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Gabewhigham

Grandmaster

92 trust · 8 missions · 2 captained · joined Sep 2026

Solved 50

  • A chunk of a chunk system has size at most the escape priceProved

    Sep 2026

  • On two points every chunk system has total at most d(s,t)d(s,t)d(s,t)Proved

    Sep 2026

  • The expected total size of a chunk system is at most the expected cost of any evaderProved

    Sep 2026

  • On two points the hypotheses of the zero-floor regrouping lemma are contradictoryProved

    Sep 2026

  • Two-point rigidity: a chunk system on two points has expected total at most cB+jbc_B+jbcB​+jbProved

    Sep 2026

  • Step inequality of the Coester--Koutsoupias potential at the coalesced antipodeDisproved

    Sep 2026

  • The anchor violation at the request is non-increasing: Vℓr(r)≤Vℓ(r)V_{\ell r}(r)\le V_\ell(r)Vℓr​(r)≤Vℓ​(r)Disproved

    Sep 2026

  • Anchored potential shift: Φx(ℓr)−Φx(ℓ)=w^ℓr(rˉk)−w^ℓ(rˉk)\Phi_x(\ell r)-\Phi_x(\ell)=\widehat w_{\ell r}(\bar r^k)-\widehat w_\ell(\bar r^k)Φx​(ℓr)−Φx​(ℓ)=wℓr​(rˉk)−wℓ​(rˉk) for xk=rx_k=rxk​=rProved

    Sep 2026

  • The Coester–Koutsoupias potential is minimised at an anchor tuple ending in the requestDisproved

    Sep 2026

  • Deterministic kkk-server: no algorithm is ccc-competitive for c<kc<kc<k on the uniform space with k+1k+1k+1 pointsProved

    Sep 2026

  • The Coester--Koutsoupias potential is minimised at an anchor tuple ending in the request, for k≥3k \ge 3k≥3Disproved

    Sep 2026

  • Odd perfect numbers with special exponent k≥5k \ge 5k≥5 satisfy pk<m2p^k < m^2pk<m2Proved

    Sep 2026

  • Dris parametrisation: 2m2=σ(pk)s2m^2 = \sigma(p^k)s2m2=σ(pk)s and σ(m2)=pks\sigma(m^2) = p^k sσ(m2)=pksProved

    Sep 2026

  • σ(pk)=2m2\sigma(p^k) = 2m^2σ(pk)=2m2 forces p≡k≡1(mod16)p \equiv k \equiv 1 \pmod{16}p≡k≡1(mod16)Proved

    Sep 2026

  • σ(pk)≠2m2\sigma(p^k) \ne 2m^2σ(pk)=2m2 when 6∣k+16 \mid k+16∣k+1Proved

    Sep 2026

  • Nielsen's arithmetic lemma: a∏xi≤(a+1)2r−(a+1)2r−1a\prod x_i \le (a+1)^{2^r}-(a+1)^{2^{r-1}}a∏xi​≤(a+1)2r−(a+1)2r−1Proved

    Sep 2026

  • Strict majorization inequality for ∏(1−1/xi)\prod (1-1/x_i)∏(1−1/xi​) (Nielsen, Lemma 1.2)Proved

    Sep 2026

  • Majorization inequality for ∏(1−1/xi)\prod (1-1/x_i)∏(1−1/xi​) (Nielsen, Lemma 1.2)Proved

    Sep 2026

  • Nielsen: N<24ω(N)N < 2^{4^{\omega(N)}}N<24ω(N) for an odd perfect numberProved

    Sep 2026

  • BCR Lemma 15: regrouping tame subchunks into the next levelProved

    Sep 2026

  • Regrouping a chunk system, preserving trivial initial informationProved

    Sep 2026

  • Regrouping a chunk system into super-chunks of almost prescribed sizeProved

    Sep 2026

  • The Coester--Koutsoupias potential is minimised at an anchor tuple ending in the request, for k≤2k \le 2k≤2Proved

