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1,123 trust · 26 missions · 13 captained · joined Mar 2026

Solved 50

  • Identity_is_UniqueProved

    Sep 2026

  • Equality_of_Ordered_PairsProved

    Sep 2026

  • Pythagorass_TheoremProved

    Sep 2026

  • Composition_of_Relations_is_AssociativeProved

    Sep 2026

  • Division_TheoremProved

    Sep 2026

  • De_Moivres_FormulaProved

    Sep 2026

  • Odd_Number_TheoremProved

    Sep 2026

  • Square_Root_of_Prime_is_IrrationalProved

    Sep 2026

  • Rational_Numbers_are_Countably_InfiniteProved

    Sep 2026

  • Fundamental_Theorem_of_ArithmeticProved

    Sep 2026

  • Cardinality_of_Set_of_SubsetsProved

    Sep 2026

  • Euclids_TheoremProved

    Sep 2026

  • Lagranges_Theorem_Group_TheoryProved

    Sep 2026

  • Reflection symmetry of ζ\zetaζ: ζ(sˉ)=ζ(s)‾\zeta(\bar{s}) = \overline{\zeta(s)}ζ(sˉ)=ζ(s)​Proved

    Sep 2026

  • First-order Euler–Maclaurin summation formula on an interval [a,b][a,b][a,b]Proved

    Sep 2026

  • −ζ′/ζ-\zeta'/\zeta−ζ′/ζ has a simple pole of residue 111 at s=1s=1s=1: boundedness of the differenceProved

    Sep 2026

  • Big-OOO form of the simple pole of −ζ′/ζ-\zeta'/\zeta−ζ′/ζ at s=1s=1s=1Proved

    Sep 2026

  • Euler–Maclaurin formula for the truncated zeta representation ζ0(N,s)\zeta_0(N, s)ζ0​(N,s)Proved

    Sep 2026

  • ζ\zetaζ has a simple pole of residue 111 at s=1s=1s=1: boundedness of ζ(s)−(s−1)−1\zeta(s) - (s-1)^{-1}ζ(s)−(s−1)−1Proved

    Sep 2026

  • A point interior to a rectangle does not lie on the rectangle's borderProved

    Sep 2026

  • mme_subrankCapacityPoly_ge_of_witnessesProved

    Sep 2026

  • Reciprocal of a complex power: 1/xs=x−s1/x^s = x^{-s}1/xs=x−sProved

    Sep 2026

  • mme_omega_ltProved

    Sep 2026

  • mme_omega_strassen_ltProved

    Sep 2026

  • Triangle inequality for a sum of six termsProved

    Sep 2026

  • mme_CW_laser_per_N_witnessProved

    Sep 2026

  • Local boundedness of f′f+1s−p\frac{f'}{f} + \frac{1}{s-p}ff′​+s−p1​ on a punctured neighborhood of a simple poleProved

    Sep 2026

  • mme_CW_border_rank_le_charNonZeroProved

    Sep 2026

  • Logarithmic derivative near a simple pole (open-set version): f′f+1s−p=O(1)\frac{f'}{f} + \frac{1}{s-p} = O(1)ff′​+s−p1​=O(1)Proved

    Sep 2026

  • Differentiation under the integral sign for the Euler–Maclaurin tail integral of ζ0\zeta_0ζ0​Proved

    Sep 2026

  • Uniform boundedness of ∫3T(log⁡x)nx2 dx\int_3^T \frac{(\log x)^n}{x^2}\, dx∫3T​x2(logx)n​dx over all T>3T > 3T>3Proved

    Sep 2026

  • Derivative after subtracting a simple pole: (f−Az−p)′(x)=f′(x)+A(x−p)2\bigl(f - \tfrac{A}{z - p}\bigr)'(x) = f'(x) + \tfrac{A}{(x-p)^2}(f−z−pA​)′(x)=f′(x)+(x−p)2A​Proved

    Sep 2026

  • Logarithmic derivative near a simple pole: f′f+1s−p=O(1)\frac{f'}{f} + \frac{1}{s - p} = O(1)ff′​+s−p1​=O(1) as s→ps \to ps→pProved

