Data-driven two-stage fuzzy random mixed integer optimization model for facility location problems under uncertain environment

Zhimin Liu; Ripeng Huang; Songtao Shao; Zhimin Liu; Ripeng Huang; Songtao Shao

doi:10.3934/math.2022734

AIMS Mathematics

2022, Volume 7, Issue 7: 13292-13312. doi: 10.3934/math.2022734

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Research article

Data-driven two-stage fuzzy random mixed integer optimization model for facility location problems under uncertain environment

1.
School of Mathematics Science, Liaocheng University, Shandong, China
2.
School of Mathematics and Finance, Chuzhou University, Chuzhou, China
3.
Shaanxi University of Science and Technology, Xian, China

Received: 27 December 2021 Revised: 26 April 2022 Accepted: 10 May 2022 Published: 16 May 2022
MSC : 90B06, 90C90

This paper studies the problem of facility location in a hybrid uncertain environment with both randomness and fuzziness. We establish a data-driven two-stage fuzzy random mixed integer optimization model, by considering the uncertainty of transportation cost and customer demand. Given the complexity of the model, this paper based on particle swarm optimization (PSO), beetle antenna search algorithm (BAS) and interior point algorithm, a hybrid intelligent algorithm (HIA) is proposed to solve two-stage fuzzy random mixed integer optimization model, yielding the optimal facility location and maximal expected return of supply chain simultaneously. Finally, taking the supply chain of medical mask in Shanghai as an example, the influence of uncertainty on the location of processing factory was studied. We compare the HIA with hybrid PSO and hybrid genetic algorithm (GA), to validate the proposed algorithm based on the computational time and the convergence rate.

Keywords:

two-stage fuzzy random mixed integer optimization,
facility location,
fuzzy random,
hybrid intelligent algorithm

Citation: Zhimin Liu, Ripeng Huang, Songtao Shao. Data-driven two-stage fuzzy random mixed integer optimization model for facility location problems under uncertain environment[J]. AIMS Mathematics, 2022, 7(7): 13292-13312. doi: 10.3934/math.2022734

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Abstract

1. Introduction

In convex functions theory, Hermite-Hadamard inequality is very important which was discovered by C. Hermite and J. Hadamard independently (see, also ^[1], and [2,p.137])

$\begin{equation} \mathcal{F}\left( \frac{\pi _{1}+\pi _{2}}{2}\right) \leq \frac{1}{\pi _{2}-\pi _{1}}\int \limits_{\pi _{1}}^{\pi _{2}}\mathcal{F}(\varkappa )d\varkappa \leq \frac{\mathcal{F}\left( \pi _{1}\right) +\mathcal{F}\left( \pi _{2}\right) }{2}, \end{equation}$

(1.1)

where $\; \mathcal{F}$ is a convex function. In the case of concave mappings, the above inequality is satisfied in reverse order.

Over the last twenty years, numerous studies have focused on obtaining trapezoid and midpoint type inequalities which give bounds for the right-hand side and left-hand side of the inequality (1.1), respectively. For example, the authors first obtained trapezoid and midpoint type inequalities for convex functions in ^[3] and in ^[4], respectively. In ^[5], Sarikaya et al. obtained the inequalities (1.1) for Riemann-Liouville fractional integrals and the authors also proved some corresponding trapezoid type inequalities for fractional integrals. Iqbal et al. presented some fractional midpoint type inequalities for convex functions in ^[6]. Sarikaya and Ertuğral ^[7] introduced the notions of generalized fractional integrals and proved some Hermite-Hadamard type inequalities for convex functions. In ^[8], Budak et al. used the generalized fractional integrals to prove Hermite-Hadamard type inequalities for twice differentiable convex functions. After that, the authors used generalized fractional integrals and proved the different variants of integral inequalities in ^{[9,10,11,12,13,14]}.

On the other hand, İşcan ^[15] defined the following class of functions called harmonically convex functions:

If the mapping $\; \mathcal{F}:I\subset \mathbb{R} \backslash \left \{ 0\right \} \rightarrow \mathbb{R}$ satisfies the inequality

$\begin{equation*} \; \mathcal{F}\left( \frac{1}{\frac{\sigma }{\varkappa }+\frac{1-\sigma }{y}} \right) \leq \sigma \mathcal{F}\left( \varkappa \right) +\left( 1-\sigma \right) \mathcal{F}\left( y\right) , \end{equation*}$

for all $\varkappa, y\in I$ and $\; \sigma \in \left[ 0, 1\right]$ , then $\; \mathcal{F}$ is called harmonically convex function. In the case of harmonically concave mappings, the above inequality is satisfied in reverse order.

It is worth noting that the harmonic feature has been important in a variety of disciplines in pure and applied sciences. The authors explore the significance of the harmonic mean in Asian stock company ^[16]. Harmonic methods are used in electric circuit theory, which is interesting. The overall resistance of a set of parallel resistors is just half of the entire resistors' harmonic mean. If $r_{1}$ and $r_{2}$ are the resistances of two parallel resistors, the total resistance may be calculated using the following formula:

$\begin{equation*} r_{\sigma } = \frac{r_{1}r_{2}}{r_{1}+r_{2}} = \frac{1}{2}\mathcal{H}\left( r_{1},r_{2}\right), \end{equation*}$

which is the half of the harmonic mean.

The harmonic mean, according to Noor ^[17], is also important in the creation of parallel algorithms for solving nonlinear problems. Several researchers have proposed iterative approaches for solving linear and nonlinear systems of equations using harmonic means and harmonically convex functions.

Several research articles have recently been published on various generalizations of integral inequalities using various approaches. For example, İşcan established some new Hermite-Hadamard type inequalities for harmonically convex functions and trapezoid type inequalities for this class of functions in ^[15]. In ^[18], İ şcan and Wu established Hermite-Hadamard type inequalities for harmonically convex functions via Riemann-Liouville fractional integrals. They also proved some fractional trapezoid type inequalities for mapping whose derivatives in absolute value are harmonically convex. İşcan proved Ostrowski type integral inequalities for harmonically $s$ -convex functions in ^[19] and in ^[20], Chen gave an extension of fractional Hermite-Hadamard type inequalities for harmonically convex functions. Kunt et al. ^[21] and Set et al. ^[22] used the Riemann-Liouville fractional integrals and proved Hermite-Hadamard type inequalities for harmonically convex functions. In ^[23], Șanlı proved several fractional midpoint type inequalities utilizing differentiable convex functions. The authors used the generalized fractional integrals and proved Hermite-Hadamard type inequalities for harmonically convex functions in ^[24,25]. Mohsen et al. ^[26] used the $h$ - harmonically convexity to prove some new Ostrowski type inequalities and in ^[27], Akhtar et al. proved a new variant of Ostrowski inequalities for harmonically convex functions. In the literature there are several papers on the inequalities for harmonically convex functions. For some recent developments in integral inequalities and harmonically convexity, one can consult ^[28,29,30].

Inspired by the ongoing studies, we use the generalized fractional integrals to develop some new Ostrowski type inequalities for differentiable harmonically convex functions. We also show that the newly developed inequalities are extensions of some previously known inequalities.

The following is the structure of this paper: Section 2 provides a brief overview of the fractional calculus as well as other related studies in this field. In Section 3, we establish Ostrowski type inequalities for differentiable functions. The relationship between the findings reported here and similar findings in the literature are also taken into account. We discuss the special cases of newly established inequalities in Section 4 and obtain several new Ostrowski type inequalities. We give some applications to special means of real numbers in Section 5. Section 6 concludes with some recommendations for future research.

2. Preliminaries

In this section, we recall some basic concepts of fractional integrals and related integral inequalities.

Definition 2.1. ^[7] The left and right-sided generalized fractional integrals given as follows:

$\begin{equation} _{\pi _{1}+}I_{\varphi }\mathcal{F}(\varkappa ) = \int \limits_{\pi _{1}}^{\varkappa }\frac{\varphi \left( \varkappa -\sigma \right) }{\varkappa -\sigma }\mathcal{F}(\sigma )d\sigma ,\ \ \varkappa > \pi _{1}, \end{equation}$

(2.1)

$\begin{equation} _{\pi _{2}-}I_{\varphi }\mathcal{F}(\varkappa ) = \int \limits_{\varkappa }^{\pi _{2}}\frac{\varphi \left( \sigma -\varkappa \right) }{\sigma -\varkappa }\mathcal{F}(\sigma )d\sigma ,\ \ \varkappa < \pi _{2}, \end{equation}$

(2.2)

where the function $\varphi :[0, \infty)\rightarrow \lbrack 0, \infty)$ satisfies $\int_{0}^{1}\frac{\varphi (\sigma)}{\sigma }d\sigma < \infty.$ For the details about the genrarlized fractional integrals, one can consult ^[7].

