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On the link between binomial theorem and discrete convolution

Petro Kolosov

Abstract

Let $\mathbf{P}^{m}_{b}(x)$ be a $2m+1$-degree polynomial in $x$ and $b \in \mathbb{R}$ \[ \mathbf{P}^{m}_{b}(x) = \sum_{k=0}^{b-1} \sum_{r=0}^{m} \mathbf{A}_{m,r} k^r (x-k)^r \] where $\mathbf{A}_{m,r}$ are real coefficients. In this manuscript, we introduce the polynomial $\mathbf{P}^{m}_{b}(x)$ and study its properties, establishing a polynomial identity for odd-powers in terms of this polynomial. Based on mentioned polynomial identity for odd-powers, we explore the connection between the Binomial theorem and discrete convolution of odd-powers, further extending this relation to the multinomial case. All findings are verified using Mathematica programs.

On the link between binomial theorem and discrete convolution

Abstract

Let be a -degree polynomial in and where are real coefficients. In this manuscript, we introduce the polynomial and study its properties, establishing a polynomial identity for odd-powers in terms of this polynomial. Based on mentioned polynomial identity for odd-powers, we explore the connection between the Binomial theorem and discrete convolution of odd-powers, further extending this relation to the multinomial case. All findings are verified using Mathematica programs.

Paper Structure

This paper contains 13 sections, 12 theorems, 69 equations, 5 tables.

Key Result

Lemma 4.1

For every $m\in\mathbb{N}, \; x,y\in\mathbb{R}$

Theorems & Definitions (12)

  • Lemma 4.1
  • Corollary 4.2
  • Lemma 5.1
  • Corollary 5.2
  • Theorem 5.3
  • Proposition 5.4
  • Theorem 5.5
  • Corollary 5.6
  • Corollary 6.1
  • Corollary 6.2
  • ...and 2 more