u >>>>>>>>>>>>>> can't actually build a machine that totally implements >>>>>>>>>>>>>> that as an automated prover precisely because of the >>>>>>>>>>>>>> machine DD that u wrote...

    something feels off about that for sure, if the math was >>>>>>>>>>>>>> good HHH should work cause the algo is so dead simple. >>>>>>>>>>>>>>


























    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 15:20:24 2026
    On 10/31/2026 2:13 PM, dart200 wrote:
    On 10/31/26 11:58 AM, olcott wrote:
    On 10/31/2026 1:51 PM, dart200 wrote:
    On 10/31/26 11:13 AM, olcott wrote:
    On 10/31/2026 1:06 PM, dart200 wrote:
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness: >>>>>>>>>>>>>>>>>> Simulation invariant (while DD is simulated by HHH) >>>>>>>>>>>>>>>>>> Line 03: simulated DD() invokes simulated HHH(DD) that >>>>>>>>>>>>>>>>>> simulates DD()

    DD simulated by HHH according to the operational >>>>>>>>>>>>>>>>>> semantics
    of the C programming language cannot possibly reach >>>>>>>>>>>>>>>>>> its own
    simulated return statement while being simulated by HHH. >>>>>>>>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH >>>>>>>>>>>>>>>>>>

    HHH only runs a modified simulator that cuts off the >>>>>>>>>>>>>>>>> simulated DD resulting in only a partial simulation >>>>>>>>>>>>>>>>>
    a universal simulator (? as defined by turing himself) >>>>>>>>>>>>>>>>> does _not_ interfere with the simulation being run, >>>>>>>>>>>>>>>>> like a turing machine itself does not interfere with >>>>>>>>>>>>>>>>> it's own execution

    HHH does interfere, therefore it's not a universal >>>>>>>>>>>>>>>>> simulator. it's only reporting on a truncated partial >>>>>>>>>>>>>>>>> trace of DD, not the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH
    EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>>>>>>

    HHH is not ? the universal simulator and does not >>>>>>>>>>>>>>> simulate DD in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda brainrot >>>>>>>>>>>>> crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by comp.theory): >>>>>>>>>>> line 01: simulated olcott() invokes all-caps macro repeating >>>>>>>>>>> line 01

    looks like your own brain just entered the infinite recursion >>>>>>>>>>> you
    claimed HHH could detect. too bad HHH didn't abort before >>>>>>>>>>> line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of >>>>>>>>> professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06:
    HHH(DD) does a partial simulation of DD, and therefor will not
    simulate DD to line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so >>>>>>> disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches
    line 06 in the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility?


    Until you say that you understand it is a logical
    impossibility you remain an Eliza bot in rebuttal mode.

    i already repeatedly agreed HHH(DD) does not simulate DD until line 6
    polcott...


    That has the words backwards and you know it.

    HHH simulated with input DD, referred to by HHH(DD), simulates DD.

    this DD simulation by HHH(DD) does not reach line 06.


    That is still not exactly what is required yet
    seems closer. The 100% perfectly exact meaning
    must be 100% completely retained

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    H0 simulates D0
    -> D0 calls H1
    -> H1 simulates D1
    -> D1 calls H2
    -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Still will not admit that this means:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    He seems to have some non-standard meaning of ...

    There are a whole bunch of steps after this that we
    cannot get to with:

    Mike Terry
    Andr‚ G. Isaak
    Kaz Kylheku
    Alan Mackenzie

    Mike Terry and Kaz Kylheku are very competent.

    until the above step is accepted.

    what is backwards?

    This is your last chance.

    dud why do u keep making threats?


    dbush didn't take it as a threat he just
    understood that I drew the line with his
    head games.