The most important feature of the generalized fractional integrals is that they generalize some types of fractional integrals such as Riemann-Liouville fractional integral, $k$ -Riemann-Liouville fractional integral, Katugampola fractional integrals, conformable fractional integral, Hadamard fractional integrals, etc. Few important special cases of the integral operators (2.1) and (2.2) are mentioned below.

i) Taking $\varphi \left(\sigma \right) = \sigma,$ the operators (2.1) and (2.2) reduces to the classical Riemann integrals as follows:

$\begin{equation*} I_{_{\pi _{1}^{+}}}\mathcal{F}(\varkappa ) = \int_{\pi _{1}}^{\varkappa } \mathcal{F}(\sigma )d\sigma ,\; \; \; \varkappa > \pi _{1}, \end{equation*}$

$\begin{equation*} I_{\pi _{2}^{-}}\mathcal{F}(\varkappa ) = \int_{\varkappa }^{\pi _{2}}\mathcal{ F}(\sigma )d\sigma ,\ \ \varkappa < \pi _{2}. \end{equation*}$

ii) Taking $\varphi \left(\sigma \right) = \frac{\sigma ^{\alpha } }{\Gamma \left(\alpha \right) },$ the operators (2.1) and (2.2) reduces to the well-known Riemann–Liouville fractional integrals as follows:

$\begin{equation*} J_{_{\pi _{1}^{+}}}^{\alpha }\mathcal{F}(\varkappa ) = \frac{1}{\Gamma \left( \alpha \right) }\int_{\pi _{1}}^{\varkappa }\left( \varkappa -\sigma \right) ^{\alpha -1}\mathcal{F}(\sigma )d\sigma ,\ \ \varkappa > \pi _{1}, \end{equation*}$

$\begin{equation*} J_{\pi _{2}^{-}}^{\alpha }\mathcal{F}(\varkappa ) = \frac{1}{\Gamma \left( \alpha \right) }\int_{\varkappa }^{\pi _{2}}\left( \sigma -\varkappa \right) ^{\alpha -1}\mathcal{F}(\sigma )d\sigma ,\ \ \varkappa < \pi _{2}. \end{equation*}$

iii) Taking $\varphi \left(\sigma \right) = \frac{\sigma ^{\frac{ \alpha }{k}}}{k\Gamma _{k}\left(\alpha \right) },$ the operators (2.1) and (2.2) reduces to the well-known $k$ –Riemann–Liouville fractional integrals as follows:

$\begin{equation*} J_{\pi _{1}+}^{\alpha ,k}\mathcal{F}(\varkappa ) = \frac{1}{k\Gamma _{k}\left( \alpha \right) }\int_{\pi _{1}}^{\varkappa }\left( \varkappa -\sigma \right) ^{\frac{\alpha }{k}-1}F(\sigma )d\sigma ,\ \ \varkappa > \pi _{1}, \end{equation*}$

$\begin{equation*} J_{\pi _{2}-}^{\alpha ,k}\mathcal{F}(\varkappa ) = \frac{1}{k\Gamma _{k}\left( \alpha \right) }\int_{\varkappa }^{\pi _{2}}\left( \sigma -\varkappa \right) ^{\frac{\alpha }{k}-1}\mathcal{F}(\sigma )d\sigma ,\ \ \varkappa < \pi _{2}, \end{equation*}$

where

$\begin{equation*} \Gamma _{k}\left( \alpha \right) = \int_{0}^{\infty }\sigma ^{\alpha -1}e^{- \frac{\sigma ^{k}}{k}}d\sigma ,\ \ \ \mathcal{R}(\alpha ) > 0 \end{equation*}$

and

$\begin{equation*} \Gamma _{k}\left( \alpha \right) = k^{\frac{\alpha }{k}-1}\Gamma \left( \frac{ \alpha }{k}\right) ,\ \ \mathcal{R}(\alpha ) > 0;\,k > 0. \end{equation*}$

Recently, Zhao et al. used the generalized fractional integrals and proved the following Hermite-Hadamard type inequalities.

Theorem 2.2. ^[25] For any harmonically convex mapping, the following inequalityholds:

$\begin{eqnarray} \mathcal{F}\left( \frac{2\pi _{1}\pi _{2}}{\pi _{1}+\pi _{2}}\right) &\leq & \frac{1}{2\Phi \left( 1\right) }\left \{ J_{\frac{1}{\pi _{1}}-}^{\alpha }( \mathcal{F}\circ g)\left( \frac{1}{\pi _{2}}\right) +J_{\frac{1}{\pi _{2}} +}^{\alpha }(\mathcal{F}\circ g)\left( \frac{1}{\pi _{1}}\right) \right \} \\ &\leq &\frac{\mathcal{F}(\pi _{1})+\mathcal{F}(\pi _{2})}{2}, \end{eqnarray}$

(2.3)

where $g(\varkappa) = \frac{1}{\varkappa }$ and $\Phi \left(\sigma\right) = \int_{0}^{\sigma }\frac{\varphi \left(\frac{\pi _{2}-\pi _{1}}{\pi_{1}\pi _{2}}s \right) }{s }ds < +\infty.$

Remark 2.3. It is obvious that if we set $\varphi \left(\sigma \right) = \sigma$ in inequality (2.3), then we obtain the following inequality of Hermite-Hadamard type inequality (see, ^[15]):

$\begin{equation*} \; \mathcal{F}\left( \frac{2\pi _{1}\pi _{2}}{\pi _{1}+\pi _{2}}\right) \leq \frac{\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\int_{\pi _{1}}^{\pi _{2}}\mathcal{ F}\left( \varkappa \right) d\varkappa \leq \frac{\mathcal{F}\left( \pi _{1}\right) +\; \mathcal{F}\left( \pi _{2}\right) }{2}. \end{equation*}$

Remark 2.4. It is obvious that if we set $\varphi \left(\sigma \right) = \frac{\sigma ^{\alpha }}{\Gamma \left(\alpha \right) }$ in inequality (2.3), then we obtain the following inequality of Hermite-Hadamard type inequality for Riemann-Liouville fractional integrals (see, ^[18]):

$\begin{eqnarray*} \mathcal{F}\left( \frac{2\pi _{1}\pi _{2}}{\pi _{1}+\pi _{2}}\right) &\leq & \frac{\Gamma (\alpha +1)}{2}\left( \frac{\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}} \right) ^{\alpha }\left \{ J_{\frac{1}{\pi _{1}}-}^{\alpha }(\mathcal{F}\circ g)\left( \frac{1}{\pi _{2}}\right) +J_{\frac{1}{\pi _{2}}+}^{\alpha }( \mathcal{F}\circ g)\left( \frac{1}{\pi _{1}}\right) \right \} \\ &\leq &\frac{\mathcal{F}(\pi _{1})+\mathcal{F}(\pi _{2})}{2}. \end{eqnarray*}$

Remark 2.5. It is obvious that if we set $\varphi \left(\sigma \right) = \frac{\sigma ^{ \frac{\alpha }{k}}}{k\Gamma _{k}\left(\alpha \right) }$ in inequality (2.3), then we obtain the following inequality of Hermite-Hadamard type inequality for $k$ -Riemann Liouville fractional integrals (see, ^[25]):

$\begin{eqnarray*} \mathcal{F}\left( \frac{2\pi _{1}\pi _{2}}{\pi _{1}+\pi _{2}}\right) &\leq & \frac{k\Gamma _{k}(\alpha +k)}{2}\left( \frac{\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\right) ^{\frac{\alpha }{k}}\left \{ J_{\frac{1}{\pi _{1}}-}^{\alpha ,k}( \mathcal{F}\circ g)\left( \frac{1}{\pi _{2}}\right) +J_{\frac{1}{\pi _{2}} +}^{\alpha ,k}(\mathcal{F}\circ g)\left( \frac{1}{\pi _{1}}\right) \right \} \\ &\leq &\frac{\mathcal{F}(\pi _{1})+\mathcal{F}(\pi _{2})}{2}. \end{eqnarray*}$

3. Main results

In this section, we prove some new Ostrowski type inequalities for differentiable harmonically convex functions via the generalized fractional integrals. For brevity, we give the following special functions:

(1) The Beta function:

