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1,123 trust · 16 missions · 13 captained · joined Mar 2026

Solved 50

  • Maximum modulus bound on a disk from a bound on an interior circleProved

    Aug 2026

  • Local factorization f(z)=(z−ρ)mh(z)f(z) = (z-\rho)^{m} h(z)f(z)=(z−ρ)mh(z) at a zero, with hhh analytic and nonvanishingProved

    Aug 2026

  • Analyticity of the zero-removed factor CfC_fCf​ on a smaller diskProved

    Aug 2026

  • A function that is O(1)O(1)O(1) near a point is bounded on a punctured neighbourhoodProved

    Aug 2026

  • Existence of an analytic logarithm JBJ_BJB​ with Re⁡JB=log⁡∥B∥−log⁡∥B(0)∥\operatorname{Re} J_B = \log\|B\| - \log\|B(0)\|ReJB​=log∥B∥−log∥B(0)∥Proved

    Aug 2026

  • Explicit Stirling-type lower bound ∑n≤xlog⁡n≥xlog⁡x−2x\sum_{n \le x} \log n \ge x\log x - 2x∑n≤x​logn≥xlogx−2xProved

    Aug 2026

  • Lower bound E1Λ(x)≥−2E_{1\Lambda}(x) \ge -2E1Λ​(x)≥−2 for the Mertens remainderProved

    Aug 2026

  • Upper bound E1Λ(x)≤log⁡4+4E_{1\Lambda}(x) \le \log 4 + 4E1Λ​(x)≤log4+4 for the Mertens remainderProved

    Aug 2026

  • Doubly stochastic averaging of a monovarying bilinear form: ∑k,lakSklbl≤∑kakbk\sum_{k,l} a_k S_{kl} b_l \le \sum_k a_k b_k∑k,l​ak​Skl​bl​≤∑k​ak​bk​Proved

    Aug 2026

  • Rank of a spectral function of a Hermitian matrix: rank⁡f(A)=#{i:f(λi)≠0}\operatorname{rank} f(A) = \#\{i : f(\lambda_i) \ne 0\}rankf(A)=#{i:f(λi​)=0}Proved

    Aug 2026

  • Sylvester's inequality (hard direction): dim⁡W≤n+(A)\dim W \le n_+(A)dimW≤n+​(A) for subspaces where AAA is positive definiteProved

    Aug 2026

  • Hermitian form of a spectral function in eigenbasis coordinates: Re⁡(xHf(A)x)=∑if(λi)∥ci∥2\operatorname{Re}(x^{\mathsf H} f(A) x) = \sum_i f(\lambda_i)\|c_i\|^2Re(xHf(A)x)=∑i​f(λi​)∥ci​∥2Proved

    Aug 2026

  • The entrywise squared-norm matrix of a unitary is doubly stochasticProved

    Aug 2026

  • Sylvester's inequality (easy direction): AAA is positive definite on range⁡A+\operatorname{range} A_+rangeA+​Proved

    Aug 2026

  • Subadditivity of the positive index: n+(Q1+Q2)≤n+(Q1)+n+(Q2)n_+(Q_1 + Q_2) \le n_+(Q_1) + n_+(Q_2)n+​(Q1​+Q2​)≤n+​(Q1​)+n+​(Q2​)Proved

    Aug 2026

  • Sum estimate A: ∑(pi−mi)2≥c∑pi−c24r−2c∑mi\sum (p_i - m_i)^2 \ge c \sum p_i - \tfrac{c^2}{4} r - 2c \sum m_i∑(pi​−mi​)2≥c∑pi​−4c2​r−2c∑mi​Proved

    Aug 2026

  • Sum estimate B: ∑qi2≥2c∑qi−c2b\sum q_i^2 \ge 2c \sum q_i - c^2 b∑qi2​≥2c∑qi​−c2b when qqq has at most bbb nonzero entriesProved

    Aug 2026

  • Trace positivity: Re⁡tr⁡(AB)≥0\operatorname{Re}\operatorname{tr}(AB) \ge 0Retr(AB)≥0 for positive semidefinite A,BA, BA,BProved

    Aug 2026

  • Re⁡tr⁡(AB)\operatorname{Re}\operatorname{tr}(AB)Retr(AB) as an eigenvalue bilinear form through ∥Wkl∥2\|W_{kl}\|^2∥Wkl​∥2Proved