    DD simulated by HHH does not reach its own
    simulated "return" statement on its own
    line 06 while DD simulated by HHH.

    the only question i'm left with:

    why are you lying about it being an acceptable rebuttal?


    so u were just outright lying to me when u said such would be the
    only acceptable rebuttal... because it's _not_ an acceptable rebuttal >>>>>




    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much >>>>>>>>> bigger reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the
    courtesy of reading all that i wrote, and that really is ur >>>>>>>>> loss because i'm most definitely not like the other
    chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it >>>>>>>>>>>>>>> doesn't reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD >>>>>>>>>>>>>>> reaches DDs return statement is just ... nonsense. HHH is >>>>>>>>>>>>>>> _not_ a universal simulator and does _not_ simulate DD in >>>>>>>>>>>>>>> total nor even is expected to do so!

    it is therefore _not_ actually reporting on a complete >>>>>>>>>>>>>>> simulation of DD, objectively so as HHH cuts off DDs >>>>>>>>>>>>>>> simulation before DD reaches it's final state. if u >>>>>>>>>>>>>>> compared the states the HHH(DD) records in it's >>>>>>>>>>>>>>> simulation, this would not match the states that ?(DD) >>>>>>>>>>>>>>> records in it's simulation. HHH(DD) would match up to >>>>>>>>>>>>>>> some point, at which point HHH(DD) would record no more >>>>>>>>>>>>>>> states, while ?(DD) does.

    HHH is merely a broken algorithm that does not refute the >>>>>>>>>>>>>>> halting theorem in the slightest. i don't even think it's >>>>>>>>>>>>>>> a total algorithm cause who tf knows what
    HHH(collatz_conj) would return, if even. i bet it >>>>>>>>>>>>>>> wouldn't, i bet HHH(collatz_conj) diverges as written. >>>>>>>>>>>>>>>
    now idk if ur gunna accept that or not, prolly u stopped >>>>>>>>>>>>>>> reading by now tbh ... but you wanna know what i think is >>>>>>>>>>>>>>> useful about this issue of HHH that you bring up? >>>>>>>>>>>>>>>
    ur kinda right that HHH _should_ be able to detect an >>>>>>>>>>>>>>> infinite looping recursion like what it tries on DD, >>>>>>>>>>>>>>> because that's how the inductive math proofs work. but u >>>>>>>>>>>>>>> can't actually build a machine that totally implements >>>>>>>>>>>>>>> that as an automated prover precisely because of the >>>>>>>>>>>>>>> machine DD that u wrote...

    something feels off about that for sure, if the math was >>>>>>>>>>>>>>> good HHH should work cause the algo is so dead simple. >>>>>>>>>>>>>>>




























    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sat Oct 31 13:37:02 2026
    On 10/31/26 1:20 PM, olcott wrote:
    On 10/31/2026 2:13 PM, dart200 wrote:
    On 10/31/26 11:58 AM, olcott wrote:
    On 10/31/2026 1:51 PM, dart200 wrote:
    On 10/31/26 11:13 AM, olcott wrote:
    On 10/31/2026 1:06 PM, dart200 wrote:
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness: >>>>>>>>>>>>>>>>>>> Simulation invariant (while DD is simulated by HHH) >>>>>>>>>>>>>>>>>>> Line 03: simulated DD() invokes simulated HHH(DD) >>>>>>>>>>>>>>>>>>> that simulates DD()

    DD simulated by HHH according to the operational >>>>>>>>>>>>>>>>>>> semantics
    of the C programming language cannot possibly reach >>>>>>>>>>>>>>>>>>> its own
    simulated return statement while being simulated by HHH. >>>>>>>>>>>>>>>>>>>
    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH >>>>>>>>>>>>>>>>>>>

    HHH only runs a modified simulator that cuts off the >>>>>>>>>>>>>>>>>> simulated DD resulting in only a partial simulation >>>>>>>>>>>>>>>>>>
    a universal simulator (? as defined by turing himself) >>>>>>>>>>>>>>>>>> does _not_ interfere with the simulation being run, >>>>>>>>>>>>>>>>>> like a turing machine itself does not interfere with >>>>>>>>>>>>>>>>>> it's own execution

    HHH does interfere, therefore it's not a universal >>>>>>>>>>>>>>>>>> simulator. it's only reporting on a truncated partial >>>>>>>>>>>>>>>>>> trace of DD, not the full execution of DD


    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH >>>>>>>>>>>>>>>>> EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>>>>>>>

    HHH is not ? the universal simulator and does not >>>>>>>>>>>>>>>> simulate DD in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda >>>>>>>>>>>>>> brainrot crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by
    comp.theory):
    line 01: simulated olcott() invokes all-caps macro repeating >>>>>>>>>>>> line 01

    looks like your own brain just entered the infinite
    recursion you
    claimed HHH could detect. too bad HHH didn't abort before >>>>>>>>>>>> line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of >>>>>>>>>> professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06: >>>>>>>> HHH(DD) does a partial simulation of DD, and therefor will not >>>>>>>> simulate DD to line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so >>>>>>>> disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches >>>>>>>> line 06 in the simulation ... how would that refute ur proof?