$\begin{equation*} \beta (\varkappa ,y) = \frac{\Gamma (\varkappa )\Gamma (y)}{\Gamma (\varkappa +y)} = \int_{0}^{1}\sigma ^{\varkappa -1}(1-\sigma )^{y-1}d\sigma ,\text{ } \varkappa ,y > 0. \end{equation*}$

(2) The hypergeometric function:

$\begin{equation*} _{2}F_{1}(\pi _{1},\pi _{2};c;z) = \frac{1}{\beta (\pi _{2},\; c-\pi _{2})} \int_{0}^{1}\sigma ^{\pi _{2}-1}(1-\sigma )^{c-\pi _{2}-1}(1-z\sigma )^{-\alpha }d\sigma ,{ \ }c > \pi _{2} > 0,{ \ }\left \vert z\right \vert < 1. \end{equation*}$

Lemma 3.1. Let $\mathcal{F}:I = \left[ \pi _{1}, \pi _{2}\right] \subseteq(0, +\infty)\rightarrow \mathbb{R}$ be a differentiable function on $I^{\circ }$ such that $\mathcal{F}^{^{\prime }}\in L\left([\pi _{1}, \pi _{2}]\right).$ Then, the following generalized fractional integrals identity holds for all $\varkappa \in\left(\pi _{1}, \pi _{2}\right)$ :

$\begin{eqnarray} &&\pi _{1}\varkappa \left( \varkappa -\pi _{1}\right) \int_{0}^{1}\frac{ \Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F}^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ &&-\varkappa \pi _{2}\left( \pi _{2}-\varkappa \right) \int_{0}^{1}\frac{ \Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F}^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ & = &(\Delta \left( 1\right) +\Lambda (1))\mathcal{F}\left( \varkappa \right) - \left[ \; _{\frac{1}{\varkappa }+}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}}\right) +\; _{\frac{1}{\varkappa }-}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] , \end{eqnarray}$

(3.1)

where the mappings $\Delta$ and $\Lambda$ are defined as:

$\begin{equation*} \Delta \left( \sigma \right) = \int_{0}^{\sigma }\frac{\varphi \left( \frac{ \varkappa -\pi _{1}}{\pi _{1}\varkappa }s\right) }{s}ds < +\infty, \end{equation*}$

and

$\begin{equation*} \Lambda \left( \sigma \right) = \int_{0}^{\sigma }\frac{\varphi \left( \frac{ \pi _{2}-\varkappa }{\pi _{2}\varkappa }s\right) }{s}ds < +\infty . \end{equation*}$

Proof. Consider

(3.2)

From fundamentals of integrations, we have

$\begin{eqnarray*} I_{1} & = &\pi _{1}\varkappa \left( \varkappa -\pi _{1}\right) \int_{0}^{1} \frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F}^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ & = &\int_{0}^{1}\Delta \left( \sigma \right) d\mathcal{F}\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ & = &\Delta \left( 1\right) \mathcal{F}\left( \varkappa \right) -\int_{0}^{1} \frac{\varphi \left( \frac{\left( \varkappa -\pi _{1}\right) }{\pi _{1}\varkappa }\sigma \right) }{\sigma }\mathcal{F}\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ & = &\Delta \left( 1\right) \mathcal{F}\left( \varkappa \right) -\; _{\frac{1}{ \varkappa }+}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{ \pi _{1}}\right) . \end{eqnarray*}$

Similarly, we have

$\begin{eqnarray*} I_{2} & = &\varkappa \pi _{2}\left( \pi _{2}-\varkappa \right) \int_{0}^{1} \frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F}^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ & = &-\Lambda \left( 1\right) \mathcal{F}\left( \varkappa \right) +\; _{\frac{1}{ \varkappa }-}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{ \pi _{2}}\right) . \end{eqnarray*}$

Thus, we obtain the required identity (3.1) by using the calculated values of $I_{1}$ and $I_{2}$ in (3.2).

Remark 3.2. If we set $\varphi \left(\sigma \right) = \sigma$ in Lemma 3.1, then we obtain the following equality:

$\begin{eqnarray*} &&\frac{\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\left \{ \left( \varkappa -\pi _{1}\right) ^{2}\int_{0}^{1}\frac{\sigma }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F}^{\prime }\left( \frac{ \pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa } \right) d\sigma \right. \\ &&\left. -\left( \pi _{2}-\varkappa \right) ^{2}\int_{0}^{1}\frac{\sigma }{ \left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}} \mathcal{F}^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \right \} \\ & = &\mathcal{F}\left( \varkappa \right) -\frac{\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\int_{\pi _{1}}^{\pi _{2}}\frac{\mathcal{F}\left( u\right) }{u^{2}}du. \end{eqnarray*}$

This is proved by İşcan in [19,Lemma 2.1].

Remark 3.3. In Lemma 3.1, if we set $\varphi \left(\sigma \right) = \frac{\sigma ^{\alpha }}{\Gamma \left(\alpha \right) }$ , then we have the following equality for Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\frac{\left( \varkappa -\pi _{1}\right) ^{\alpha +1}}{\left( \pi _{1}\varkappa \right) ^{\alpha -1}}\int_{0}^{1}\frac{\sigma ^{\alpha }}{ \left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}} \mathcal{F}^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ &&-\frac{\left( \pi _{2}-\varkappa \right) ^{\alpha +1}}{\left( \varkappa \pi _{2}\right) ^{\alpha -1}}\int_{0}^{1}\frac{\sigma ^{\alpha }}{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F} ^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ & = &\left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa }\right) ^{\alpha }+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa }\right) ^{\alpha }\right] \mathcal{F}\left( \varkappa \right) \\ &&-\Gamma \left( \alpha +1\right) \left[ \; _{\frac{1}{\varkappa }+}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}}\right) +\; _{\frac{ 1}{\varkappa }-}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{ \pi _{2}}\right) \right] . \end{eqnarray*}$

This is proved by İşcan in ^[31].

Corollary 3.4. In Lemma 3.1, if we set $\varphi \left(\sigma \right) = \frac{\sigma ^{\frac{\alpha }{k}}}{k\Gamma \left(\alpha \right) },$ then we have thefollowing new equality for $k$ -Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\frac{\left( \varkappa -\pi _{1}\right) ^{\frac{\alpha +k}{k}}}{\left( \pi _{1}\varkappa \right) ^{\frac{\alpha -k}{k}}}\int_{0}^{1}\frac{\sigma ^{ \frac{\alpha }{k}}}{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F}^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ &&-\frac{\left( \pi _{2}-\varkappa \right) ^{\frac{\alpha +k}{k}}}{\left( \varkappa \pi _{2}\right) ^{\frac{\alpha -k}{k}}}\int_{0}^{1}\frac{\sigma ^{ \frac{\alpha }{k}}}{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\mathcal{F}^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) d\sigma \\ & = &\left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa }\right) ^{ \frac{\alpha }{k}}+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa } \right) ^{\frac{\alpha }{k}}\right] \mathcal{F}\left( \varkappa \right) \\ &&-\Gamma _{k}\left( \alpha +k\right) \left[ \; _{\frac{1}{\varkappa } +}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}} \right) +\; _{\frac{1}{\varkappa }-}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] . \end{eqnarray*}$

Theorem 3.5. We assume that the conditions of Lemma 3.1 are valid $.$ If $\left \vert \mathcal{F}^{^{\prime }}\right \vert ^{q}$ is harmonicallyconvex on $[\pi _{1}, \pi _{2}]$ for some $q\geq 1$ , then the followinginequality holds for the generalized fractional integrals:

where

$\begin{eqnarray*} \Theta _{1} & = &\int_{0}^{1}\frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma , \\ \Theta _{2} & = &\int_{0}^{1}\frac{\sigma \Delta \left( \sigma \right) }{ \left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}} d\sigma , \\ \Theta _{3} & = &\int_{0}^{1}\frac{\left( 1-\sigma \right) \Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma ,\\ \Theta _{4} & = &\int_{0}^{1}\frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma , \\ \Theta _{5} & = &\int_{0}^{1}\frac{\sigma \Lambda \left( \sigma \right) }{ \left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}} d\sigma , \end{eqnarray*}$

and

$\begin{eqnarray*} \Theta _{6} & = &\int_{0}^{1}\frac{\left( 1-\sigma \right) \Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma . \end{eqnarray*}$

Proof. Taking absolute in Lemma 3.1 and then applying the well known power mean inequality, we have

