Abstract:In this study, we present new variants of the Hermite–Hadamard inequality via non-conformable fractional integrals. These inequalities are proven for convex functions and differentiable functions whose derivatives in absolute value are generally convex. Our main results are established using the classical Jensen–Mercer inequality and its variants for (h,m)-convex modified functions proven in this paper. In addition to showing that our results support previously known results from the literature, we provide exa… Show more
“…Over the years, researchers have made significant contributions to the development and generalization of the H-H inequality. These efforts have led to the exploration of various generalizations, extensions, and refinements of the original inequality, involving different types of functions, operators, and integral formulations; for example, Bayraktar et al [2] proved Mercer versions, Sahoo et al [3] established H-H inequalities via Atangana-Baleanu fractional operators, Tariq et al [4] presented Simpson-Merer-type inequalities with the help of Atangana-Baleanu fractional operators, and for new versions of H-H results involving exponential kernels, one can refer to [5] and Bayraktar et al [6], who employed a modified (h,m,s) convex function to establish weighted H-H inequalities. These advancements have broadened the scope of the H-H inequality and deepened our understanding of convex functions.…”
This paper presents a novel approach by introducing a set of operators known as the left and right generalized tempered fractional integral operators. These operators are utilized to establish new Hermite–Hadamard inequalities for convex functions as well as the multiplication of two convex functions. Additionally, this paper gives two useful identities involving the generalized tempered fractional integral operator for differentiable functions. By leveraging these identities, our results consist of integral inequalities of the Hermite–Hadamard type, which are specifically designed to accommodate convex functions. Furthermore, this study encompasses the identification of several special cases and the recovery of specific known results through comprehensive research. Lastly, this paper offers a range of applications in areas such as matrices, modified Bessel functions and q-digamma functions.
“…Over the years, researchers have made significant contributions to the development and generalization of the H-H inequality. These efforts have led to the exploration of various generalizations, extensions, and refinements of the original inequality, involving different types of functions, operators, and integral formulations; for example, Bayraktar et al [2] proved Mercer versions, Sahoo et al [3] established H-H inequalities via Atangana-Baleanu fractional operators, Tariq et al [4] presented Simpson-Merer-type inequalities with the help of Atangana-Baleanu fractional operators, and for new versions of H-H results involving exponential kernels, one can refer to [5] and Bayraktar et al [6], who employed a modified (h,m,s) convex function to establish weighted H-H inequalities. These advancements have broadened the scope of the H-H inequality and deepened our understanding of convex functions.…”
This paper presents a novel approach by introducing a set of operators known as the left and right generalized tempered fractional integral operators. These operators are utilized to establish new Hermite–Hadamard inequalities for convex functions as well as the multiplication of two convex functions. Additionally, this paper gives two useful identities involving the generalized tempered fractional integral operator for differentiable functions. By leveraging these identities, our results consist of integral inequalities of the Hermite–Hadamard type, which are specifically designed to accommodate convex functions. Furthermore, this study encompasses the identification of several special cases and the recovery of specific known results through comprehensive research. Lastly, this paper offers a range of applications in areas such as matrices, modified Bessel functions and q-digamma functions.
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