    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility?


    Until you say that you understand it is a logical
    impossibility you remain an Eliza bot in rebuttal mode.

    i already repeatedly agreed HHH(DD) does not simulate DD until line
    6 polcott...


    That has the words backwards and you know it.

    HHH simulated with input DD, referred to by HHH(DD), simulates DD.

    this DD simulation by HHH(DD) does not reach line 06.


    That is still not exactly what is required yet
    seems closer. The 100% perfectly exact meaning
    must be 100% completely retained

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not simulate DD
    to line 06???


    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Still will not admit that this means:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    He seems to have some non-standard meaning of ...

    There are a whole bunch of steps after this that we
    cannot get to with:

    Mike Terry
    Andr‚ G. Isaak
    Kaz Kylheku
    Alan Mackenzie

    Mike Terry and Kaz Kylheku are very competent.

    until the above step is accepted.

    what is backwards?

    This is your last chance.

    dud why do u keep making threats?


    dbush didn't take it as a threat he just
    understood that I drew the line with his
    head games.

    i take it as a threat dud



    DD simulated by HHH does not reach its own
    simulated "return" statement on its own
    line 06 while DD simulated by HHH.

    the only question i'm left with:

    why are you lying about it being an acceptable rebuttal?


    so u were just outright lying to me when u said such would be the >>>>>> only acceptable rebuttal... because it's _not_ an acceptable rebuttal >>>>>>




    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much >>>>>>>>>> bigger reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the
    courtesy of reading all that i wrote, and that really is ur >>>>>>>>>> loss because i'm most definitely not like the other
    chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it >>>>>>>>>>>>>>>> doesn't reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD >>>>>>>>>>>>>>>> reaches DDs return statement is just ... nonsense. HHH >>>>>>>>>>>>>>>> is _not_ a universal simulator and does _not_ simulate >>>>>>>>>>>>>>>> DD in total nor even is expected to do so!

    it is therefore _not_ actually reporting on a complete >>>>>>>>>>>>>>>> simulation of DD, objectively so as HHH cuts off DDs >>>>>>>>>>>>>>>> simulation before DD reaches it's final state. if u >>>>>>>>>>>>>>>> compared the states the HHH(DD) records in it's >>>>>>>>>>>>>>>> simulation, this would not match the states that ?(DD) >>>>>>>>>>>>>>>> records in it's simulation. HHH(DD) would match up to >>>>>>>>>>>>>>>> some point, at which point HHH(DD) would record no more >>>>>>>>>>>>>>>> states, while ?(DD) does.

    HHH is merely a broken algorithm that does not refute >>>>>>>>>>>>>>>> the halting theorem in the slightest. i don't even think >>>>>>>>>>>>>>>> it's a total algorithm cause who tf knows what >>>>>>>>>>>>>>>> HHH(collatz_conj) would return, if even. i bet it >>>>>>>>>>>>>>>> wouldn't, i bet HHH(collatz_conj) diverges as written. >>>>>>>>>>>>>>>>
    now idk if ur gunna accept that or not, prolly u stopped >>>>>>>>>>>>>>>> reading by now tbh ... but you wanna know what i think >>>>>>>>>>>>>>>> is useful about this issue of HHH that you bring up? >>>>>>>>>>>>>>>>
    ur kinda right that HHH _should_ be able to detect an >>>>>>>>>>>>>>>> infinite looping recursion like what it tries on DD, >>>>>>>>>>>>>>>> because that's how the inductive math proofs work. but u >>>>>>>>>>>>>>>> can't actually build a machine that totally implements >>>>>>>>>>>>>>>> that as an automated prover precisely because of the >>>>>>>>>>>>>>>> machine DD that u wrote...

