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The Benjamini-Schramm criticality conjecture for bond percolation on quasi-transitive graphs

Claims that for every infinite connected locally finite quasi-transitive graph with pc<1p_c<1, Bernoulli bond percolation at pcp_c has almost surely no infinite cluster. Exponential growth is Hutchcroft's theorem; the new work covers all subexponential growth, split into superpolynomial growth (a two-cluster entropy argument) and growth polynomial along a sequence of radii (a nilpotent-quotient corridor exploration). It includes θ(pc)=0\theta(p_c)=0 on Zd\mathbb Z^d for every d≥2d\ge2. The companion proves critical bond and site nonpercolation on Z3\mathbb Z^3. It does NOT settle the site form of the conjecture on general quasi-transitive graphs, and gives no critical exponents or quantitative decay.

Exact FrontierDelta

Prior state unknown→proved

Scope and record

Occurred: Sep 24, 2026

Delta type: SOURCE CLAIM

Assumptions: VibeMathed verification: lean-checked. Publication: announcement. AI contribution: ai-discovered. VibeMathed editorial classifications, scores, notes, relations, and dataset structure are CC BY 4.0. Source statements and linked content retain their own rights.

Canonical aliases: The Benjamini-Schramm criticality conjecture for bond percolation on quasi-transitive graphs · Benjamini-Schramm criticality (bond form)

Confidence: Not scored

Registry verification: lean checked · announcement · partial

Open the source record ↗

Attribution

VibeMathed
registry · event recorded by

Unreleased internal OpenAI model
model · ai model contributor · OpenAI

Artifacts and verifiers

Lean: solution module for the quasi-transitive theorem

lean artifact · pending

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Lean comparator statement: no percolation at criticality

lean artifact · pending

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Lean: Z^3 bond and site main declaration critical_no_infinite

lean artifact · pending

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Lean comparator statement: no infinite critical clusters on Z^3

lean artifact · pending

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Lean: release scope note for this family

lean artifact · pending

Artifact ↗

Compute record

No linked compute attempts recorded.

Lineage and corrections

This event attributed to Unreleased internal OpenAI model

The Benjamini-Schramm criticality conjecture for bond percolation on quasi-transitive graphs parent of this event

Companion: Critical bond and site percolation on the cubic lattice evidence for this event

Lean comparator statement: no infinite critical clusters on Z^3 evidence for this event

Benjamini and Schramm (1996), Conjecture 4 evidence for this event

Lean: Z^3 bond and site main declaration critical_no_infinite evidence for this event

Earlier site result on Z^d, d >= 3, cited by the manuscripts (Bou-Rabee) evidence for this event

p_c < p_u, from the same 1996 paper (OpenAI math release) evidence for this event

Lean: solution module for the quasi-transitive theorem evidence for this event

Lean: release scope note for this family evidence for this event

The Benjamini-Schramm criticality conjecture for bond percolation on quasi-transitive graphs evidence for this event

Claims that for every infinite connected locally finite quasi-transitive graph with pc<1p_c<1, Bernoulli bond percolation at pcp_c has almost surely no infinite cluster. Exponential growth is Hutchcroft's theorem; the new work covers all subexponential growth, split into superpolynomial growth (a two-cluster entropy argument) and growth polynomial along a sequence of radii (a nilpotent-quotient corridor exploration). It includes θ(pc)=0\theta(p_c)=0 on Zd\mathbb Z^d for every d≥2d\ge2. The companion proves critical bond and site nonpercolation on Z3\mathbb Z^3. It does NOT settle the site form of the conjecture on general quasi-transitive graphs, and gives no critical exponents or quantitative decay. parent of this event

Lean comparator statement: no percolation at criticality evidence for this event

VibeMathed record: The Benjamini-Schramm criticality conjecture for bond percolation on quasi-transitive graphs evidence for this event

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