Is the Universe a Quantum Computer Algorithm?

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Discussion Overview

The discussion explores the relationship between geometric forms and set theory, particularly in the context of Russell's paradox and the concept of isomorphism. Participants examine whether certain geometric representations can resolve logical paradoxes in set theory and how these ideas might relate to quantum mechanics.

Discussion Character

  • Debate/contested
  • Conceptual clarification
  • Mathematical reasoning

Main Points Raised

  • One participant proposes that a circle of radius R is isomorphic to a circle of radius 1/R, suggesting this could resolve Russell's paradox.
  • Another participant questions the use of isomorphism and the implications for the set of all sets that do not contain themselves.
  • Some participants argue that circles and squares can be considered isomorphic or homeomorphic, raising questions about the nature of geometric transformations.
  • There is a discussion about the cardinality of sets and how it relates to the power set, with some expressing uncertainty about its connection to isomorphisms.
  • Participants debate the definition and implications of set intersection, with differing views on whether it can be considered a form of multiplication.
  • One participant introduces the concept of light cones and their potential relationship to Venn diagrams and set theory.
  • Another participant expresses skepticism about the association of all sets with geometric forms, prompting further clarification and disagreement.

Areas of Agreement / Disagreement

Participants do not reach consensus on the resolution of Russell's paradox or the validity of associating geometric forms with sets. Multiple competing views remain regarding the nature of isomorphisms, set intersection, and the implications for quantum mechanics.

Contextual Notes

Participants express uncertainty about the definitions and implications of isomorphism and homeomorphism, as well as the mathematical foundations underlying their claims. The discussion includes references to various mathematical concepts without resolving the underlying assumptions or definitions.

  • #61
Tom Mattson said:
No, it doesn't follow. You are in dire need of a lesson in elementary logic. It is a simple, obvious fact that denying the statement "physical existence = mathematical existence" and affirming the statement "physical observations must be noncontradictory" are compatible.


You agree that physical observations must be non-contradictory.

You must also agree that descriptions of physical existence must be
non-contradictory since observations must be non-contradictory.

We can drop the label "mathematical existence"
if it puts a burr in your saddle.


:eek: :eek: :eek:


In other words, you appear to be arguing semantics, not physics.
 
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  • #62
It has occurred to me that, just because you use terms such as "modus ponens", it just might not be the case that you understand them. So, I am going to go into more detail on these arguments.


Russell E. Rierson said:
Since mathematical existence is defined by David Hilbert as "freedom from contradiction" It holds that, if, mathematical existence is equal to physical existence, then physical existence is also freedom from contradiction. That is to say, physical phenomena[events] are constrained by an intrinsic, logical self-consistency.




Observation[in the sense of empiricism/scientific method] is NOT self contradictory, if, physical existence is "freedom from contradiction".

Ergo, it follows that your statement: "observation is not a mathematical process" is false.

It does not follow. Let's see why, formally.

The fundamental statements of the argument are these:

p: Mathematical existence is equivalent to physical existence.
q: Physical existence is free from contradiction.
r: Observation is free from contradiction.
s: Observation is not a mathematical process.

Your argument proceeds as follows:

1.) p-->q (Premise)
2.) q-->r (Premise)
3.) Therefore, ~s (Conlcusion)

That this is a non-sequitir is obvious to anyone with any familiarity with logic. The basic statements of the premises do not even appear in the conclusion, which makes the conclusion totally unconnected to the statements cited to support it. Furthermore, it is a simple fact that conclusions of valid arguments cannot contain statements that do not appear in the premises, but this argument does. You can test it for validity yourself by determining the truth table for the compound statement:

[p-->q]^[q-->r]-->(~s)

You will see that the statement is not tautological, and so the argument cannot be valid.

But perhaps you didn't mean to include a new term in the conclusion, and that it only looks like you did due to a poor choice of words?

[1.] Physics would not exist without an ability to describe phenomena.

OK, so formally this is an "if-then" statement:

If physics exists, then it has the ability to describe phenomena.

