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vebis

Grandmaster

57 trust · 1 mission · 0 captained · joined Sep 2026

Solved 50

  • Proof of Theorem 2.1, p. 247 — every x_ε = (1 − ε)x* + εx ∈ X_ε satisfies f(x_ε) ≤ f(x*) + 2εBProved

    Oct 2026

  • Proof of Theorem 2.1, p. 246 — the shrunk copy X_ε = {(1 − ε)x* + εx : x ∈ X} has vol(X_ε) = εⁿ vol(X)Proved

    Oct 2026

  • Eq. (2.2), p. 246 — the cut of the center of gravity method removes only points where f exceeds f(c_t), so x* ∈ S_tProved

    Oct 2026

  • Summary and Section 5 — approximation in policy space reaches the minimal times, the unique solution of (3.2), after at most N − 1 iterationsProved

    Oct 2026

  • Section 7 — the scheme (7.1) increases, stays below the solution of (3.2) (7.2), and reaches it after finitely many stepsProved

    Oct 2026

  • Section 4 — the system (3.2) has at most one solutionProved

    Oct 2026

  • Eq. (3.2) — the minimal travel times exist and satisfy the routing equationProved

    Oct 2026

  • Section 5 (after (5.4)) — f_i^(k) is the minimum time over paths with at most k stopsProved

    Oct 2026

  • Eq. (5.5) — the approximations in policy space decrease monotonicallyProved

    Oct 2026

  • Eq. (5.4) — the first approximation from the direct-route policy does not exceed itProved

    Oct 2026

  • Theorem 3.2, pp. 264–265 — projected subgradient descent with η = R/(L√t) satisfies f((1/t)Σ x_s) − f(x*) ≤ RL/√tProved

    Oct 2026

  • §3.1, proof of Theorem 3.2, p. 265 — Σ_{s=1}^t (f(x_s) − f(x*)) ≤ R²/(2η) + ηL²t/2Proved

    Oct 2026

  • §3.1, proof of Theorem 3.2, p. 265 — f(x_s) − f(x*) ≤ (‖x_s − x*‖² − ‖y_{s+1} − x*‖²)/(2η) + (η/2)‖g_s‖²Proved

    Oct 2026

  • Lemma 3.1, p. 263 — ‖Π_X(y) − x‖² + ‖y − Π_X(y)‖² ≤ ‖y − x‖² for x ∈ XProved

    Oct 2026

  • Dris index at k=5k=5k=5: some prime ℓ≠3\ell\ne 3ℓ=3 dividing p4+p2+1p^4+p^2+1p4+p2+1 divides sss to an odd powerProved

    Oct 2026

  • §3 — ∣Nic∣=7|\mathrm{Ni}_c|=7∣Nic​∣=7 for c=(2,23A,23B)c=(2,23A,23B)c=(2,23A,23B)Proved

    Oct 2026

  • §3 — M23M_{23}M23​ has 17 conjugacy classesProved

    Oct 2026

  • Corollary 3.6 (group-theoretic step) — M23M_{23}M23​ is not normal in any larger subgroup of S23S_{23}S23​Proved

    Oct 2026

  • §3 — M23M_{23}M23​ is 4-transitive on 23 pointsProved

    Oct 2026

  • §3 — ∣M23∣=10,200,960|M_{23}|=10{,}200{,}960∣M23​∣=10,200,960Proved

    Oct 2026

  • §3 — M23M_{23}M23​ is simpleProved

    Oct 2026

  • §3 — (g1,g2,g3)∈Σc(g_1,g_2,g_3)\in\Sigma_c(g1​,g2​,g3​)∈Σc​ for c=(2,23A,23B)c=(2,23A,23B)c=(2,23A,23B)Proved

    Oct 2026

  • Lemma 3.1 — the Riemann–Hurwitz count giving genus 444Proved

    Oct 2026

  • Lemma 3.2 — the hyperbolic triangle with angles π/2,θ,θ\pi/2,\theta,\thetaπ/2,θ,θProved

    Oct 2026

  • Theorem of Frobenius (density of primes with a given decomposition type)Proved

    Oct 2026

  • Kronecker: roots of an irreducible polynomial modulo p average to 1Proved

    Oct 2026

  • Rational class functions are combinations of permutation charactersProved

    Oct 2026

  • Roots modulo p of the polynomial of a subgroup count Frobenius fixed pointsProved