    something feels off about that for sure, if the math was >>>>>>>>>>>>>>>> good HHH should work cause the algo is so dead simple. >>>>>>>>>>>>>>>>






























    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 15:54:15 2026
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:
    On 10/31/2026 2:13 PM, dart200 wrote:
    On 10/31/26 11:58 AM, olcott wrote:
    On 10/31/2026 1:51 PM, dart200 wrote:
    On 10/31/26 11:13 AM, olcott wrote:
    On 10/31/2026 1:06 PM, dart200 wrote:
    On 10/31/26 10:55 AM, olcott wrote:
    On 10/31/2026 12:33 PM, dart200 wrote:
    On 10/31/26 9:31 AM, olcott wrote:
    On 10/31/2026 10:52 AM, dart200 wrote:
    On 10/31/26 8:42 AM, olcott wrote:
    On 10/31/2026 10:36 AM, dart200 wrote:
    On 10/31/26 8:25 AM, olcott wrote:
    On 10/31/2026 10:20 AM, dart200 wrote:
    On 10/31/26 4:58 AM, olcott wrote:
    On 10/31/2026 2:52 AM, dart200 wrote:
    On 10/30/26 9:26 PM, olcott wrote:
    On 10/30/2026 10:59 PM, dart200 wrote:
    On 10/30/26 8:54 PM, olcott wrote:
    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Mathematical proof of program correctness: >>>>>>>>>>>>>>>>>>>> Simulation invariant (while DD is simulated by HHH) >>>>>>>>>>>>>>>>>>>> Line 03: simulated DD() invokes simulated HHH(DD) >>>>>>>>>>>>>>>>>>>> that simulates DD()

    DD simulated by HHH according to the operational >>>>>>>>>>>>>>>>>>>> semantics
    of the C programming language cannot possibly reach >>>>>>>>>>>>>>>>>>>> its own
    simulated return statement while being simulated by >>>>>>>>>>>>>>>>>>>> HHH.

    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH >>>>>>>>>>>>>>>>>>>>

    HHH only runs a modified simulator that cuts off the >>>>>>>>>>>>>>>>>>> simulated DD resulting in only a partial simulation >>>>>>>>>>>>>>>>>>>
    a universal simulator (? as defined by turing >>>>>>>>>>>>>>>>>>> himself) does _not_ interfere with the simulation >>>>>>>>>>>>>>>>>>> being run, like a turing machine itself does not >>>>>>>>>>>>>>>>>>> interfere with it's own execution

    HHH does interfere, therefore it's not a universal >>>>>>>>>>>>>>>>>>> simulator. it's only reporting on a truncated partial >>>>>>>>>>>>>>>>>>> trace of DD, not the full execution of DD >>>>>>>>>>>>>>>>>>>

    The only acceptable rebuttal
    show exactly how DD reaches its return statement >>>>>>>>>>>>>>>>>> on line 06 while DD is being simulated by HHH >>>>>>>>>>>>>>>>>> EVERYTHING ELSE IS A DISHONEST DODGE AWAY FROM THE POINT >>>>>>>>>>>>>>>>>>

    HHH is not ? the universal simulator and does not >>>>>>>>>>>>>>>>> simulate DD in total.

    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT
    DISHONEST DODGE AWAY FROM THE POINT

    i'm trying to help u polcott and u pull this kinda >>>>>>>>>>>>>>> brainrot crap on me


    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH
    DD WHILE IT IS BEING SIMULATED BY HHH

    simulation invariant (while olcott is simulated by
    comp.theory):
    line 01: simulated olcott() invokes all-caps macro
    repeating line 01

    looks like your own brain just entered the infinite >>>>>>>>>>>>> recursion you
    claimed HHH could detect. too bad HHH didn't abort before >>>>>>>>>>>>> line 5.


    So you never really were a programmer and
    want to hide your ignorance of programming
    by diversion and head games?

    Exactly what Are your programming credentials?

    i have a computer engineering degree from ucsd and ~10 yrs of >>>>>>>>>>> professional experience


    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Then I do not see why that you cannot see that
    while DD is simulated by HHH you will not concede
    that this same DD simulated by HHH will not reach

    i've already conceded HHH(DD) does not simulate DD to line 06: >>>>>>>>> HHH(DD) does a partial simulation of DD, and therefor will not >>>>>>>>> simulate DD to line 06

    its own line 06, unless your primary goal is to
    be disagreeable.

    i'm agreeing with u polcott on that point, why are you being so >>>>>>>>> disagreeable about it? ?