$\begin{eqnarray*} &&\left \vert (\Delta \left( 1\right) +\Lambda (1))\mathcal{F}\left( \varkappa \right) -\left[ \; _{\frac{1}{\varkappa }+}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}}\right) +\; _{\frac{1}{ \varkappa }-}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{ \pi _{2}}\right) \right] \right \vert \\ &\leq &\pi _{1}\varkappa \left( \varkappa -\pi _{1}\right) \int_{0}^{1}\frac{ \Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{ \pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa } \right) \right \vert d\sigma \\ &&+\pi _{2}\varkappa \left( \pi _{2}-\varkappa \right) \int_{0}^{1}\frac{ \Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{ \pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa } \right) \right \vert d\sigma \\ &\leq &\pi _{1}\varkappa \left( \varkappa -\pi _{1}\right) \left( \int_{0}^{1}\frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma \right) ^{1- \frac{1}{q}} \\ &&\times \left( \int_{0}^{1}\frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1 }{q}} \\ &&+\pi _{2}\varkappa \left( \pi _{2}-\varkappa \right) \left( \int_{0}^{1} \frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma \right) ^{1-\frac{1}{q}} \\ &&\times \left( \int_{0}^{1}\frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1 }{q}}. \end{eqnarray*}$

Now from harmonically convexity of $\left \vert \mathcal{F}^{\prime }\right \vert ^{q}$ , we have

$\begin{eqnarray*} &&\left( \int_{0}^{1}\frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma \right) ^{1- \frac{1}{q}}\left( \int_{0}^{1}\frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1 }{q}} \\ &\leq &\Theta _{1}^{1-\frac{1}{q}}\left( \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}\int_{0}^{1}\frac{\sigma \Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma +\left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}\int_{0}^{1}\frac{\left( 1-\sigma \right) \Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma \right) ^{\frac{1}{q}} \\ & = &\Theta _{1}^{1-\frac{1}{q}}\left( \Theta _{2}\left \vert \mathcal{F} ^{\prime }\left( \varkappa \right) \right \vert ^{q}+\Theta _{3}\left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}\right) ^{\frac{1 }{q}}. \end{eqnarray*}$

and

$\begin{eqnarray*} &&\left( \int_{0}^{1}\frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma \right) ^{1- \frac{1}{q}}\left( \int_{0}^{1}\frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1 }{q}} \\ &\leq &\Theta _{4}^{1-\frac{1}{q}}\left( \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}\int_{0}^{1}\frac{\sigma \Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma +\left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}\int_{0}^{1}\frac{\left( 1-\sigma \right) \Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}d\sigma \right) ^{\frac{1}{q}} \\ & = &\Theta _{4}^{1-\frac{1}{q}}\left( \Theta _{5}\left \vert \mathcal{F} ^{\prime }\left( \varkappa \right) \right \vert ^{q}+\Theta _{6}\left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}\right) ^{\frac{1 }{q}}. \end{eqnarray*}$

Thus, the proof is completed.

Remark 3.6. In Theorem 3.5, if we assume $\varphi \left(\sigma \right) = \sigma$ , then we have the following Ostrowski type inequalities:

$\begin{eqnarray*} &&\left \vert \mathcal{F}\left( \varkappa \right) -\frac{\pi _{1}\pi _{2}}{ \pi _{2}-\pi _{1}}\int_{\pi _{1}}^{\pi _{2}}\frac{\mathcal{F}\left( u\right) }{u^{2}}du\right \vert \\ &\leq &\frac{\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\left \{ \chi _{1}^{1-\frac{1 }{q}}\left( \pi _{1},\varkappa \right) \left( \varkappa -\pi _{1}\right) ^{2}\left( \chi _{2}\left( \pi _{1},\varkappa ,1,1\right) \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\chi _{3}\left( \pi _{1},\varkappa ,1,1\right) \left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}\right) ^{\frac{1}{q}}\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\varkappa \right) \left( \pi _{2}-\varkappa \right) ^{2}\left( \chi _{4}\left( \pi _{2},\varkappa ,1,1\right) \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\chi _{5}\left( \pi _{2},\varkappa ,1,1\right) \left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}\right) ^{\frac{1 }{q}}\right \} , \end{eqnarray*}$

where

$\begin{eqnarray*} \chi _{1}\left( \upsilon ,\varkappa \right) & = &\frac{1}{\varkappa -\nu } \left[ \frac{1}{\upsilon }-\frac{\ln \varkappa -\ln \upsilon }{\varkappa -\upsilon }\right] , \\ \chi _{2}\left( \pi _{1},\varkappa ,\upsilon ,\mu \right) & = &\frac{\beta \left( \mu +2,1\right) }{\varkappa ^{2\upsilon }}\; _{2}F_{1}\left( 2\upsilon ,\mu +2;\mu +3;1-\frac{\pi _{1}}{\varkappa }\right) , \\ \chi _{3}\left( \pi _{1},\varkappa ,\upsilon ,\mu \right) & = &\frac{\beta \left( \mu +1,1\right) }{\varkappa ^{2\upsilon }}\; _{2}F_{1}\left( 2\upsilon ,\mu +1;\mu +3;1-\frac{\pi _{1}}{\varkappa }\right) , \\ \chi _{4}\left( \pi _{2},\varkappa ,\upsilon ,\mu \right) & = &\frac{\beta \left( 1,\mu +2\right) }{\pi _{2}^{2\upsilon }}\; _{2}F_{1}\left( 2\upsilon ,1;\mu +3;1-\frac{\varkappa }{\pi _{2}}\right) , \\ \chi _{5}\left( \pi _{2},\varkappa ,\upsilon ,\mu \right) & = &\frac{\beta \left( 2,\mu +1\right) }{\pi _{2}^{2\upsilon }}\; _{2}F_{1}\left( 2\upsilon ,2;\mu +3;1-\frac{\varkappa }{\pi _{2}}\right) . \end{eqnarray*}$

This is proved by İşcan in [,Theorem 2.4 for $s = 1$ ].

Corollary 3.7. In Theorem 3.5, if we set $\left \vert \mathcal{F}^{\prime}\left(\varkappa \right) \right \vert \leq M$ , $\varkappa \in \left[ \pi_{1}, \pi _{2}\right],$ then we obtain the following Ostrowski typeinequality for generalized fractional integrals:

Remark 3.8. In Theorem 3.5, if we set $\varphi (\sigma) = \frac{\sigma ^{\alpha }}{\Gamma (\alpha)}$ , then we obtain the following Ostrowski type inequality for Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\left \vert \left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa } \right) ^{\alpha }+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa } \right) ^{\alpha }\right] \mathcal{F}\left( \varkappa \right) \right. \\ &&\left. +\Gamma \left( \alpha +1\right) \left[ \; _{\frac{1}{\varkappa } +}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}} \right) +\; _{\frac{1}{\varkappa }-}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] \right \vert \\ &\leq &\frac{\left( \varkappa -\pi _{1}\right) ^{\alpha +1}}{\left( \pi _{1}\varkappa \right) ^{\alpha -1}}\Omega _{1}^{1-\frac{1}{q}}\left( \pi _{1},\varkappa ,\alpha \right) \left( \Omega _{3}\left( \pi _{1},\varkappa ,\alpha \right) \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\Omega _{4}\left( \pi _{1},\varkappa ,\alpha \right) \left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}\right) ^{\frac{1}{q}} \\ &&+\frac{\left( \pi _{2}-\varkappa \right) ^{\alpha +1}}{\left( \pi _{2}\varkappa \right) ^{\alpha -1}}\Omega _{2}^{1-\frac{1}{q}}\left( \pi _{2},\varkappa ,\alpha \right) \left( \Omega _{5}\left( \pi _{2},\varkappa ,\alpha \right) \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\Omega _{6}\left( \pi _{2},\varkappa ,\alpha \right) \left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}\right) ^{\frac{1}{q}}, \end{eqnarray*}$

where

$\begin{eqnarray*} \Omega _{1}\left( \pi _{1},\varkappa ,\alpha \right) & = &\varkappa ^{-2}\; _{2}F_{1}\left( 2,\alpha +1;\alpha +2;1-\frac{\pi _{1}}{\varkappa } \right) , \\ \Omega _{2}\left( \pi _{2},\varkappa ,\alpha \right) & = &\pi _{2}^{-2}\; _{2}F_{1}\left( 2,1;\alpha +2;1-\frac{\varkappa }{\pi _{2}}\right) \\ \Omega _{3}\left( \pi _{1},\varkappa ,\alpha \right) & = &\frac{\beta \left( \alpha +2,1\right) }{\varkappa ^{2}}\; _{2}F_{1}\left( 2,\alpha +2;\alpha +3;1- \frac{\pi _{1}}{\varkappa }\right) , \\ \Omega _{4}\left( \pi _{1},\varkappa ,\alpha \right) & = &\Omega _{1}\left( \pi _{1},\varkappa ,\alpha \right) -\Omega _{3}\left( \pi _{1},\varkappa ,\alpha \right) , \\ \Omega _{5}\left( \pi _{2},\varkappa ,\alpha \right) & = &\frac{\beta \left( 1,\alpha +2\right) }{\pi _{2}^{2}}\; _{2}F_{1}\left( 2,1;\alpha +3;1-\frac{ \varkappa }{\pi _{2}}\right) , \\ \Omega _{6}\left( \pi _{2},\varkappa ,\alpha \right) & = &\Omega _{2}\left( \pi _{2},\varkappa ,\alpha \right) -\Omega _{5}\left( \pi _{2},\varkappa ,\alpha \right) . \end{eqnarray*}$

This is proved by İşcan in ^[31].