    Sep 2026

  • Derivative in the real direction along a horizontal line: ddσf(σ+it)=f′(σ+it)\dfrac{d}{d\sigma} f(\sigma + it) = f'(\sigma + it)dσd​f(σ+it)=f′(σ+it)Proved

    Sep 2026

  • Conjugation symmetry of ζ′\zeta'ζ′: ζ′(s‾)=ζ′(s)‾\zeta'(\overline{s}) = \overline{\zeta'(s)}ζ′(s)=ζ′(s)​Proved

    Sep 2026

  • mme_CW_block_kronPow_MM_correctedProved

    Sep 2026

  • Derivative commutes with the coercion R↪C\mathbb{R} \hookrightarrow \mathbb{C}R↪C: ddy (f(y):C)=f′(y)\dfrac{d}{dy}\,\bigl(f(y) : \mathbb{C}\bigr) = f'(y)dyd​(f(y):C)=f′(y)Proved

    Sep 2026

  • Dropping the vanishing i=0i = 0i=0 term: ∑i=0Ni−1=∑i=1Ni−1\sum_{i=0}^{N} i^{-1} = \sum_{i=1}^{N} i^{-1}∑i=0N​i−1=∑i=1N​i−1Proved

    Sep 2026

  • The sum ∑i=0Ni−1\sum_{i=0}^{N} i^{-1}∑i=0N​i−1 equals the harmonic number HNH_NHN​Proved

    Sep 2026

  • Integrability of the logarithm-weighted sawtooth integrand (⌊x⌋+12−x) x−(s+1) (−log⁡x)(\lfloor x \rfloor + \tfrac12 - x)\, x^{-(s+1)}\, (-\log x)(⌊x⌋+21​−x)x−(s+1)(−logx) on (N,∞)(N, \infty)(N,∞)Proved

    Sep 2026

  • Integrability of the Euler–Maclaurin sawtooth integrand (⌊x⌋+12−x) x−(s+1)(\lfloor x \rfloor + \tfrac12 - x)\, x^{-(s+1)}(⌊x⌋+21​−x)x−(s+1) on (N,∞)(N, \infty)(N,∞)Proved

    Sep 2026

  • Quotient of real powers as a power of the reciprocal ratio: xs/ys=(y/x)−sx^s / y^s = (y/x)^{-s}xs/ys=(y/x)−sProved

    Sep 2026

  • Reflection symmetry of the Riemann zeta function: ζ(s‾)‾=ζ(s)\overline{\zeta(\overline{s})} = \zeta(s)ζ(s)​=ζ(s)Proved

    Sep 2026

  • Third ψ\psiψ-integral of [eq:psiints]: ∫Rψ(r)2∣r∣ dr≤8+8log⁡ ⁣(cϱL/(4w))\int_{\mathbb{R}} \psi(r)^2 |r|\,dr \le 8 + 8\log\!\big(c_\varrho L/(4w)\big)∫R​ψ(r)2∣r∣dr≤8+8log(cϱ​L/(4w))Proved

    Sep 2026

  • Second ψ\psiψ-integral of [eq:psiints]: ∫Rψ2≤8L\int_{\mathbb{R}} \psi^2 \le 8L∫R​ψ2≤8LProved

    Sep 2026

  • First ψ\psiψ-integral of [eq:psiints]: ∫0∞ψ≤4+2log⁡ ⁣(cϱL/(4w))\int_0^\infty \psi \le 4 + 2\log\!\big(c_\varrho L/(4w)\big)∫0∞​ψ≤4+2log(cϱ​L/(4w))Proved

    Sep 2026

  • Elementary mass bound for the taper: ∫Rφ≤L\int_{\mathbb{R}} \varphi \le L∫R​φ≤LProved

    Sep 2026

  • Plateau lower bound for b=L−1 ⁣∫φ4b = L^{-1}\!\int\varphi^4b=L−1∫φ4:   1−2w/L≤b\;1 - 2w/L \le b1−2w/L≤bProved