    If you fail to concede that DD simulated by HHH
    cannot reach its own line 06 while DD is being
    simulated by HHH

    or fail to show exactly how DD simulated by HHH
    does reach it own simulated line 06 while DD is
    being simulated by HHH I will end this conversation
    with you.

    let's suppose i could show that HHH(DD) simulating DD reaches >>>>>>>>> line 06 in the simulation ... how would that refute ur proof? >>>>>>>>>

    With the credentials that you say that you have you
    would already know it is a logical impossibility.

    the only rebuttal u'll accept is in fact a logical impossibility? >>>>>>>

    Until you say that you understand it is a logical
    impossibility you remain an Eliza bot in rebuttal mode.

    i already repeatedly agreed HHH(DD) does not simulate DD until line >>>>> 6 polcott...


    That has the words backwards and you know it.

    HHH simulated with input DD, referred to by HHH(DD), simulates DD.

    this DD simulation by HHH(DD) does not reach line 06.


    That is still not exactly what is required yet
    seems closer. The 100% perfectly exact meaning
    must be 100% completely retained

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes


    Mike Terry
    Andr‚ G. Isaak
    Kaz Kylheku
    Have never agreed.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    H0 simulates D0
    -> D0 calls H1
    -> H1 simulates D1
    -> D1 calls H2
    -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    how many more times do i need to agree that HHH(DD) does not simulate DD
    to line 06???


    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Still will not admit that this means:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    He seems to have some non-standard meaning of ...

    There are a whole bunch of steps after this that we
    cannot get to with:

    Mike Terry
    Andr‚ G. Isaak
    Kaz Kylheku
    Alan Mackenzie

    Mike Terry and Kaz Kylheku are very competent.

    until the above step is accepted.

    what is backwards?

    This is your last chance.

    dud why do u keep making threats?


    dbush didn't take it as a threat he just
    understood that I drew the line with his
    head games.

    i take it as a threat dud



    DD simulated by HHH does not reach its own
    simulated "return" statement on its own
    line 06 while DD simulated by HHH.

    the only question i'm left with:

    why are you lying about it being an acceptable rebuttal?


    so u were just outright lying to me when u said such would be the >>>>>>> only acceptable rebuttal... because it's _not_ an acceptable
    rebuttal





    The lack of a direct answer to this question
    will be taken as the reason to end this
    conversation with you.

    bruh u pulling fallacy after fallacy after fallacy is a much >>>>>>>>>>> bigger reason for me to end the convo with you ...

    but haven't done that now, have i??? u don't give me the >>>>>>>>>>> courtesy of reading all that i wrote, and that really is ur >>>>>>>>>>> loss because i'm most definitely not like the other
    chucklefucks around here




    HHH cuts off the simulation of DD short, so ofc it >>>>>>>>>>>>>>>>> doesn't reach DD's return statement

    asking for a rebuttal to explain how HHH simulating DD >>>>>>>>>>>>>>>>> reaches DDs return statement is just ... nonsense. HHH >>>>>>>>>>>>>>>>> is _not_ a universal simulator and does _not_ simulate >>>>>>>>>>>>>>>>> DD in total nor even is expected to do so!

    it is therefore _not_ actually reporting on a complete >>>>>>>>>>>>>>>>> simulation of DD, objectively so as HHH cuts off DDs >>>>>>>>>>>>>>>>> simulation before DD reaches it's final state. if u >>>>>>>>>>>>>>>>> compared the states the HHH(DD) records in it's >>>>>>>>>>>>>>>>> simulation, this would not match the states that ?(DD) >>>>>>>>>>>>>>>>> records in it's simulation. HHH(DD) would match up to >>>>>>>>>>>>>>>>> some point, at which point HHH(DD) would record no more >>>>>>>>>>>>>>>>> states, while ?(DD) does.