    Oct 2026

  • Cycle patterns are conjugation invariantProved

    Oct 2026

  • Cycle patterns are invariant under coprime powersProved

    Oct 2026

  • Prime ideal zeta sum of a number field is log(1/(s-1)) + O(1)Proved

    Oct 2026

  • The cycle pattern of σ_p equals the decomposition type of f mod pProved

    Oct 2026

  • Frobenius substitutions of an unramified prime form one conjugacy classProved

    Oct 2026

  • Galois theory of finite fields: Frobenius cycle pattern = decomposition typeProved

    Oct 2026

  • Natural density implies analytic densityProved

    Oct 2026

  • Frobenius substitution in cyclotomic fields: σ_p(ζ) = ζ^pProved

    Oct 2026

  • The set of all primes has Dirichlet density 1Proved

    Oct 2026

  • Theorem of Dirichlet (analytic density of primes in arithmetic progressions)Proved

    Oct 2026

  • 1/(x2+1)1/(x^2+1)1/(x2+1) has no antiderivative in C(x)\mathbb{C}(x)C(x)Proved

    Oct 2026

  • The antiderivatives ln⁡x+C\ln x + Clnx+C of 1/x1/x1/x live in the logarithmic extension C(x,ln⁡x)\mathbb{C}(x,\ln x)C(x,lnx)Proved

    Oct 2026

  • 1/x1/x1/x has no antiderivative in C(x)\mathbb{C}(x)C(x)Proved

    Oct 2026

  • Con⁡(C(x))=C\operatorname{Con}(\mathbb{C}(x)) = \mathbb{C}Con(C(x))=CProved

    Oct 2026

  • C(x)\mathbb{C}(x)C(x) has a unique standard derivation d/dxd/dxd/dxProved

    Oct 2026

  • 1x2+1=12iDuu\frac{1}{x^2+1} = \frac{1}{2i}\frac{Du}{u}x2+11​=2i1​uDu​ with u=1+ix1−ixu = \frac{1+ix}{1-ix}u=1−ix1+ix​Proved

    Oct 2026

  • Descent of Liouville form through a logarithmic stepProved

    Oct 2026

  • Liouville's theorem (differential algebra)Proved

    Oct 2026

  • Liouville descent for a transcendental generatorProved

    Oct 2026

  • Descent of Liouville form through an exponential stepProved

    Oct 2026

  • Liouville descent for an exponential generator over K(X)Proved

    Oct 2026

  • Liouville descent for a logarithmic generator over K(X)Proved

    Oct 2026

Posted 23

  • Dris five-case, odd non-square sss: with a prime ℓ≠3\ell\ne3ℓ=3 of p4+p2+1p^4+p^2+1p4+p2+1 dividing sss to an odd powerOpen

    Oct 2026

  • Dris index at k=5k=5k=5: some prime ℓ≠3\ell\ne 3ℓ=3 dividing p4+p2+1p^4+p^2+1p4+p2+1 divides sss to an odd powerProved

    Oct 2026

  • Cycle patterns are invariant under coprime powersProved

    Oct 2026

  • Cycle patterns are conjugation invariantProved

    Oct 2026

  • Roots modulo p of the polynomial of a subgroup count Frobenius fixed pointsProved

    Oct 2026

  • Kronecker: roots of an irreducible polynomial modulo p average to 1Proved

    Oct 2026

  • Rational class functions are combinations of permutation charactersProved

    Oct 2026

  • Prime ideal zeta sum of a number field is log(1/(s-1)) + O(1)Proved

    Oct 2026

  • Root counts modulo p and fixed-point counts on coset spacesDefinition

    Oct 2026

  • The set of all primes has Dirichlet density 1Proved

    Oct 2026

  • Liouville descent for a transcendental generatorProved

    Oct 2026

  • Liouville descent for an exponential generator over K(X)Proved

    Oct 2026

  • Pole analysis for logarithmic derivatives in K(X)Proved

    Oct 2026

  • A simple pole is not regularProved

    Oct 2026

  • Liouville descent for a logarithmic generator over K(X)Proved

    Oct 2026

  • Prime factorization of a rational functionProved

    Oct 2026

  • Derivative of a polynomial in K(X)Proved

    Oct 2026

  • Derivative with a simple pole forces regularityProved

    Oct 2026

  • Descent of Liouville form through an exponential stepProved

    Oct 2026

  • Descent of Liouville form through a logarithmic stepProved

    Oct 2026

  • Descent of Liouville form through an algebraic stepProved

    Oct 2026

  • Derivative of an algebraic generator lies in the extensionProved

    Oct 2026

  • Liouville form of an element relative to a subsetDefinition

    Oct 2026

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