Complexity lab / SAT diagonalization
P != NP as a question of compression, witness space, and self-reference.
This room reconstructs the uploaded preprint series as an academic working model: a proposed proof route through SAT solution-space incompressibility, not a claim of settled community acceptance.
Problem
P vs NP frame
If SAT is solvable in polynomial time, then P = NP; if no such polynomial-time procedure exists, P != NP.
P = NP iff SAT in P Sets the target problem through the standard Cook-Levin equivalence.
standard backgroundInteractive instrument
Compress a witness space, then watch the diagonal formula avoid it.
This finite model demonstrates the mechanism behind the uploaded papers: a small candidate list is selected, the formula adds one exclusion clause per candidate, and the remaining Boolean cube is inspected for witnesses. It visualizes the diagonal exclusion step; the full preprint additionally requires the fixed-point, constructivity, and barrier arguments.
Generated formula
phi_f excludes exactly the candidate set.
The compressor selected five assignments. The generated CNF forbids those five points and leaves other assignments available as witnesses.
Review cockpit
A world-class version must expose the proof obligations, not hide them.
Selected audit node 01
Compressibility equivalence
The page models a compressor as a finite candidate selector over {0,1}^n.
Prove the precise equivalence between a polynomial hitting-set compressor for SAT witnesses and a polynomial-time SAT decision/search procedure.
If CH is weaker or stronger than P = NP, the diagonal contradiction may miss the target theorem.
Uploaded P != NP corpus
Six documents are treated as one reviewable argument system.
Refutation of the Compressibility Hypothesis
Defines CH for SAT and introduces the diagonal self-referential formula phi_f.
- Contribution
- Frames P != NP as the failure of a universal polynomial-size solution-space compressor.
- Review posture
- Presented on the site as an independent preprint proposing a proof.
Polynomial construction and barriers
Replaces reliance on a fixed-point theorem with an explicit polynomial construction program.
- Contribution
- Moves the argument from abstract self-reference toward a constructive algorithmic object.
- Review posture
- The polynomial constructivity claim remains a key verification target.
Practical verification and specificity
Adds PySAT-style computational checks and compares the behavior against 2SAT.
- Contribution
- Introduces an empirical layer for satisfiability, exclusion, and NP-complete specificity.
- Review posture
- Experiments illustrate the construction; they do not replace a formal proof.
Formalization and exhaustive validation
Restates CH, fixed-point convergence, satisfiability, exclusion, and edge cases.
- Contribution
- Collects the proof obligations into a more explicit checklist.
- Review posture
- The site keeps these as obligations for independent mathematical review.
Equivalence proof, gap closure, barrier analysis
Strengthens the equivalence between CH and P = NP and addresses review gaps.
- Contribution
- Turns the sequence into a single audit trail: equivalence, construction, exclusion, barriers.
- Review posture
- Claims are displayed as the author's preprint architecture, not a settled theorem.
Measure-growth theorem and barrier resilience
Develops structural diagonalization, a syntactic gadget, and a measure-growth invariant.
- Contribution
- Adds a large methodological defense against relativization, natural proofs, and algebrization.
- Review posture
- Best treated as the main verification dossier for experts.
Proof obligations
The site should make the argument inspectable, not merely impressive.
The strongest version of this page is a verification cockpit: every major claim becomes a node, every node has a formula, and every formula has an audit question.
- CH equivalence to P = NP is stated with an explicit candidate-set function.
- phi_f must be constructible within polynomial bounds for every admissible f.
- The exclusion clauses must forbid f's candidates without destroying satisfiability.
- The satisfiability margin must survive encoding overhead and boundary cases.
- The argument must not be a disguised relativizing, naturalizing, or algebrizing method.
- Empirical checks should be treated as reproducibility evidence, not as final proof.
Public dossier link
How the work remains academically cautious on the site.
SSRN card: preprint posted May 6, 2025 and revised May 7, 2025, proposing an argument around P != NP, SAT, and compressibility.
Open formal dossierThe relation between finding a solution and verifying a solution
SAT solution spaces and whether their structure can be compressed
Diagonalization and incompressibility are treated as pressure points
Displayed as a formal map of limits, not as an unreviewed final theorem