    HHH is merely a broken algorithm that does not refute >>>>>>>>>>>>>>>>> the halting theorem in the slightest. i don't even >>>>>>>>>>>>>>>>> think it's a total algorithm cause who tf knows what >>>>>>>>>>>>>>>>> HHH(collatz_conj) would return, if even. i bet it >>>>>>>>>>>>>>>>> wouldn't, i bet HHH(collatz_conj) diverges as written. >>>>>>>>>>>>>>>>>
    now idk if ur gunna accept that or not, prolly u >>>>>>>>>>>>>>>>> stopped reading by now tbh ... but you wanna know what >>>>>>>>>>>>>>>>> i think is useful about this issue of HHH that you >>>>>>>>>>>>>>>>> bring up?

    ur kinda right that HHH _should_ be able to detect an >>>>>>>>>>>>>>>>> infinite looping recursion like what it tries on DD, >>>>>>>>>>>>>>>>> because that's how the inductive math proofs work. but >>>>>>>>>>>>>>>>> u can't actually build a machine that totally >>>>>>>>>>>>>>>>> implements that as an automated prover precisely >>>>>>>>>>>>>>>>> because of the machine DD that u wrote...

    something feels off about that for sure, if the math >>>>>>>>>>>>>>>>> was good HHH should work cause the algo is so dead simple. >>>>>>>>>>>>>>>>>
































    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From olcott@3:633/10 to All on Sat Oct 31 20:05:21 2026
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not simulate DD
    to line 06???


    I think that makes you the first person to agree
    that knows anything about the halting theorem. I
    have had three C programmers agree.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    H0 simulates D0
    -> D0 calls H1
    -> H1 simulates D1
    -> D1 calls H2
    -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    Mike Terry and Kaz Kylheku expressly disagreed

    01 int DD()
    02 {
    03 int Halt_Status = HHH(DD);
    04 if (Halt_Status)
    05 HERE: goto HERE;
    06 return Halt_Status;
    07 }

    Even though the code itself completely proves:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.


    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From makendo@3:633/10 to All on Sun Nov 1 10:33:04 2026
    [extremely long reply chain snipped]

    Probably just kill file at this point.

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 21:44:10 2026
    On 10/31/2026 8:43 PM, Mike Terry wrote:
    On 01/11/2026 01:10, Python wrote:
    Le 01/11/2026 … 02:05, olcott a ‚crit :
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not
    simulate DD to line 06? ? ?


    I think that makes you the first person to agree
    that knows anything about the halting theorem. I
    have had three C programmers agree.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation
    pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    Mike Terry and Kaz Kylheku expressly disagreed

    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Even though the code itself completely proves:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    Peter, STOP misrepresenting what I agreed to.

    I agreed that:

    ˙˙˙ H0 simulates D0
    ˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    establishes the BEGINNING of a recursive simulation pattern.

    I did NOT agree that this proves:

    ˙˙˙ DD can never reach line 06.

    Those are different propositions.

    The missing inference is still:

    ˙˙˙ finite recursive prefix
    ˙˙˙˙˙˙˙ =>
    ˙˙˙ recursion necessarily continues forever

    and I have explicitly REJECTED that inference.

    Worse, you have already acknowledged that you misunderstood what I meant:

    ˙˙˙ "I did not realize that you did not mean..."
    ˙˙˙ "I thought that you were saying..."

    So there is no ambiguity left.

    You may argue that I am WRONG.

    You may NOT claim that I AGREED with something I have explicitly told
    you I do not agree with.

    You misunderstood my statement.
    I corrected you.
    You acknowledged the misunderstanding.

    STOP citing my words as agreement with your conclusion.


    I've lost count of the number of times PO has misrepresented my words
    (and many others) in his posts, either to support his arguments, or
    simply because he is genuinely clueless and doesn't understand what has
    been said.˙ I'm afraid it's just something he does.

    I doubt there are any regular readers here who take such claims by PO seriously, but it's still irritating...


    Mike.

    01 int DD()
    02 {
    03 int Halt_Status = HHH(DD);
    04 if (Halt_Status)
    05 HERE: goto HERE;
    06 return Halt_Status;
    07 }

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    You seemed to have said No and seemed to have
    based this No on a rewrite or a portion of HHH
    so that it behaves differently.

    Stonewalling on this will count as your first
    deception. I welcome correction of any errors
    of misinterpretation on my part.