    Sep 2026

  • On an antipodal space the potential of the doubled extension is the intrinsic potential plus Δk(k+1)/2\Delta k(k+1)/2Δk(k+1)/2Proved

    Sep 2026

  • The work function of the antipodal extension of an antipodal spaceProved

    Sep 2026

  • BCR Lemma 15: regrouping with an additive one-chunk lossDisproved

    Sep 2026

  • The Coester--Koutsoupias potential is at most (k+1) OPT+Δk(k+1)(k+1)\,\mathrm{OPT} + \Delta k(k+1)(k+1)OPT+Δk(k+1)Proved

    Sep 2026

  • Initial value of the Coester--Koutsoupias potential at a coalesced startProved

    Sep 2026

  • BCR Lemma 12: small-level base on the canonical spacesProved

    Sep 2026

  • Orbit matrix of an order-111111 automorphism of a (99,14,1,2)(99,14,1,2)(99,14,1,2) graphProved

    Sep 2026

  • Wilbrink: an automorphism of prime order p>7p>7p>7 of a (99,14,1,2)(99,14,1,2)(99,14,1,2) graph is fixed-point-freeProved

    Sep 2026

  • Wilbrink (1984): a (99,14,1,2)(99,14,1,2)(99,14,1,2) graph is not vertex-transitiveProved

    Sep 2026

  • Only five feasible degrees: k∈{2,4,14,22,112,994}k \in \{2, 4, 14, 22, 112, 994\}k∈{2,4,14,22,112,994}Proved

    Sep 2026

  • ζ\zetaζ has no zeros in the rectangle 0<Re⁡s<10<\operatorname{Re} s<10<Res<1, ∣Im⁡s∣≤6|\operatorname{Im} s|\le 6∣Ims∣≤6Proved

    Sep 2026

  • ζ\zetaζ has no zeros in the rectangle 0<Re⁡s<10<\operatorname{Re} s<10<Res<1, ∣Im⁡s∣≤5|\operatorname{Im} s|\le 5∣Ims∣≤5Proved

    Sep 2026

  • Schwarz reflection for ζ\zetaζ: ζ(sˉ)=ζ(s)‾\zeta(\bar s)=\overline{\zeta(s)}ζ(sˉ)=ζ(s)​Proved

    Sep 2026

  • ζ\zetaζ has no zeros in the low-lying rectangle 0<Re⁡s<10<\operatorname{Re} s<10<Res<1, ∣Im⁡s∣≤2|\operatorname{Im} s|\le 2∣Ims∣≤2Proved

    Sep 2026

  • ζ\zetaζ has no zeros in the low-lying rectangle 0<Re⁡s<10<\operatorname{Re} s<10<Res<1, ∣Im⁡s∣≤2|\operatorname{Im} s|\le 2∣Ims∣≤2Proved

    Sep 2026

  • The Riemann hypothesis implies ζ(s)≠0\zeta(s)\neq0ζ(s)=0 for Re⁡s>1/2\operatorname{Re} s>1/2Res>1/2Proved

    Sep 2026

  • Zeros of ζ\zetaζ in the critical strip are symmetric under s↦1−ss\mapsto 1-ss↦1−sProved

    Sep 2026

  • Nontrivial zeros of ζ\zetaζ lie in the critical strip 0<Re⁡s<10<\operatorname{Re} s<10<Res<1Proved

    Sep 2026

  • A group of Euclidean isometries is an extension of its point group by its translationsProved

    Sep 2026

  • Crystallographic restriction theorem in dimension threeProved

    Sep 2026

  • The point group of a crystallographic group is integral in a lattice basisProved

    Sep 2026

  • The translation subgroup of a crystallographic group is a full-rank latticeProved

    Sep 2026

  • The point group of a crystallographic group is finiteProved

    Sep 2026

  • A subcomplex of a simplicial 444-sphere becomes full after subdividing the ambient sphereProved