Corollary 3.9. In Theorem 3.5, if we set $\varphi (\sigma) = \frac{\sigma ^{\frac{\alpha }{k}}}{k\Gamma _{k}(\alpha)}$ , then we obtain the followingnew Ostrowski type inequality for $k$ -Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\left \vert \left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa } \right) ^{\frac{\alpha }{k}}+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa }\right) ^{\frac{\alpha }{k}}\right] \mathcal{F}\left( \varkappa \right) \right. \\ &&\left. +\Gamma _{k}\left( \alpha +k\right) \left[ \; _{\frac{1}{\varkappa } +}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}} \right) +\; _{\frac{1}{\varkappa }-}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] \right \vert \\ &\leq &\frac{\left( \varkappa -\pi _{1}\right) ^{\frac{\alpha +k}{k}}}{ \left( \pi _{1}\varkappa \right) ^{\frac{\alpha -k}{k}}}\Omega _{1}^{1-\frac{ 1}{q}}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) \left( \Omega _{3}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) \left \vert \mathcal{F }^{\prime }\left( \varkappa \right) \right \vert ^{q}+\Omega _{4}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) \left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}\right) ^{\frac{1}{q}} \\ &&+\frac{\left( \pi _{2}-\varkappa \right) ^{\frac{\alpha +k}{k}}}{\left( \pi _{2}\varkappa \right) ^{\frac{\alpha -k}{k}}}\Omega _{2}^{1-\frac{1}{q} }\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) \left( \Omega _{5}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) \left \vert \mathcal{F }^{\prime }\left( \varkappa \right) \right \vert ^{q}+\Omega _{6}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) \left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}\right) ^{\frac{1}{q}}, \end{eqnarray*}$

where

$\begin{eqnarray*} \Omega _{1}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) & = &\varkappa ^{-2}\; _{2}F_{1}\left( 2,\frac{\alpha }{k}+1;\frac{\alpha }{k}+2;1-\frac{\pi _{1}}{\varkappa }\right) , \\ \Omega _{2}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) & = &\pi _{2}^{-2}\; _{2}F_{1}\left( 2,1;\frac{\alpha }{k}+2;1-\frac{\varkappa }{\pi _{2}}\right) \\ \Omega _{3}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) & = &\frac{ \beta \left( \frac{\alpha }{k}+2,1\right) }{\varkappa ^{2}}\; _{2}F_{1}\left( 2,\frac{\alpha }{k}+2;\frac{\alpha }{k}+3;1-\frac{\pi _{1}}{\varkappa } \right) , \\ \Omega _{4}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) & = &\Omega _{1}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) -\Omega _{3}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) , \\ \Omega _{5}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) & = &\frac{ \beta \left( 1,\frac{\alpha }{k}+2\right) }{\pi _{2}^{2}}\; _{2}F_{1}\left( 2,1;\frac{\alpha }{k}+3;1-\frac{\varkappa }{\pi _{2}}\right) , \\ \Omega _{6}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) & = &\Omega _{2}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) -\Omega _{5}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) . \end{eqnarray*}$

Theorem 3.10. We assume that the conditions of Lemma 3.1 are valid $.$ If $\left \vert \mathcal{F}^{^{\prime }}\right \vert ^{q}$ is harmonicallyconvex on $[\pi _{1}, \pi _{2}]$ for some $q > 1$ , then the followinginequality holds for the generalized fractional integrals:

where $\frac{1}{p}+\frac{1}{q} = 1$ and

$\begin{eqnarray*} \Theta _{7} & = &\int_{0}^{1}\left( \frac{\Delta \left( \sigma \right) }{ \left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}} \right) ^{p}d\sigma , \\ \Theta _{8} & = &\int_{0}^{1}\left( \frac{\Lambda \left( \sigma \right) }{ \left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}} \right) ^{p}d\sigma . \end{eqnarray*}$

Proof. From Lemma 3.1 and applying well-known Hölder's inequality, we have

$\begin{eqnarray*} &&\left \vert (\Delta \left( 1\right) +\Lambda (1))\mathcal{F}\left( \varkappa \right) -\left[ \; _{\frac{1}{\varkappa }+}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}}\right) +\; _{\frac{1}{ \varkappa }-}I_{\varphi }\left( \mathcal{F}\circ g\right) \left( \frac{1}{ \pi _{2}}\right) \right] \right \vert \\ &\leq &\pi _{1}\varkappa \left( \varkappa -\pi _{1}\right) \int_{0}^{1}\frac{ \Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{ \pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa } \right) \right \vert d\sigma \\ &&+\pi _{2}\varkappa \left( \pi _{2}-\varkappa \right) \int_{0}^{1}\frac{ \Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\left \vert \mathcal{F}^{\prime }\left( \frac{ \pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa } \right) \right \vert d\sigma \\ &\leq &\pi _{1}\varkappa \left( \varkappa -\pi _{1}\right) \left( \int_{0}^{1}\left( \frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\right) ^{p}d\sigma \right) ^{\frac{1}{p}}\left( \int_{0}^{1}\left \vert \mathcal{F}^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1}{q}} \\ &&+\pi _{2}\varkappa \left( \pi _{2}-\varkappa \right) \left( \int_{0}^{1}\left( \frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\right) ^{p}d\sigma \right) ^{\frac{1}{p}}\left( \int_{0}^{1}\left \vert \mathcal{F}^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1}{q}}. \end{eqnarray*}$

Now from harmonically convexity of $\left \vert \mathcal{F}^{\prime }\right \vert ^{q}$ , we have

$\begin{eqnarray*} &&\left( \int_{0}^{1}\left( \frac{\Delta \left( \sigma \right) }{\left( \sigma \pi _{1}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\right) ^{p}d\sigma \right) ^{\frac{1}{p}}\left( \int_{0}^{1}\left \vert \mathcal{F} ^{\prime }\left( \frac{\pi _{1}\varkappa }{\sigma \pi _{1}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1}{q}} \\ &\leq &\Theta _{7}^{\frac{1}{p}}\left( \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}\int_{0}^{1}\sigma d\sigma +\left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}\int_{0}^{1}\left( 1-\sigma \right) d\sigma \right) ^{\frac{1}{q}} \\ & = &\Theta _{7}^{\frac{1}{p}}\left( \frac{\left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}}{2}\right) ^{\frac{1}{q}}. \end{eqnarray*}$

and

$\begin{eqnarray*} &&\left( \int_{0}^{1}\left( \frac{\Lambda \left( \sigma \right) }{\left( \sigma \pi _{2}+\left( 1-\sigma \right) \varkappa \right) ^{2}}\right) ^{p}d\sigma \right) ^{\frac{1}{p}}\left( \int_{0}^{1}\left \vert \mathcal{F} ^{\prime }\left( \frac{\pi _{2}\varkappa }{\sigma \pi _{2}+\left( 1-\sigma \right) \varkappa }\right) \right \vert ^{q}d\sigma \right) ^{\frac{1}{q}} \\ &\leq &\Theta _{8}^{\frac{1}{p}}\left( \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}\int_{0}^{1}\sigma d\sigma +\left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}\int_{0}^{1}\left( 1-\sigma \right) d\sigma \right) ^{\frac{1}{q}} \\ & = &\Theta _{8}^{\frac{1}{p}}\left( \frac{\left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}}{2}\right) ^{\frac{1}{q}}. \end{eqnarray*}$

Thus, the proof is completed.

