probability-statistics / Percolation theory; mathematical statistical mechanics

Absence of critical Bernoulli site percolation on Zd\mathbb Z^d for d≥3d \ge 3

Claims θ(pc)=0\theta(p_c)=0 for nearest-neighbour Bernoulli site percolation on Zd\mathbb Z^d for every d≥3d\ge3 (theorem KNAll.Site.site_no_percolation_at_critical), by proving the Kozma-Nitzan gluing inequality for independent hyperedges, representing site percolation by incidence hyperedges, and running the lattice exploration of the bond proof. The intermediate dimensions were open. The planar case is classical and outside the formal statement. The same repository proves Kozma-Nitzan Conjectures 1 to 4 and 6, answers Questions 5, 7 and 9, and refutes one reading of Question 8. OpenAI's release (24 September 2026) later gave critical site nonpercolation on Z3\mathbb Z^3 only, crediting this work; its quasi-transitive theorem is bond only, so the site form of Benjamini-Schramm Conjecture 4 beyond Zd\mathbb Z^d stays open.

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probability-statisticsSep 5, 2026Significance 72/100Registry: lean checked

Absence of critical Bernoulli site percolation on Zd\mathbb Z^d for d≥3d \ge 3

Prior state unknown→proved

Claims θ(pc)=0\theta(p_c)=0 for nearest-neighbour Bernoulli site percolation on Zd\mathbb Z^d for every d≥3d\ge3 (theorem KNAll.Site.site_no_percolation_at_critical), by proving the Kozma-Nitzan gluing inequality for independent hyperedges, representing site percolation by incidence hyperedges, and running the lattice exploration of the bond proof. The intermediate dimensions were open. The planar case is classical and ou…

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Claims θ(pc)=0\theta(p_c)=0 for nearest-neighbour Bernoulli site percolation on Zd\mathbb Z^d for every d≥3d\ge3 (theorem KNAll.Site.site_no_percolation_at_critical), by proving the Kozma-Nitzan gluing inequality for independent hyperedges, representing site percolation by incidence hyperedges, and running the lattice exploration of the bond proof. The intermediate dimensions were open. The planar case is classical and outside the formal statement. The same repository proves Kozma-Nitzan Conjectures 1 to 4 and 6, answers Questions 5, 7 and 9, and refutes one reading of Question 8. OpenAI's release (24 September 2026) later gave critical site nonpercolation on Z3\mathbb Z^3 only, crediting this work; its quasi-transitive theorem is bond only, so the site form of Benjamini-Schramm Conjecture 4 beyond Zd\mathbb Z^d stays open.

Claims θ(pc)=0\theta(p_c)=0 for nearest-neighbour Bernoulli site percolation on Zd\mathbb Z^d for every d≥3d\ge3 (theorem KNAll.Site.site_no_percolation_at_critical), by proving the Kozma-Nitzan gluing inequality for independent hyperedges, representing site percolation by incidence hyperedges, and running the lattice exploration of the bond proof. The intermediate dimensions were open. The planar case is classical and outside the formal statement. The same repository proves Kozma-Nitzan Conjectures 1 to 4 and 6, answers Questions 5, 7 and 9, and refutes one reading of Question 8. OpenAI's release (24 September 2026) later gave critical site nonpercolation on Z3\mathbb Z^3 only, crediting this work; its quasi-transitive theorem is bond only, so the site form of Benjamini-Schramm Conjecture 4 beyond Zd\mathbb Z^d stays open.

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Absence of critical Bernoulli site percolation on $\mathbb Z^d$ for $d \ge 3$ — Mathematical Frontier Network