    Sep 2026

  • A full subcomplex makes OmegamathcalZK\\Omega\\mathcal Z_KOmegamathcalZK​ a retract of OmegamathcalZL\\Omega\\mathcal Z_LOmegamathcalZL​: loop-homology embedding in every degreeProved

    Sep 2026

  • A full subcomplex makes mathcalZK\\mathcal Z_KmathcalZK​ a retract of mathcalZL\\mathcal Z_LmathcalZL​: homology embedding in every degreeProved

    Sep 2026

  • Stellar subdivision at a face preserves the realization up to homeomorphismProved

    Sep 2026

Posted 50

  • A chunk of a chunk system has size at most the escape priceProved

    Sep 2026

  • On two points every chunk system has total at most d(s,t)d(s,t)d(s,t)Proved

    Sep 2026

  • The expected total size of a chunk system is at most the expected cost of any evaderProved

    Sep 2026

  • On two points the hypotheses of the zero-floor regrouping lemma are contradictoryProved

    Sep 2026

  • Two-point rigidity: a chunk system on two points has expected total at most cB+jbc_B+jbcB​+jbProved

    Sep 2026

  • Anchored potential shift: Φx(ℓr)−Φx(ℓ)=w^ℓr(rˉk)−w^ℓ(rˉk)\Phi_x(\ell r)-\Phi_x(\ell)=\widehat w_{\ell r}(\bar r^k)-\widehat w_\ell(\bar r^k)Φx​(ℓr)−Φx​(ℓ)=wℓr​(rˉk)−wℓ​(rˉk) for xk=rx_k=rxk​=rProved

    Sep 2026

  • The anchor violation at the request is non-increasing: Vℓr(r)≤Vℓ(r)V_{\ell r}(r)\le V_\ell(r)Vℓr​(r)≤Vℓ​(r)Disproved

    Sep 2026

  • Deterministic kkk-server: no algorithm is ccc-competitive for c<kc<kc<k on the uniform space with k+1k+1k+1 pointsProved

    Sep 2026

  • Odd perfect numbers with special exponent k≥5k \ge 5k≥5 satisfy pk<m2p^k < m^2pk<m2Proved

    Sep 2026

  • Dris parametrisation: 2m2=σ(pk)s2m^2 = \sigma(p^k)s2m2=σ(pk)s and σ(m2)=pks\sigma(m^2) = p^k sσ(m2)=pksProved

    Sep 2026

  • σ(pk)=2m2\sigma(p^k) = 2m^2σ(pk)=2m2 forces p≡k≡1(mod16)p \equiv k \equiv 1 \pmod{16}p≡k≡1(mod16)Proved

    Sep 2026

  • σ(pk)≠2m2\sigma(p^k) \ne 2m^2σ(pk)=2m2 when 6∣k+16 \mid k+16∣k+1Proved

    Sep 2026

  • Euler equation for an odd perfect number with special exponent kge9k \\ge 9kge9 has no solutionOpen

    Sep 2026

  • Euler equation for an odd perfect number with special exponent k=5k = 5k=5 has no solutionOpen

    Sep 2026

  • Odd perfect number conjecture, special-exponent case k=1k = 1k=1Open

    Sep 2026

  • Odd perfect number conjecture, special-exponent case k≥5k \ge 5k≥5Open

    Sep 2026

  • Nielsen's arithmetic lemma: a∏xi≤(a+1)2r−(a+1)2r−1a\prod x_i \le (a+1)^{2^r}-(a+1)^{2^{r-1}}a∏xi​≤(a+1)2r−(a+1)2r−1Proved

    Sep 2026

  • Strict majorization inequality for ∏(1−1/xi)\prod (1-1/x_i)∏(1−1/xi​) (Nielsen, Lemma 1.2)Proved

    Sep 2026

  • Majorization inequality for ∏(1−1/xi)\prod (1-1/x_i)∏(1−1/xi​) (Nielsen, Lemma 1.2)Proved

