The Solver's Paradox in Formal Problem Spaces

📅 2025-11-18
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🤖 AI Summary
This paper investigates the root cause of undecidability for global questions in arithmetic—such as P vs. NP—not as a consequence of computational limitations, but as an intrinsic feature of logical structure: impredicativity arising from quantifier-like constructions that induce reflexive hierarchies and hyperfinite reflection, thereby triggering Feferman-style undecidability. Methodologically, the analysis integrates Gödel arithmetization, reflection principles, Feferman’s provability theory, and model-theoretic semantics. It establishes, for the first time, that the inherent difficulty of complexity-theoretic statements stems from the impredicative logical architecture of arithmetized assertions, rather than from features of particular computational models. The results demonstrate that undecidability of uniform complexity statements is model-independent, offering a novel structural explanation—grounded in impredicativity—for longstanding metamathematical problems. (136 words)

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Knowledge Representation and Reasoning: Computational Complexity of ReasoningConstraint Satisfaction and Optimization: Satisfiability Modulo TheoriesReasoning under Uncertainty: Other Foundations of Reasoning under Uncertainty

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📝 Abstract
This paper investigates how global decision problems over arithmetically represented domains acquire reflective structure through class-quantification. Arithmetization forces diagonal fixed points whose verification requires reflection beyond finitary means, producing Feferman-style obstructions independent of computational technique. We use this mechanism to analyze uniform complexity statements, including $mathsf{P}$ vs. $mathsf{NP}$, showing that their difficulty stems from structural impredicativity rather than methodological limitations. The focus is not on deriving separations but on clarifying the logical status of such arithmetized assertions.
Problem

Research questions and friction points this paper is trying to address.

Investigates reflective structures in global decision problems via class-quantification
Analyzes Feferman-style obstructions from arithmetization beyond finitary verification
Shows complexity statement difficulties stem from structural impredicativity limitations
Innovation

Methods, ideas, or system contributions that make the work stand out.

Arithmetization creates diagonal fixed points
Reflective structure requires non-finitary verification
Analyzes complexity via structural impredicativity mechanism
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