Remark 3.11. In Theorem 3.10, if we set $\varphi \left(\sigma \right) = \sigma$ , then we obtain the following Ostrowski type inequality:

$\begin{eqnarray*} &&\left \vert \mathcal{F}\left( \varkappa \right) -\frac{\pi _{1}\pi _{2}}{ \pi _{2}-\pi _{1}}\int_{\pi _{1}}^{\pi _{2}}\frac{\mathcal{F}\left( u\right) }{u^{2}}du\right \vert \\ &\leq &\frac{\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\left \{ \left( \chi _{2}^{\ast }\left( \pi _{1},\varkappa ,\upsilon ,\mu \right) \right) ^{\frac{ 1}{p}}\left( \varkappa -\pi _{1}\right) ^{2}\left( \frac{\left \vert \mathcal{ F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F} ^{\prime }\left( \pi _{1}\right) \right \vert ^{q}}{2}\right) ^{\frac{1}{q} }\right. \\ &&\left. +\left( \chi _{4}^{\ast }\left( \pi _{2},\varkappa ,\upsilon ,\mu \right) \right) ^{\frac{1}{p}}\left( \pi _{2}-\varkappa \right) ^{2}\left( \frac{\left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q} }{2}\right) ^{\frac{1}{q}}\right \} , \end{eqnarray*}$

where

$\begin{eqnarray*} \chi _{2}^{\ast }\left( \pi _{1},\varkappa ,\upsilon ,\mu \right) & = &\frac{ \beta \left( \mu +1,1\right) }{\varkappa ^{2\upsilon }}\; _{2}F_{1}\left( 2\upsilon ,\mu +1;\mu +2;1-\frac{\pi _{1}}{\varkappa }\right) , \\ \chi _{4}^{\ast }\left( \pi _{2},\varkappa ,\upsilon ,\mu \right) & = &\frac{ \beta \left( 1,\mu +1\right) }{\pi _{2}^{2\upsilon }}\; _{2}F_{1}\left( 2\upsilon ,1;\mu +2;1-\frac{\varkappa }{\pi _{2}}\right) . \end{eqnarray*}$

This is proved by İşcan in [,Theorem 2.6 for $s = 1$ ].

Corollary 3.12. In Theorem 3.5, if we set $\left \vert \mathcal{F}^{\prime}\left(\varkappa \right) \right \vert \leq M$ , $\varkappa \in \left[ \pi_{1}, \pi _{2}\right],$ then we obtain the following Ostrowski typeinequality for generalized fractional integrals:

Remark 3.13. In Theorem 3.10, if we set $\varphi \left(\sigma \right) = \frac{\sigma ^{\alpha }}{\Gamma \left(\alpha \right) }$ , then we obtain the following Ostrowski type inequalities for Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\left \vert \left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa } \right) ^{\alpha }+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa } \right) ^{\alpha }\right] \mathcal{F}\left( \varkappa \right) \right. \\ &&\left. +\Gamma \left( \alpha +1\right) \left[ \; _{\frac{1}{\varkappa } +}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}} \right) +\; _{\frac{1}{\varkappa }-}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] \right \vert \\ &\leq &\frac{\left( \varkappa -\pi _{1}\right) ^{\alpha +1}}{\left( \pi _{1}\varkappa \right) ^{\alpha -1}}\Omega _{7}^{\frac{1}{p}}\left( \pi _{1},\varkappa ,\alpha ,p\right) \left( \frac{\left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q}}{2}\right) ^{\frac{1}{q}} \\ &&+\frac{\left( \pi _{2}-\varkappa \right) ^{\alpha +1}}{\left( \pi _{2}\varkappa \right) ^{\alpha -1}}\Omega _{7}^{\frac{1}{p}}\left( \pi _{2},\varkappa ,\alpha ,p\right) \left( \frac{\left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q}}{2}\right) ^{\frac{1}{q}}, \end{eqnarray*}$

where

$\begin{equation*} \Omega _{7}\left( \upsilon ,\varkappa ,\alpha ,p\right) = \frac{\varkappa ^{-2}}{\alpha p+1}\; _{2}F_{1}\left( 2p,\alpha p+1;\alpha p+2;1-\frac{\upsilon }{\varkappa }\right) . \end{equation*}$

This is proved by İşcan in ^[31].

Corollary 3.14. In Theorem 3.5, if we set $\varphi (\sigma) = \frac{\sigma ^{\frac{\alpha }{k}}}{k\Gamma _{k}(\alpha)}$ , then we obtain the followingnew Ostrowski type inequality for $k$ -Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\left \vert \left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa } \right) ^{\frac{\alpha }{k}}+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa }\right) ^{\frac{\alpha }{k}}\right] \mathcal{F}\left( \varkappa \right) \right. \\ &&\left. +\Gamma _{k}\left( \alpha +k\right) \left[ \; _{\frac{1}{\varkappa } +}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}} \right) +\; _{\frac{1}{\varkappa }-}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] \right \vert \\ &\leq &\frac{\left( \varkappa -\pi _{1}\right) ^{\frac{\alpha +k}{k}}}{ \left( \pi _{1}\varkappa \right) ^{\frac{\alpha -k}{k}}}\Omega _{7}^{\frac{1 }{p}}\left( \pi _{1},\varkappa ,\frac{\alpha }{k},p\right) \left( \frac{ \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F}^{\prime }\left( \pi _{1}\right) \right \vert ^{q} }{2}\right) ^{\frac{1}{q}} \\ &&+\frac{\left( \pi _{2}-\varkappa \right) ^{\frac{\alpha +k}{k}}}{\left( \pi _{2}\varkappa \right) ^{\frac{\alpha -k}{k}}}\Omega _{7}^{\frac{1}{p} }\left( \pi _{2},\varkappa ,\frac{\alpha }{k},p\right) \left( \frac{ \left \vert \mathcal{F}^{\prime }\left( \varkappa \right) \right \vert ^{q}+\left \vert \mathcal{F}^{\prime }\left( \pi _{2}\right) \right \vert ^{q} }{2}\right) ^{\frac{1}{q}}, \end{eqnarray*}$

where

$\begin{equation*} \Omega _{7}\left( \upsilon ,\varkappa ,\frac{\alpha }{k},p\right) = \frac{ k\varkappa ^{-2}}{\alpha p+k}\; _{2}F_{1}\left( 2p,\frac{\alpha p+k}{k};\frac{ \alpha p+2k}{k};1-\frac{\upsilon }{\varkappa }\right) . \end{equation*}$

4. Some special cases

In this section, we discuss more special cases of the results proved in the last section.

Remark 4.1. In Corollary 3.7, if we set $\varphi \left(\sigma \right) = \sigma$ , then we obtain the following Ostrowski type inequality:

$\begin{eqnarray} &&\left \vert \mathcal{F}\left( \varkappa \right) -\frac{\pi _{1}\pi _{2}}{ \pi _{2}-\pi _{1}}\int_{\pi _{1}}^{\pi _{2}}\frac{\mathcal{F}\left( u\right) }{u^{2}}du\right \vert \\ &\leq &\frac{M\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\left \{ \chi _{1}^{1-\frac{ 1}{q}}\left( \pi _{1},\varkappa \right) \left( \varkappa -\pi _{1}\right) ^{2}\left( \chi _{2}\left( \pi _{1},\varkappa ,1,1\right) +\chi _{3}\left( \pi _{1},\varkappa ,1,1\right) \right) ^{\frac{1}{q}}\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\varkappa \right) \left( \pi _{2}-\varkappa \right) ^{2}\left( \chi _{4}\left( \pi _{2},\varkappa ,1,1\right) +\chi _{5}\left( \pi _{2},\varkappa ,1,1\right) \right) ^{\frac{1 }{q}}\right \} . \end{eqnarray}$

(4.1)

This is proved by İşcan in [,Corollary 2.3 for $s = 1$ ].

