Your scheme may well he more powerful than a Turing machine (i.e., if there were something in the world that behaves according to your model then it could do computations impossible to a mere Turing machine) but much of what you write seems to indicate that you think you have implemented your scheme. In Python. On an actual computer in our universe.
Obviously that is impossible (unless Python running on an actual computer in our universe can do things beyond the capabilities of Turing machines, which it can’t).
Could you clarify explicitly whether you think what you have implemented is “more powerful than every supercomputer in the world” in any useful sense? What do you expect to happen if you feed your code a problem that has no Turing-computable solution? (What I expect to happen: either it turns out that you have a bug and your code emits a wrong answer, or your code runs for ever without producing the required output.)
I’m sorry that I over estimated my achievements. Thank you for being civil.
What do you expect to happen if you feed your code a problem that has no Turing-computable solution?
I’m actually quite interested in this. For something like the busy beaver function, it just runs forever with the output being just fuzzy and gets progressively less fuzzy but never being certain.
Although I wonder about something like super-tasks somehow being described for my model. You can definite get input from arbitrarily far in the future, but you can do even crazier things if you can achieve a transfinite number of branches.
If you’re still interested in this (I doubt you are, there are more important things you can do with you are time, but still) you glance at this reply I gave to taryneast describing how it checks if a turing machine halts. (I do have an ulterior motive in pointing you there, seeing as I want to find that one flaw I’m certain is lurking in my model somewhere)
Your scheme may well he more powerful than a Turing machine (i.e., if there were something in the world that behaves according to your model then it could do computations impossible to a mere Turing machine) but much of what you write seems to indicate that you think you have implemented your scheme. In Python. On an actual computer in our universe.
Obviously that is impossible (unless Python running on an actual computer in our universe can do things beyond the capabilities of Turing machines, which it can’t).
Could you clarify explicitly whether you think what you have implemented is “more powerful than every supercomputer in the world” in any useful sense? What do you expect to happen if you feed your code a problem that has no Turing-computable solution? (What I expect to happen: either it turns out that you have a bug and your code emits a wrong answer, or your code runs for ever without producing the required output.)
I’m sorry that I over estimated my achievements. Thank you for being civil.
I’m actually quite interested in this. For something like the busy beaver function, it just runs forever with the output being just fuzzy and gets progressively less fuzzy but never being certain.
Although I wonder about something like super-tasks somehow being described for my model. You can definite get input from arbitrarily far in the future, but you can do even crazier things if you can achieve a transfinite number of branches.
If you’re still interested in this (I doubt you are, there are more important things you can do with you are time, but still) you glance at this reply I gave to taryneast describing how it checks if a turing machine halts. (I do have an ulterior motive in pointing you there, seeing as I want to find that one flaw I’m certain is lurking in my model somewhere)