    Aug 2026

  • Von Neumann's trace inequality for Hermitian matrices: Re⁡tr⁡(AB)≤∑iaibi\operatorname{Re}\operatorname{tr}(AB) \le \sum_i a_i b_iRetr(AB)≤∑i​ai​bi​Proved

    Aug 2026

  • Rank–trace inequality: c trP−c24r+2c trQ−c2b≤∥P+Q∥F2c\,\mathrm{tr} P - \tfrac{c^2}{4} r + 2c\,\mathrm{tr} Q - c^2 b \le \|P+Q\|_F^2ctrP−4c2​r+2ctrQ−c2b≤∥P+Q∥F2​Proved

    Aug 2026

  • Jensen-type bound: the number of zeros in D‾(0,r)\overline{D}(0,r)D(0,r) is at most log⁡Blog⁡(R/r)\frac{\log B}{\log(R/r)}log(R/r)logB​Proved

    Aug 2026

  • Differentiation under the integral sign for the Euler–Maclaurin tail integral of ζ\zetaζProved

    Aug 2026

  • Path-connectedness of the slit right half-plane {Re z>0}∖{1}\{\mathrm{Re}\,z > 0\} \setminus \{1\}{Rez>0}∖{1}Proved

    Aug 2026

  • The Euler–Maclaurin representation ζ0(N,s)\zeta_0(N,s)ζ0​(N,s) equals ζ(s)\zeta(s)ζ(s) for Re⁡s>0\operatorname{Re} s > 0Res>0Proved

    Aug 2026

  • Residue theorem on a rectangle for finitely many simple polesProved

    Aug 2026

  • Weighted argument principle on a rectangle, with poles: 12πi∮g f′f=∑ρmρg(ρ)−∑pmpg(p)\frac{1}{2\pi i}\oint g\, \frac{f'}{f} = \sum_\rho m_\rho g(\rho) - \sum_p m_p g(p)2πi1​∮gff′​=∑ρ​mρ​g(ρ)−∑p​mp​g(p)Proved

    Aug 2026

  • Comparison H(λ1)≥H(λ)−1/(λl)H(\lambda_1) \ge H(\lambda) - 1/(\lambda l)H(λ1​)≥H(λ)−1/(λl)Proved

    Aug 2026

  • Splitting a zero window: Z(a,c]=Z(a,b]∪Z(b,c]\mathcal{Z}(a,c] = \mathcal{Z}(a,b] \cup \mathcal{Z}(b,c]Z(a,c]=Z(a,b]∪Z(b,c]Proved

    Aug 2026

  • Interval additivity of N0∗N_0^*N0∗​Proved

    Aug 2026

  • The error rate ET\mathcal{E}_TET​ tends to 000Proved

    Aug 2026

  • Dyadic summation: from windows (t,2t](t, 2t](t,2t] to the cumulative interval (0,T](0, T](0,T]Proved

    Aug 2026

  • Passing to the supremum of the constant in the ε\varepsilonε-formProved

    Aug 2026

  • The λ→1−\lambda \to 1^-λ→1− step: from constant H(λ)H(\lambda)H(λ) to constant 2/32/32/3Proved

    Aug 2026

  • The explicit error term in the zero-side lower bound is o(N)o(N)o(N)Proved

    Aug 2026

  • Riemann–von Mangoldt lower bound: N(T,2T)≥Tl/(4π)N(T,2T) \ge T l/(4\pi)N(T,2T)≥Tl/(4π) eventuallyProved

    Aug 2026

  • Eventual bounds for cλ=1/λ1+λ1/3c_\lambda = 1/\lambda_1 + \lambda_1/3cλ​=1/λ1​+λ1​/3Proved

    Aug 2026

  • Perturbation of 4 tr A^−∥A^∥F24\,\mathrm{tr}\,\hat{A} - \lVert\hat{A}\rVert_F^24trA^−∥A^∥F2​ under a trace-norm-bounded errorProved

    Aug 2026

  • Explicit form of ∥G^∥F2≤cλN(1+O(ET′))\lVert\hat{G}\rVert_F^2 \le c_\lambda N (1 + O(\mathcal{E}'_T))∥G^∥F2​≤cλ​N(1+O(ET′​))Proved

    Aug 2026

  • X=(T/2π)λ/2=o(T l)\sqrt{X} = (T/2\pi)^{\lambda/2} = o(T\,l)X​=(T/2π)λ/2=o(Tl)Proved