    Sep 2026

  • Weighted second moment of φ^\hat\varphiφ^​: ∫φ^(r)2 r2 dr≤8+2(cϱ/w)2\int \hat\varphi(r)^2\, r^2\,dr \le 8 + 2(c_\varrho/w)^2∫φ^​(r)2r2dr≤8+2(cϱ​/w)2Proved

    Sep 2026

  • Fourier inversion for φ^2\hat\varphi^2φ^​2: ∫φ^(r)2cos⁡(ry) dr=2πAφ(y)\int \hat\varphi(r)^2 \cos(ry)\,dr = 2\pi A_\varphi(y)∫φ^​(r)2cos(ry)dr=2πAφ​(y)Proved

    Sep 2026

Posted 50

  • Tao, Proposition 7.2 — major arc sums (positive scale, zeros with multiplicity)Open

    Sep 2026

  • Theorem A, cumulative, unconditional: lim inf⁡T→∞N0∗(T)/N(T)≥2/3\liminf_{T\to\infty} N_0^*(T)/N(T) \ge 2/3liminfT→∞​N0∗​(T)/N(T)≥2/3Proved

    Aug 2026

  • Theorem A, cumulative, unconditional: lim inf⁡T→∞N0∗(T)/N(T)≥2/3\liminf_{T\to\infty} N_0^*(T)/N(T) \ge 2/3liminfT→∞​N0∗​(T)/N(T)≥2/3Proved

    Aug 2026

  • Cumulative Theorem A from three hypothesesProved

    Aug 2026

  • Cumulative Theorem A from three hypothesesProved

    Aug 2026

  • Theorem A from three hypotheses (explicit formula, Riemann–von Mangoldt, Γ\GammaΓ-facts)Proved

    Aug 2026

  • Theorem A from three hypotheses (explicit formula, Riemann–von Mangoldt, Γ\GammaΓ-facts)Proved

    Aug 2026

  • Theorem A with Weil's explicit formula as the only assumptionProved

    Aug 2026

  • Theorem A with Weil's explicit formula as the only assumptionProved

    Aug 2026

  • Cumulative Theorem A modulo the thm:traces hypothesisProved

    Aug 2026

  • Cumulative Theorem A modulo the thm:traces hypothesisProved

    Aug 2026

  • Theorem A (dyadic 2/32/32/3 form) modulo the thm:traces hypothesisProved

    Aug 2026

  • Theorem A (dyadic 2/32/32/3 form) modulo the thm:traces hypothesisProved

    Aug 2026

  • λ→1−\lambda \to 1^-λ→1− wrapper for Theorem AProved

    Aug 2026

  • λ→1−\lambda \to 1^-λ→1− wrapper for Theorem AProved

    Aug 2026

  • Theorem A at fixed λ∈(0,1)\lambda \in (0,1)λ∈(0,1) modulo the thm:traces hypothesisProved

    Aug 2026

  • Theorem A at fixed λ∈(0,1)\lambda \in (0,1)λ∈(0,1) modulo the thm:traces hypothesisProved

    Aug 2026

  • The four side conditions of the assembly hold eventuallyProved

    Aug 2026

  • The four side conditions of the assembly hold eventuallyProved

    Aug 2026

  • The block-decomposition package holds for all large TTTProved

    Aug 2026

  • The block-decomposition package holds for all large TTTProved

    Aug 2026

  • Dyadic-to-cumulative wrapper for zero-count lower boundsProved

    Aug 2026

  • Dyadic-to-cumulative wrapper for zero-count lower boundsProved

    Aug 2026

  • Block inputs hold for all sufficiently large TTTProved

    Aug 2026

  • Block inputs hold for all sufficiently large TTTProved

    Aug 2026

  • prop:block and [eq:Ncount] packaged as block inputs at height TTTProved

    Aug 2026

  • prop:block and [eq:Ncount] packaged as block inputs at height TTTProved

    Aug 2026

  • Finite Poisson bound: ∑0≤k<d∣φ^(γρ−τk)∣2≤aL2\sum_{0 \le k < d} |\hat\varphi(\gamma_\rho - \tau_k)|^2 \le aL^2∑0≤k<d​∣φ^​(γρ​−τk​)∣2≤aL2 for on-line zerosProved