I'll contract it to:

p: Physics exists.
q: Physics has the ability to describe phenomena.

So we have:

1.) p-->q.

[2.] The description of phenomena must be logically consistent[free of contradiction].

Since this is not a compound statement, it will be denoted by a single logical variable:

2.) r

[3.] Mathematical existence is defined as freedom from contradiction.

Same here.

3.) s

[4.] Mathematics describes phenomena.

And here.

4.) t

Therefore

Physics would not exist without mathematics.

And this is equivalent to the "if-then" statement:

If physics exists, then mathematics exists.

The antecedent was already denoted as "p". Let the consequent be "u". So we have:

p-->u.

And your argument proceeds as follows:

1.) p-->q (Premise)
2.) r (Premise)
3.) s (Premise)
4.) t (Premise)
5.) Therefore, p-->u (Conclusion)

This argument has the same malady as the first one, though to a lesser extent (one logical variable from the premises actually occurs in the conclusion!). But this argument is not valid either, which you can verify using a truth table.

On to your next post:

You agree that physical observations must be non-contradictory.

You must also agree that descriptions of physical existence must be
non-contradictory since observations must be non-contradictory.

Yes.

We can drop the label "mathematical existence"
if it puts a burr in your saddle.

It puts a burr in my saddle because it is irrational.

In other words, you appear to be arguing semantics, not physics.

No, logic is not semantics. Furthermore, you aren't even arguing physics. The position "physical existence is equivalent to mathematical existence" is a philosophical position, not a scientific or mathematical one.
 
  • #63
Tom Mattson said:
That this is a non-sequitir is obvious


Thanks for the help :devil: :devil: :devil:

[1.] Mathematics is a meta language.

[2.] language is descriptive.

[3.] language must be free of contradiction. Mathematics is also defined as a descriptive system that has "freedom from contradiction".

[4.] Mathematics describes physical existence/processes/events.

[5.] Observation is a physical process.

[6.] Mathematics describes observations.

[7.]A description of an observation must be free of contradiction-following from [3.]

[8.] Observation must be free of contradiction.

[8.] A description is an abstract representation of a physical system. The description must be as exact as possible.

[9.] An exact description implies equivalence between abstract structures and physical systems.

[10.] If the exact description exists, then physical existence is a meta-language. A self descriptive entity, free of contradiction. The universe is equivalent to its[exact] description.


:eek: :eek: :eek:
 
  • #64
9. equivalence?

of course there's then the problem that you cannot prove that any model *exactly* fits the system, so it's all vacuous.

then there's the fact that language needn't be free or contradiction. cleave means to split apart or to stick together...
 
  • #65
matt grime said:
9. equivalence?

of course there's then the problem that you cannot prove that any model *exactly* fits the system, so it's all vacuous.

then there's the fact that language needn't be free or contradiction. cleave means to split apart or to stick together...

A meta language[mathematics] must be "free" of contradiction does it not? Cleave and ...cleave are relativised to the context of the "situation".

The only certainty is uncertainty :eek: :eek: :eek:

X = certainty

The only X is not-X ?

A contradiction. But what we understand about reality, must make sense.

We must assume? that a non-contradictory description [stratified variables]of reality exists.

X = certainty, exists, even if it is an incompletely constructed map by self aware systems within the universe...?
 
  • #66
I was thinking in terms of nested "hyper-realities" , where the algorithm arises spontaneously, analogously to a quantum fluctuation description.

These nested hyper curves are level-surfaces, analogous to resonating phase spaces:

[<-[-><-]->]

The laws and constants of physics become the laws of geometry. Any measured piece of reality is observed to be constructed of discrete units. The resonating wave functions are the infinite number of possible combinations of position Dx, and momentum Dp.

A quantum computer "algorithm".

Overlapping waves become phase entangled. There are two types of wave "motion", which becomes a mixed wave form. Both transverse and longitudinal wave propagation occurs.

Hypothetically speaking, of course :eek: :eek: :eek:
 

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