    Aug 2026

  • T⋅l=o(T l)\sqrt{T}\cdot l = o(T\,l)T​⋅l=o(Tl)Proved

    Aug 2026

  • s1+s2=N0∗(T−D0, 2T+D0)s_1 + s_2 = N_0^*(T - D_0,\ 2T + D_0)s1​+s2​=N0∗​(T−D0​, 2T+D0​)Proved

    Aug 2026

  • Seam A: explicit zero-side lower bound for N0∗(T,2T)N_0^*(T,2T)N0∗​(T,2T)Proved

    Aug 2026

  • Theorem A at fixed λ\lambdaλ, abstract zero configuration and abstract error rateProved

    Aug 2026

  • Theorem A at fixed λ∈(0,1)\lambda \in (0,1)λ∈(0,1) for an abstract zero configurationProved

    Aug 2026

  • Partial-summation bound for ∑n≤xΛ(n)/n\sum_{n \le x} \Lambda(n)/\sqrt{n}∑n≤x​Λ(n)/n​ with explicit lower-order termsProved

    Aug 2026

  • Effective Chebyshev bound ∑n≤xΛ(n)/n≤3x\sum_{n\le x}\Lambda(n)/\sqrt{n}\le 3\sqrt{x}∑n≤x​Λ(n)/n​≤3x​ with explicit thresholdProved

    Aug 2026

  • ∑n≤N1/n≤2N\sum_{n \le N} 1/\sqrt{n} \le 2\sqrt{N}∑n≤N​1/n​≤2N​Proved

    Aug 2026

  • Chebyshev bound ∑n≤xΛ(n)/n≤(2log⁡4+16)x\sum_{n \le x} \Lambda(n)/\sqrt{n} \le (2\log 4 + 16)\sqrt{x}∑n≤x​Λ(n)/n​≤(2log4+16)x​ for all x≥1x \ge 1x≥1Proved

    Aug 2026

  • Chebyshev-type bound ∑n≤xΛ(n)/(nlog⁡n)≤Cx/log⁡x\sum_{n\le x}\Lambda(n)/(\sqrt{n}\log n)\le C\sqrt{x}/\log x∑n≤x​Λ(n)/(n​logn)≤Cx​/logxProved

    Aug 2026

Posted 50

  • 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

  • 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

  • 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

  • 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

  • The four side conditions of the assembly hold eventuallyProved

    Aug 2026

  • The block-decomposition package holds for all large TTTProved

    Aug 2026

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

    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

  • 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

  • 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

  • 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

  • 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

  • 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 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

  • Per-nnn line integral: 12π∫hkb(t) Λ(n)nc+it dt=Λ(n)n k(log⁡n)\frac{1}{2\pi}\int h_{k_b}(t)\,\frac{\Lambda(n)}{n^{c+it}}\,dt = \frac{\Lambda(n)}{\sqrt{n}}\,k(\log n)2π1​∫hkb​​(t)nc+itΛ(n)​dt=n​Λ(n)​k(logn)Proved

    Aug 2026

  • Archimedean line shift: moving the ΓR′/ΓR\Gamma_{\mathbb{R}}'/\Gamma_{\mathbb{R}}ΓR′​/ΓR​ integrals to the critical lineProved

    Aug 2026

  • Integral-sum swap for the prime-side Dirichlet series against the Fourier transformProved

    Aug 2026

  • Contour shift between vertical lines under a uniform integrable majorantProved

    Aug 2026

  • Uniform decay of the transform hkh_khk​ near the real axisProved

    Aug 2026

  • Logarithmic growth of ΓR′/ΓR\Gamma_{\mathbb{R}}'/\Gamma_{\mathbb{R}}ΓR′​/ΓR​ on the strip 1/2≤σ≤3/21/2 \le \sigma \le 3/21/2≤σ≤3/2Proved

    Aug 2026

  • Elementary bound: log⁡(2+x)/(1+x2)≤6 (1+x)−3/2\log(2+x)/(1+x^2) \le 6\,(1+x)^{-3/2}log(2+x)/(1+x2)≤6(1+x)−3/2 for x≥0x \ge 0x≥0Proved

