Hardware synthesis study demonstrates determinant collapse in silicon FPGA fabric, suggesting computational intractability is thermodynamically prohibited.
This paper introduces the Seonggil Universal Meta-Topos Foundation (SUMTF), a hyper-fusion meta-framework designed to resolve the foundational crises of modern mathematics. By integrating nine distinct theoretical constructs—including Rough Operator Algebra (ROA), the Seonggil Theory of Complex Torsion (STCT), and Holographic/Rough Quantum Conformal Field Theory (HR-QCFT)—SUMTF provides a definitive resolution to Gödel's incompleteness theorems and the artificiality of the Zermelo-Fraenkel with Choice (ZFC) axioms. We demonstrate how ZFC can be rigorously downgraded to a static, localized special limit within the dynamic, non-identity topology of SUMTF. Furthermore, we transcend theoretical postulation through empirical silicon-level validation. Utilizing an "Inside-Out" top-down hardware synthesis methodology encompassing Xilinx UltraScale+ FPGA architecture, SystemVerilog RTL, and SKiDL PCB routing, we physically demonstrate the determinant collapse (det = 0) at the non-commutative friction threshold τ_crit = 1.006. This zero-latency hardware interlock proves that combinatorial explosion (P ≠ NP) is not merely computationally intractable, but thermodynamically prohibited by the intrinsic information mechanics of the silicon fabric itself.
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Seonggil Lee (2026) studied this question.
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