Remark 4.2. In Corollary 3.7, if we set $\varphi (\sigma) = \frac{\sigma ^{\alpha } }{\Gamma (\alpha)}$ , then we obtain the following Ostrowski type inequality for Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\left \vert \left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa } \right) ^{\alpha }+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa } \right) ^{\alpha }\right] \mathcal{F}\left( \varkappa \right) \right. \\ &&\left. +\Gamma \left( \alpha +1\right) \left[ \; _{\frac{1}{\varkappa } +}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}} \right) +\; _{\frac{1}{\varkappa }-}J^{\alpha }\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] \right \vert \\ &\leq &M\left[ \frac{\left( \varkappa -\pi _{1}\right) ^{\alpha +1}}{\left( \pi _{1}\varkappa \right) ^{\alpha -1}}\Omega _{1}^{1-\frac{1}{q}}\left( \pi _{1},\varkappa ,\alpha \right) \left( \Omega _{3}\left( \pi _{1},\varkappa ,\alpha \right) +\Omega _{4}\left( \pi _{1},\varkappa ,\alpha \right) \right) ^{\frac{1}{q}}\right. \\ &&\left. +\frac{\left( \pi _{2}-\varkappa \right) ^{\alpha +1}}{\left( \pi _{2}\varkappa \right) ^{\alpha -1}}\Omega _{2}^{1-\frac{1}{q}}\left( \pi _{2},\varkappa ,\alpha \right) \left( \Omega _{5}\left( \pi _{2},\varkappa ,\alpha \right) +\Omega _{6}\left( \pi _{2},\varkappa ,\alpha \right) \right) ^{\frac{1}{q}}\right] . \end{eqnarray*}$

This is proved by İşcan in ^[31].

Remark 4.3. In Corollary 3.7, if we set $\varphi (\sigma) = \frac{\sigma ^{\frac{ \alpha }{k}}}{k\Gamma _{k}(\alpha)}$ , then we obtain the following new Ostrowski type inequality for $k$ -Riemann-Liouville fractional integrals:

$\begin{eqnarray*} &&\left \vert \left[ \left( \frac{\varkappa -\pi _{1}}{\pi _{1}\varkappa } \right) ^{\frac{\alpha }{k}}+\left( \frac{\pi _{2}-\varkappa }{\pi _{2}\varkappa }\right) ^{\frac{\alpha }{k}}\right] \mathcal{F}\left( \varkappa \right) \right. \\ &&\left. +\Gamma _{k}\left( \alpha +k\right) \left[ \; _{\frac{1}{\varkappa } +}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{1}} \right) +\; _{\frac{1}{\varkappa }-}J^{\alpha ,k}\left( \mathcal{F}\circ g\right) \left( \frac{1}{\pi _{2}}\right) \right] \right \vert \\ &\leq &M\left[ \frac{\left( \varkappa -\pi _{1}\right) ^{\frac{\alpha +k}{k}} }{\left( \pi _{1}\varkappa \right) ^{\frac{\alpha -k}{k}}}\Omega _{1}^{1- \frac{1}{q}}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) \left( \Omega _{3}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) +\Omega _{4}\left( \pi _{1},\varkappa ,\frac{\alpha }{k}\right) \right) ^{\frac{1}{q} }\right. \\ &&\left. +\frac{\left( \pi _{2}-\varkappa \right) ^{\frac{\alpha +k}{k}}}{ \left( \pi _{2}\varkappa \right) ^{\frac{\alpha -k}{k}}}\Omega _{2}^{1-\frac{ 1}{q}}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) \left( \Omega _{5}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) +\Omega _{6}\left( \pi _{2},\varkappa ,\frac{\alpha }{k}\right) \right) ^{\frac{1}{q}}\right] . \end{eqnarray*}$

Remark 4.4. In Corollary 3.12, if we set $\varphi \left(\sigma \right) = \sigma$ , then we obtain the following Ostrowski type inequality:

$\begin{eqnarray} &&\left \vert \mathcal{F}\left( \varkappa \right) -\frac{\pi _{1}\pi _{2}}{ \pi _{2}-\pi _{1}}\int_{\pi _{1}}^{\pi _{2}}\frac{\mathcal{F}\left( u\right) }{u^{2}}du\right \vert \\ &\leq &\frac{M\pi _{1}\pi _{2}}{\pi _{2}-\pi _{1}}\left \{ \left( \chi _{2}^{\ast }\left( \pi _{1},\varkappa ,\upsilon ,\mu \right) \right) ^{\frac{ 1}{p}}\left( \varkappa -\pi _{1}\right) ^{2}+\left( \chi _{4}^{\ast }\left( \pi _{2},\varkappa ,\upsilon ,\mu \right) \right) ^{\frac{1}{p}}\left( \pi _{2}-\varkappa \right) ^{2}\right \} . \end{eqnarray}$

(4.2)

This is proved by İşcan in [,Corollary 2.5 for $s = 1$ ].

Remark 4.5. In Corollary 3.12, if we set $\varphi (\sigma) = \frac{\sigma ^{\alpha } }{\Gamma (\alpha)}$ , then we obtain the following Ostrowski type inequality for Riemann-Liouville fractional integrals:

This is proved by İşcan in ^[31].

Remark 4.6. In Corollary 3.12, if we set $\varphi (\sigma) = \frac{\sigma ^{\frac{ \alpha }{k}}}{k\Gamma _{k}(\alpha)}$ , then we obtain the following new Ostrowski type inequality for $k$ -Riemann-Liouville fractional integrals:

Remark 4.7. If we set $q = 1$ in Theorem 3.5 and Corollaries 3.7–3.14, then we obtain some new Ostrowski type inequlities for the harmonically convexity of $\left \vert \mathcal{F}^{\prime }\right \vert.$ Moreover, for different choices of $\varphi$ in the generalized fractional integrals, one can obtain several Ostrowski type inequalities via Katugampola fractional integrals, conformable fractional integral, Hadamard fractional integrals, etc.

5. Applications to special means

For arbitrary positive numbers $\; \pi _{1}, \; \pi _{2} \; (\; \pi _{1}\neq \; \pi _{2})$ , we consider the means as follows:

(1) The arithmatic mean

$\begin{equation*} \mathcal{A = A}(\; \pi _{1},\; \pi _{2}) = \frac{\; \pi _{1}+\; \pi _{2}}{2}. \end{equation*}$

(2) The geometric mean

$\begin{equation*} \mathcal{G = G}\left( \; \pi _{1},\; \pi _{2}\right) = \sqrt{\; \pi _{1}\; \pi _{2}}. \end{equation*}$

(3) The harmonic means

$\begin{equation*} \mathcal{H = H}\left( \; \pi _{1},\; \pi _{2}\right) = \frac{2\; \pi _{1}\; \pi _{2}}{ \; \pi _{1}+\; \pi _{2}}. \end{equation*}$

(4) The logarithmic mean

$\begin{equation*} \mathcal{L = L}\left( \; \pi _{1},\; \pi _{2}\right) = \frac{\; \pi _{2}-\; \pi _{1}}{ \ln \; \pi _{2}-\ln \; \pi _{1}}. \end{equation*}$

(5) The generalize logarithmic mean

$\begin{equation*} \mathcal{L}_{p} = \mathcal{L}_{p}\left( \; \pi _{1},\; \pi _{2}\right) = \left[ \frac{\; \pi _{2}-\; \pi _{1}}{\left( \; \pi _{2}-\; \pi _{1}\right) \left( p+1\right) }\right] ^{\frac{1}{p}},\; p\in \mathbb{R} \backslash \left \{ -1,0\right \} . \end{equation*}$

(6) The identric mean

$\begin{equation*} \mathcal{I = I}\left( \; \pi _{1},\; \pi _{2}\right) = \left \{ \begin{array}{c} \frac{1}{e}\left( \frac{\; \pi _{2}}{\; \pi _{1}}\right) ^{\frac{1}{\; \pi _{2}-\; \pi _{1}}},\text{ if }\; \pi _{1}\neq \; \pi _{2}, \\ \; \pi _{1},{ \ \ \ \ \ \ \ \ \ \ \ \ \ \text{ if } }\; \pi _{1} = \; \pi _{2}, \end{array} \right. \; \pi _{1},\; \pi _{2} > 0. \end{equation*}$

These means are often employed in numerical approximations and other fields. However, the following straightforward relationship has been stated in the literature.

$\begin{equation*} \mathcal{H\leq G\leq L\leq I\leq A}. \end{equation*}$

Proposition 5.1. For $\pi _{1}, \pi _{2}\in \left(0, \infty \right)$ with $\pi _{1} < \pi _{2}$ , then the following inequality holds:

$\begin{eqnarray*} &&\left \vert \mathcal{A}\left( \pi _{1},\pi _{2}\right) -\frac{\mathcal{G} ^{2}\left( \pi _{1},\pi _{2}\right) }{\mathcal{L}\left( \pi _{1},\pi _{2}\right) }\right \vert \\ &\leq &\frac{M\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) \left( \pi _{2}-\pi _{1}\right) }{4} \\ &&\times \left \{ \chi _{1}^{1-\frac{1}{q}}\left( \pi _{1},\mathcal{A}\left( \pi _{1},\pi _{2}\right) \right) \left( \chi _{2}\left( \pi _{1},\mathcal{A} \left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{3}\left( \pi _{1}, \mathcal{A}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q} }\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\mathcal{A}\left( \pi _{1},\pi _{2}\right) \right) \left( \chi _{4}\left( \pi _{2},\mathcal{A} \left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{5}\left( \pi _{2}, \mathcal{A}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q} }\right \} . \end{eqnarray*}$

Proof. The inequality (4.1) with $\varkappa = \frac{\pi _{1}+\pi _{2}}{2}$ for mapping $\mathcal{F}:\left(0, \infty \right) \rightarrow \mathbb{R}$ , $\mathcal{F}\left(\varkappa \right) = \varkappa$ leads to this conclusion.