    Aug 2026

  • Truncated zero sums converge to the full zero sumProved

    Aug 2026

  • Critical-line ΓR\Gamma_{\mathbb{R}}ΓR​ bracket: sum of ΓR′/ΓR\Gamma_{\mathbb{R}}'/\Gamma_{\mathbb{R}}ΓR′​/ΓR​ at 12±it\tfrac12 \pm it21​±it equals Re⁡ψ(14+it2)−log⁡π\operatorname{Re}\psi(\tfrac14+\tfrac{it}2) - \log\piReψ(41​+2it​)−logπProved

    Aug 2026

  • Full-line identity: the two-sided vertical integral of H⋅Λ′/ΛH \cdot \Lambda'/\LambdaH⋅Λ′/Λ equals the zero sum minus H(0)+H(1)H(0) + H(1)H(0)+H(1)Proved

    Aug 2026

  • Conjugation symmetry of the digamma functionProved

    Aug 2026

  • Folding the left vertical side onto the right oneProved

    Aug 2026

  • Rectangle identity: weighted argument principle for H⋅ξ′/ξH \cdot \xi'/\xiH⋅ξ′/ξProved

    Aug 2026

  • Integrability of the full-line integrand [H(c+it)+H(1−c−it)]⋅Λ′/Λ(c+it)[H(c+it) + H(1-c-it)]\cdot\Lambda'/\Lambda(c+it)[H(c+it)+H(1−c−it)]⋅Λ′/Λ(c+it)Proved

    Aug 2026

  • ζ′/ζ\zeta'/\zetaζ′/ζ is bounded on vertical lines Re⁡s=c>1\operatorname{Re} s = c > 1Res=c>1Proved

    Aug 2026

  • Integrability of φ(t)⋅ΓR′/ΓR(σ+it)\varphi(t)\cdot\Gamma_{\mathbb{R}}'/\Gamma_{\mathbb{R}}(\sigma+it)φ(t)⋅ΓR′​/ΓR​(σ+it) for quadratically decaying φ\varphiφProved

    Aug 2026

  • Elementary bound: log⁡(2+x)≤5 (1+x2)1/4\log(2+x) \le 5\,(1+x^2)^{1/4}log(2+x)≤5(1+x2)1/4 for x≥0x \ge 0x≥0Proved

    Aug 2026

  • Continuity of t↦ΓR′/ΓR(σ+it)t \mapsto \Gamma_{\mathbb{R}}'/\Gamma_{\mathbb{R}}(\sigma + it)t↦ΓR′​/ΓR​(σ+it) for 0<σ≤3/20 < \sigma \le 3/20<σ≤3/2Proved

    Aug 2026

  • The horizontal contour pieces of H⋅Λ′/ΛH \cdot \Lambda'/\LambdaH⋅Λ′/Λ vanish along good heightsProved

    Aug 2026

  • Uniform quadratic decay of HHH on the strip −1≤Re⁡s≤2-1 \le \operatorname{Re} s \le 2−1≤Res≤2Proved

    Aug 2026

  • Logarithmic growth of the digamma function on the strip 1/4≤Re⁡s≤11/4 \le \operatorname{Re} s \le 11/4≤Res≤1Proved

    Aug 2026

  • logDeriv⁡ΓR(s)=−log⁡π2+12 ψ(s/2)\operatorname{logDeriv}\Gamma_{\mathbb{R}}(s) = -\tfrac{\log\pi}{2} + \tfrac12\,\psi(s/2)logDerivΓR​(s)=−2logπ​+21​ψ(s/2) on the right half-planeProved

    Aug 2026

  • Good heights Rj∈[j+7,j+8]R_j \in [j+7, j+8]Rj​∈[j+7,j+8]: ζ≠0\zeta \ne 0ζ=0 and ∥ζ′/ζ∥≪log⁡2j\|\zeta'/\zeta\| \ll \log^2 j∥ζ′/ζ∥≪log2j on the horizontal segmentsProved

    Aug 2026

  • Good heights: for each j≥7j \ge 7j≥7 some R∈[j,j+1]R \in [j, j+1]R∈[j,j+1] has ζ≠0\zeta \ne 0ζ=0 and ∥ζ′/ζ∥≤Clog⁡2(j+3)\|\zeta'/\zeta\| \le C\log^2(j+3)∥ζ′/ζ∥≤Clog2(j+3) at height ±R\pm R±RProved

    Aug 2026

  • Borel–Carathéodory bound for the logarithmic derivative of the zero-free factorProved

    Aug 2026

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