Abstract

Inequality theory has attracted considerable attention from scientists because it can be used in many fields. In particular, Hermite–Hadamard and Simpson inequalities based on convex functions have become a cornerstone in pure and applied mathematics. We deal with Simpson’s second-type inequalities based on coordinated convex functions in this work. In this paper, we first introduce Simpson’s second-type integral inequalities for two-variable functions whose second-order partial derivatives in modulus are convex on the coordinates. In addition, similar results are acquired by considering that powers of the absolute value of second-order partial derivatives of these two-variable functions are convex on the coordinates. Finally, some applications for Simpson’s 3/8 cubature formula are given.

Highlights

  • Introduction and PreliminariesSimpson’s rules (Thomas Simpson 1710–1761) are well-known methods in numerical analysis for the purpose of numerical integration and the numerical approximation of definite integrals

  • Two famous Simpson rules are known in the literature, and one of them is the following estimation known as Simpson’s second-type (Simpson’s 38 ) inequality

  • Afterwards, Hermite–Hadamard, Simpson- and Newton-type inequalities for harmonically convex mappings have been observed by some researchers

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Summary

Introduction

Introduction and PreliminariesSimpson’s rules (Thomas Simpson 1710–1761) are well-known methods in numerical analysis for the purpose of numerical integration and the numerical approximation of definite integrals. In [2], Sarikaya et al gave some inequalities of Simpson’s type based on s-convexity and their applications for special means of real numbers. Gao and Shi obtained new inequalities of Newton’s type for functions whose absolute values of second derivatives are convex in [4]. Afterwards, Hermite–Hadamard-, Simpson- and Newton-type inequalities for harmonically convex mappings have been observed by some researchers.

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