    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From olcott@3:633/10 to All on Sat Oct 31 21:52:07 2026
    On 10/31/2026 8:10 PM, Python wrote:
    Le 01/11/2026 … 02:05, olcott a ‚crit :
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not simulate
    DD to line 06? ? ?


    I think that makes you the first person to agree
    that knows anything about the halting theorem. I
    have had three C programmers agree.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    Mike Terry and Kaz Kylheku expressly disagreed

    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Even though the code itself completely proves:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    Peter, STOP misrepresenting what I agreed to.

    I agreed that:

    ˙˙ H0 simulates D0
    ˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙ -> ...

    establishes the BEGINNING of a recursive simulation pattern.

    I did NOT agree that this proves:

    ˙˙ DD can never reach line 06.


    That is a dishonest paraphrase of this:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    01 int DD()
    02 {
    03 int Halt_Status = HHH(DD);
    04 if (Halt_Status)
    05 HERE: goto HERE;
    06 return Halt_Status;
    07 }


    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sat Oct 31 20:30:00 2026
    On 10/31/26 6:05 PM, olcott wrote:
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not simulate
    DD to line 06???


    I think that makes you the first person to agree
    that knows anything about the halting theorem. I

    what exactly does HHH(DD) not simulating DD to it's return statement
    have to do with the halting theorem???

    have had three C programmers agree.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    Mike Terry and Kaz Kylheku expressly disagreed

    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Even though the code itself completely proves:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.




    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sat Oct 31 22:37:58 2026
    On 10/31/2026 10:30 PM, dart200 wrote:
    On 10/31/26 6:05 PM, olcott wrote:
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not simulate
    DD to line 06???


    I think that makes you the first person to agree
    that knows anything about the halting theorem. I

    what exactly does HHH(DD) not simulating DD to it's return statement
    have to do with the halting theorem???


    That is a bad paraphrase so we must go back a step.

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    It took me 22 years to get the words exactly
    right they cannot be changed at all without
    totally screwing everything up

    have had three C programmers agree.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    Mike Terry and Kaz Kylheku expressly disagreed

    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Even though the code itself completely proves:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.






    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha
  • From dart200@3:633/10 to All on Sun Nov 1 00:19:42 2026
    On 10/31/26 8:37 PM, olcott wrote:
    On 10/31/2026 10:30 PM, dart200 wrote:
    On 10/31/26 6:05 PM, olcott wrote:
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not
    simulate DD to line 06???


    I think that makes you the first person to agree
    that knows anything about the halting theorem. I

    what exactly does HHH(DD) not simulating DD to it's return statement
    have to do with the halting theorem???


    That is a bad paraphrase so we must go back a step.

    bro i'm not joking: what does any of this have to do with disproving the halting theorem???

    i agree HHH(DD) does not simulate DD to the point of line 06. so what?
    HHH(DD) does analysis on every configuration of DD during the simulation
    of DD and aborts the simulation of DD before DD reaches it's natural
    halting state

    the problem with HHH's analysis is that it recognizes the initiation of
    the recursion, but does so before it then prevents that recursion from happening by breaking the simulation. the proof of recursion becomes
    outdated once HHH breaks DD recursion

    there's something concerning about the fact that the self-analysis
    breaks the simple proof of an infinitely recursive loop. like ur taking
    a legit algo, a legit method of proving a divergent recursion, sticking
    it in code, to then fumbles all over itself with a really simple case


    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    It took me 22 years to get the words exactly
    right they cannot be changed at all without
    totally screwing everything up

    have had three C programmers agree.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation
    pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    Mike Terry and Kaz Kylheku expressly disagreed

    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Even though the code itself completely proves:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.








    --
    arising us out of the computing dark ages,
    please excuse my pseudo-pyscript,
    ~ the lil crank that could

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From Keith Thompson@3:633/10 to All on Sun Nov 1 01:36:41 2026
    dart200 <user7160@newsgrouper.org.invalid> writes:
    On 10/31/26 6:05 PM, olcott wrote:
    [SNIP]

    Please stop cross-posting this to comp.lang.c and comp.lang.c++.