Proposition 5.2. For $\pi _{1}, \pi _{2}\in \left(0, \infty \right)$ with $\pi _{1} < \pi _{2}$ , then the following inequality holds:

$\begin{eqnarray*} &&\left \vert \mathcal{H}\left( \pi _{1},\pi _{2}\right) -\frac{\mathcal{G} ^{2}\left( \pi _{1},\pi _{2}\right) }{\mathcal{L}\left( \pi _{1},\pi _{2}\right) }\right \vert \\ &\leq &\frac{M\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) }{\pi _{2}-\pi _{1}} \\ &&\times \left \{ \chi _{1}^{1-\frac{1}{q}}\left( \pi _{1},\mathcal{H}\left( \pi _{1},\pi _{2}\right) \right) \left( \frac{\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) -\pi _{1}^{2}}{2\mathcal{A}\left( \pi _{1},\pi _{2}\right) }\right) ^{2}\left( \chi _{2}\left( \pi _{1},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{3}\left( \pi _{1},\mathcal{H} \left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q}}\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) \right) \left( \frac{\pi _{2}^{2}-\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) }{2\mathcal{A}\left( \pi _{1},\pi _{2}\right) } \right) ^{2}\left( \chi _{4}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{5}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q}}\right \} . \end{eqnarray*}$

Proof. The inequality (4.1) with $\varkappa = \frac{2\pi _{1}\pi _{2}}{\pi _{1}+\pi _{2}}$ for mapping $\mathcal{F}:\left(0, \infty \right) \rightarrow \mathbb{R}$ , $\mathcal{F}\left(\varkappa \right) = \varkappa$ leads to this conclusion.

Proposition 5.3. For $\pi _{1}, \pi _{2}\in \left(0, \infty \right)$ with $\pi _{1} < \pi _{2}$ , then the following inequality holds:

$\begin{eqnarray*} &&\left \vert \mathcal{A}^{p+2}\left( \pi _{1},\pi _{2}\right) -\mathcal{G} ^{2}\left( \; \pi _{1},\; \pi _{2}\right) \mathcal{L}_{p}^{p}\left( \; \pi _{1},\; \pi _{2}\right) \right \vert \\ &\leq &\frac{M\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) \left( \pi _{2}-\pi _{1}\right) }{4} \\ &&\times \left \{ \chi _{1}^{1-\frac{1}{q}}\left( \pi _{1},\mathcal{A}\left( \pi _{1},\pi _{2}\right) \right) \left( \chi _{2}\left( \pi _{1},\mathcal{A} \left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{3}\left( \pi _{1}, \mathcal{A}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q} }\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\mathcal{A}\left( \pi _{1},\pi _{2}\right) \right) \left( \chi _{4}\left( \pi _{2},\mathcal{A} \left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{5}\left( \pi _{2}, \mathcal{A}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q} }\right \} . \end{eqnarray*}$

Proposition 5.4. For $\pi _{1}, \pi _{2}\in \left(0, \infty \right)$ with $\pi _{1} < \pi _{2}$ , then the following inequality holds:

$\begin{eqnarray*} &&\left \vert \mathcal{H}^{p+2}\left( \pi _{1},\pi _{2}\right) -\mathcal{G} ^{2}\left( \; \pi _{1},\; \pi _{2}\right) \mathcal{L}_{p}^{p}\left( \; \pi _{1},\; \pi _{2}\right) \right \vert \\ &\leq &\frac{M\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) }{\pi _{2}-\pi _{1}} \\ &&\times \left \{ \chi _{1}^{1-\frac{1}{q}}\left( \pi _{1},\mathcal{H}\left( \pi _{1},\pi _{2}\right) \right) \left( \frac{\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) -\pi _{1}^{2}}{2\mathcal{A}\left( \pi _{1},\pi _{2}\right) }\right) ^{2}\left( \chi _{2}\left( \pi _{1},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{3}\left( \pi _{1},\mathcal{H} \left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q}}\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) \right) \left( \frac{\pi _{2}^{2}-\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) }{2\mathcal{A}\left( \pi _{1},\pi _{2}\right) } \right) ^{2}\left( \chi _{4}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{5}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q}}\right \} . \end{eqnarray*}$

Proposition 5.5. For $\pi _{1}, \pi _{2}\in \left(0, \infty \right)$ with $\pi _{1} < \pi _{2}$ , then the following inequality holds:

$\begin{eqnarray*} &&\left \vert \mathcal{A}^{2}\left( \; \pi _{1},\; \pi _{2}\right) \ln \left( \mathcal{A}\left( \; \pi _{1},\; \pi _{2}\right) \right) -\mathcal{G}^{2}\left( \; \pi _{1},\; \pi _{2}\right) \ln \left( \mathcal{I}\left( \; \pi _{1},\; \pi _{2}\right) \right) \right \vert \\ &\leq &\frac{M\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) \left( \pi _{2}-\pi _{1}\right) }{4} \\ &&\times \left \{ \chi _{1}^{1-\frac{1}{q}}\left( \pi _{1},\mathcal{A}\left( \pi _{1},\pi _{2}\right) \right) \left( \chi _{2}\left( \pi _{1},\mathcal{A} \left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{3}\left( \pi _{1}, \mathcal{A}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q} }\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\mathcal{A}\left( \pi _{1},\pi _{2}\right) \right) \left( \chi _{4}\left( \pi _{2},\mathcal{A} \left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{5}\left( \pi _{2}, \mathcal{A}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q} }\right \} . \end{eqnarray*}$

Proposition 5.6. For $\pi _{1}, \pi _{2}\in \left(0, \infty \right)$ with $\pi _{1} < \pi _{2}$ , then the following inequality holds:

$\begin{eqnarray*} &&\left \vert \mathcal{H}^{2}\left( \; \pi _{1},\; \pi _{2}\right) \ln \left( \mathcal{H}\left( \; \pi _{1},\; \pi _{2}\right) \right) -\mathcal{G}^{2}\left( \; \pi _{1},\; \pi _{2}\right) \ln \left( \mathcal{I}\left( \; \pi _{1},\; \pi _{2}\right) \right) \right \vert \\ &\leq &\frac{M\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) }{\pi _{2}-\pi _{1}} \\ &&\times \left \{ \chi _{1}^{1-\frac{1}{q}}\left( \pi _{1},\mathcal{H}\left( \pi _{1},\pi _{2}\right) \right) \left( \frac{\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) -\pi _{1}^{2}}{2\mathcal{A}\left( \pi _{1},\pi _{2}\right) }\right) ^{2}\left( \chi _{2}\left( \pi _{1},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{3}\left( \pi _{1},\mathcal{H} \left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q}}\right. \\ &&\left. +\chi _{1}^{1-\frac{1}{q}}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) \right) \left( \frac{\pi _{2}^{2}-\mathcal{G}^{2}\left( \pi _{1},\pi _{2}\right) }{2\mathcal{A}\left( \pi _{1},\pi _{2}\right) } \right) ^{2}\left( \chi _{4}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) +\chi _{5}\left( \pi _{2},\mathcal{H}\left( \pi _{1},\pi _{2}\right) ,1,1\right) \right) ^{\frac{1}{q}}\right \} . \end{eqnarray*}$

Conclusions

In this paper, we have proved several new Ostrowski type inequalities for differentiable harmonically convex functions via the generalized fractional integrals. Moreover, we have proved that the established inequalities are the extensions of some existing inequalities in the literature. It is an interesting and new problem that the upcoming researchers can offer similar inequalities for different type of harmonically and co-ordinated harmonically convexity.

Acknowledgments

This research was funded by King Mongkut's University of Technology North Bangkok. Contract No. KMUTNB-63-KNOW-22.

Conflict of interest

The authors declare no conflict of interest.

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