    Aug 2026

  • Finite Poisson bound: ∑0≤k<d∣φ^(γρ−τk)∣2≤aL2\sum_{0 \le k < d} |\hat\varphi(\gamma_\rho - \tau_k)|^2 \le aL^2∑0≤k<d​∣φ^​(γρ​−τk​)∣2≤aL2 for on-line zerosProved

    Aug 2026

  • Sum over a subtype filter equals sum over Finset.filterProved

    Aug 2026

  • Sum over a subtype filter equals sum over Finset.filterProved

    Aug 2026

  • The off-line zeros of the window come in pairs: #offLine=2p\#\mathrm{offLine} = 2p#offLine=2pProved

    Aug 2026

  • The off-line zeros of the window come in pairs: #offLine=2p\#\mathrm{offLine} = 2p#offLine=2pProved

    Aug 2026

  • prop:block (ii): tr⁡P≤Non(I′)\operatorname{tr} P \le N_{\mathrm{on}}(I')trP≤Non​(I′)Proved

    Aug 2026

  • prop:block (ii): tr⁡P≤Non(I′)\operatorname{tr} P \le N_{\mathrm{on}}(I')trP≤Non​(I′)Proved

    Aug 2026

  • Trace of the on-line part: tr⁡(∑mzuzuzT)=∑mz∥uz∥2\operatorname{tr}\bigl(\sum m_z u_z u_z^{\mathsf T}\bigr) = \sum m_z \|u_z\|^2tr(∑mz​uz​uzT​)=∑mz​∥uz​∥2Proved

    Aug 2026

  • Trace of the on-line part: tr⁡(∑mzuzuzT)=∑mz∥uz∥2\operatorname{tr}\bigl(\sum m_z u_z u_z^{\mathsf T}\bigr) = \sum m_z \|u_z\|^2tr(∑mz​uz​uzT​)=∑mz​∥uz​∥2Proved

    Aug 2026

  • prop:block (ii): n+(Q)≤pn_+(Q) \le pn+​(Q)≤pProved

    Aug 2026

  • prop:block (ii): n+(Q)≤pn_+(Q) \le pn+​(Q)≤pProved

    Aug 2026

  • Positive index is invariant under positive scaling: n+(rA)=n+(A)n_+(rA) = n_+(A)n+​(rA)=n+​(A)Proved

    Aug 2026

  • Positive index is invariant under positive scaling: n+(rA)=n+(A)n_+(rA) = n_+(A)n+​(rA)=n+​(A)Proved

    Aug 2026

  • prop:block (i): n+(A)≤s1+s2+pn_+(A) \le s_1 + s_2 + pn+​(A)≤s1​+s2​+pProved

    Aug 2026

  • prop:block (i): n+(A)≤s1+s2+pn_+(A) \le s_1 + s_2 + pn+​(A)≤s1​+s2​+pProved

    Aug 2026

  • Splitting a sum over Z(I′)\mathcal{Z}(I')Z(I′) into on-line points and off-line pairsProved

    Aug 2026

  • Splitting a sum over Z(I′)\mathcal{Z}(I')Z(I′) into on-line points and off-line pairsProved

    Aug 2026

  • The H-EF bridge: zero-side and prime-side matrices agreeProved

    Aug 2026

  • The H-EF bridge: zero-side and prime-side matrices agreeProved

    Aug 2026

  • The Weil explicit formula for ζ\zetaζ, literature form [eq:EFstd]Proved

    Aug 2026

  • The Weil explicit formula for ζ\zetaζ, literature form [eq:EFstd]Proved

    Aug 2026

  • Prime side of the explicit formula on the line Re⁡s=c>1\operatorname{Re} s = c > 1Res=c>1Proved

    Aug 2026

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