Davis Geometric
Technical study / Conditional separation arguments

Conditional separation / the geometric-to-computational bridge

Research settingIndependent

The manuscript P ≠ NP under Davis Axioms proposes a geometric separation under additional assumptions. Its title is conditional, and that condition is the central mathematical issue to examine.

Source: geometric-separation manuscript, final-section axioms. The surface is an explanatory landscape, not a SAT measurement or proof of an unconditional complexity separation. Inspect the full technical study →

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Original figures, recorded values, and explicit model details. Each exhibit identifies its source and what the comparison means.

01 / Deposited conditional argument

The assumptions carrying the final separation argument

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The assumptions carrying the final separation argument
Source statement Mathematical form Role in the proposed argument
Axiom 8.8: information-flow law C = τ / K(A, B) Connects geometric barrier cost to information flow
Axiom 8.9: tolerance intensivity τ = Θ(1) as n grows Prevents the tolerance budget from growing with input size
Standard-model correspondence A separate proof obligation Must connect these quantities to every algorithm in the ordinary computation model

The first two rows state the final section’s assumed axioms; the third is an editorial proof obligation. Earlier sections introduce additional geometric correspondences. This table neither audits every lemma nor establishes an unconditional P versus NP separation.

p_neq_np_geometric_separation.pdf · Axioms 8.8 and 8.9; earlier axioms in §§2–3

Read the technical figure

Source: geometric-separation manuscript, final-section axioms. The surface is an explanatory landscape, not a SAT measurement or proof of an unconditional complexity separation.

Source: geometric-separation manuscript, final-section axioms. The surface is an explanatory landscape, not a SAT measurement or proof of an unconditional complexity separation.

Supporting detail

Complementary technical detail: Source: geometric-separation manuscript, final-section axioms. The surface is an explanatory landscape, not a SAT measurement or proof of an unconditional complexity separation.
Complementary technical detail: Source: geometric-separation manuscript, final-section axioms. The surface is an explanatory landscape, not a SAT measurement or proof of an unconditional complexity separation.

From a search landscape to a complexity statement

The historical description contrasts polynomial and exponential energy landscapes through geometric barriers. To obtain a complexity theorem, the construction must specify how an input and computation are encoded and how ordinary computational cost relates to the proposed geometric cost.

A hard path for one algorithm does not rule out every polynomial-time algorithm. Nor does a continuous energy barrier imply a lower bound on discrete computation unless the correspondence is established. The extra axioms must carry that bridge explicitly.

What “under the axioms” leaves to prove

A valid implication from a stated axiom system can be worth studying without settling the standard P versus NP problem. The next question is whether the axioms follow from the ordinary model of computation, restrict it to a special class, or already encode the desired separation.

The reviewed site record identifies the manuscript but does not supply a completed independent audit of that bridge. This note therefore presents the proposed line of attack without replacing the missing argument with a numerical landscape illustration.

Sources, scope, and next question

Deposited conditional argument; an unconditional separation is not established here.

The representative revision should put the axioms, encoding map, cost correspondence, and one critical lower-bound lemma on the page. Review can then target a concrete implication instead of an analogy between roughness and difficulty.

  1. P ≠ NP under the Davis Information-Geometric Axioms: Geometric Separation of Energy Landscapes.