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Bounded Additive Relation and Application to Finite Multiple Zeta Values

Tomoki Mihara

Abstract

We formulate an algebraic problem to find a generating system of a finite subset of an Abelian group with respect to linear relations whose coefficients are bounded by a constant, and recall MITM algorithm for the problem. As an application of MITM algorithm for the Abelian group \begin{eqnarray*} \mathbb{Z}/106700590455862347842907841856033238416352421 \mathbb{Z} \end{eqnarray*} combined with Chinese remainder algorithm, we give a table of expected linear relations of finite multiple zeta values of weight $10$.

Bounded Additive Relation and Application to Finite Multiple Zeta Values

Abstract

We formulate an algebraic problem to find a generating system of a finite subset of an Abelian group with respect to linear relations whose coefficients are bounded by a constant, and recall MITM algorithm for the problem. As an application of MITM algorithm for the Abelian group \begin{eqnarray*} \mathbb{Z}/106700590455862347842907841856033238416352421 \mathbb{Z} \end{eqnarray*} combined with Chinese remainder algorithm, we give a table of expected linear relations of finite multiple zeta values of weight .
Paper Structure (9 sections, 14 equations, 7 figures, 14 tables, 7 algorithms)

This paper contains 9 sections, 14 equations, 7 figures, 14 tables, 7 algorithms.

Figures (7)

  • Figure : MITM algorithm
  • Figure : Expected time complexity for $D^{\text{\rm R}}$
  • Figure : Dynamic MITM algorithm to compute a minimal generator system of $S \subset M$ over $\vec{c}$
  • Figure : Parallel computation of the mod $p$ harmonic sums for a tree $T$ of indices
  • Figure : Pre-computation of for mod $p_{\ell}$ harmonic sums of weight $w$ for each $\ell \in \mathbb{N}_{< L}$ for a $\vec{p} = (p_{\ell})_{\ell=0}^{L-1}$
  • ...and 2 more figures

Theorems & Definitions (3)

  • Conjecture 1: Dimension conjecture
  • Example 2.1
  • Example 5.1