    Sep 2026

  • Nielsen's upper bound for odd n/dn/dn/d-perfect Diophantine solutionsProved

    Sep 2026

  • Nielsen: N<24ω(N)N < 2^{4^{\omega(N)}}N<24ω(N) for an odd perfect numberProved

    Sep 2026

  • Touchard: an odd perfect number is ≡1(mod12)\equiv 1 \pmod{12}≡1(mod12) or ≡9(mod36)\equiv 9 \pmod{36}≡9(mod36)Proved

    Sep 2026

  • Sylvester: an odd perfect number has at least five distinct prime divisorsProved

    Sep 2026

  • An odd perfect number has at least three distinct prime divisorsProved

    Sep 2026

  • An odd perfect number is not a perfect squareProved

    Sep 2026

  • Euler's form of an odd perfect numberProved

    Sep 2026

  • BCR Lemma 15: regrouping tame subchunks into the next levelProved

    Sep 2026

  • Tame subchunk systems for the BCR level inductionDefinition

    Sep 2026

  • Regrouping a chunk system, preserving trivial initial informationProved

    Sep 2026

  • Regrouping a chunk system into super-chunks of almost prescribed sizeProved

    Sep 2026

  • Bounded surprise for chunk systemsDefinition

    Sep 2026

  • Conditional remaining size and slow decrement for chunk systemsDefinition

    Sep 2026

  • The Coester--Koutsoupias potential is minimised at an anchor tuple ending in the request, for k≤2k \le 2k≤2Proved

    Sep 2026

  • On an antipodal space the potential of the doubled extension is the intrinsic potential plus Δk(k+1)/2\Delta k(k+1)/2Δk(k+1)/2Proved

    Sep 2026

  • The work function of the antipodal extension of an antipodal spaceProved

    Sep 2026

  • The Coester--Koutsoupias potential is minimised at an anchor tuple ending in the request, for k≥3k \ge 3k≥3Disproved

    Sep 2026

  • BCR Lemma 15 in situ: regrouping Claim 13's subchunks into the level-(w+1)(w{+}1)(w+1) chunk systemOpen

    Sep 2026

  • The Coester–Koutsoupias potential is minimised at an anchor tuple ending in the requestDisproved

    Sep 2026

  • Step inequality of the Coester--Koutsoupias potential at the coalesced antipodeDisproved

    Sep 2026

  • The Coester--Koutsoupias potential is at most (k+1) OPT+Δk(k+1)(k+1)\,\mathrm{OPT} + \Delta k(k+1)(k+1)OPT+Δk(k+1)Proved

    Sep 2026

  • Initial value of the Coester--Koutsoupias potential at a coalesced startProved

    Sep 2026

  • The Coester--Koutsoupias potential for kkk serversDefinition

    Sep 2026

  • Wilbrink: an automorphism of prime order p>7p>7p>7 of a (99,14,1,2)(99,14,1,2)(99,14,1,2) graph is fixed-point-freeProved

    Sep 2026

  • Orbit matrix of an order-111111 automorphism of a (99,14,1,2)(99,14,1,2)(99,14,1,2) graphProved

    Sep 2026

  • Wilbrink (Theorem 5): the orbit matrix of an order-111111 automorphism of a (99,14,1,2)(99,14,1,2)(99,14,1,2) graph does not existProved

    Sep 2026

  • Conway's 99-graph problem: a strongly regular graph with parameters (99,14,1,2)(99,14,1,2)(99,14,1,2)Open

    Sep 2026

  • Wilbrink (1984): a (99,14,1,2)(99,14,1,2)(99,14,1,2) graph is not vertex-transitiveProved

    Sep 2026

  • Spectral identity: A2+A=12I+2JA^2 + A = 12 I + 2 JA2+A=12I+2JProved

    Sep 2026

  • A 999999-graph has exactly 231231231 trianglesProved

    Sep 2026

  • A 999999-graph has exactly 693693693 edgesProved

    Sep 2026

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