    --
    Keith Thompson (The_Other_Keith) Keith.S.Thompson+u@gmail.com
    void Void(void) { Void(); } /* The recursive call of the void */

    --- PyGate Linux v1.5.19
    * Origin: Dragon's Lair, PyGate NNTP<>Fido Gate (3:633/10)
  • From olcott@3:633/10 to All on Sun Nov 1 07:27:17 2026
    On 11/1/2026 1:19 AM, dart200 wrote:
    On 10/31/26 8:37 PM, olcott wrote:
    On 10/31/2026 10:30 PM, dart200 wrote:
    On 10/31/26 6:05 PM, olcott wrote:
    On 10/31/2026 3:37 PM, dart200 wrote:
    On 10/31/26 1:20 PM, olcott wrote:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.
    (a) Yes
    (b) No

    (a) Yes

    how many more times do i need to agree that HHH(DD) does not
    simulate DD to line 06???


    I think that makes you the first person to agree
    that knows anything about the halting theorem. I

    what exactly does HHH(DD) not simulating DD to it's return statement
    have to do with the halting theorem???


    That is a bad paraphrase so we must go back a step.

    bro i'm not joking: what does any of this have to do with disproving the halting theorem???

    i agree HHH(DD) does not simulate DD to the point of line 06. so what?

    That wording does not enable the next step after this one.
    You wording says that HHH does not bother to simulate DD
    to its line 06.

    My wording says that there does not exist any finite
    number of simulations of DD by HHH such that the
    simulated DD ever reaches its own simulated "return"
    statement.

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    I can only prove what that has to do with the halting
    problem from the above exact words. When you change
    those exact words then I cannot prove anything about
    the halting problem from the changed words.


    HHH(DD) does analysis on every configuration of DD during the simulation
    of DD and aborts the simulation of DD before DD reaches it's natural
    halting state

    the problem with HHH's analysis is that it recognizes the initiation of
    the recursion, but does so before it then prevents that recursion from happening by breaking the simulation. the proof of recursion becomes outdated once HHH breaks DD recursion

    there's something concerning about the fact that the self-analysis
    breaks the simple proof of an infinitely recursive loop. like ur taking
    a legit algo, a legit method of proving a divergent recursion, sticking
    it in code, to then fumbles all over itself with a really simple case


    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    It took me 22 years to get the words exactly
    right they cannot be changed at all without
    totally screwing everything up

    have had three C programmers agree.

    On 10/31/2026 12:59 PM, Python wrote:
    The observation

    ˙˙˙˙ H0 simulates D0
    ˙˙˙˙˙˙ -> D0 calls H1
    ˙˙˙˙˙˙˙˙ -> H1 simulates D1
    ˙˙˙˙˙˙˙˙˙˙ -> D1 calls H2
    ˙˙˙˙˙˙˙˙˙˙˙˙˙ -> ...

    certainly establishes the beginning of a recursive simulation
    pattern.


    Python agreed and then said

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.

    is not what he means even though that IS
    what his above words specify.

    Mike Terry and Kaz Kylheku expressly disagreed

    01 int DD()
    02 {
    03˙˙ int Halt_Status = HHH(DD);
    04˙˙ if (Halt_Status)
    05˙˙˙˙ HERE: goto HERE;
    06˙˙ return Halt_Status;
    07 }

    Even though the code itself completely proves:

    DD simulated by HHH does not reach its own
    simulated "return" statement on its own line
    06 while DD simulated by HHH.










    --
    Copyright 2026 Olcott

    Computation(Olcott)
    Paraphrase of Emil Post definition of computation
    All computations are equivalent to the application of finite
    string transformation rules to finite string inputs to derive
    any and all outputs.

    Because Post canonical systems are Turing-equivalent, anything
    that cannot be derived by applying finite string transformations
    to finite strings is outside the scope of Church?Turing computation.

    Decider(Olcott)
    Correcting the misnomer term-of-the-art: decider
    Every Decider(Olcott) must apply finite string transformation
    inference steps to their finite string inputs that are relevant
    to the decision criteria. It must make its decision on this basis.

    Halt Decider(Olcott)
    Decider(Olcott) entails that Halt Decider(Olcott) H(D) must apply
    finite-string inference steps according to the operational semantics
    of the source-code computation language of D. The only way to determine
    the halting property of a finite string input is to examine the same
    beha