Advances in Mathematical Physics
Volume 2021 (2021), Article ID 5546701, 11 pages
https://doi.org/10.1155/2021/5546701

Research Article

Study of Magnetohydrodynamic Pulsatile Blood Flow through an Inclined Porous Cylindrical Tube with Generalized Time-Nonlocal Shear Stress

Nehad Ali Shah,1,2 A. Al-Zubaidi,³ and S. Saleem³

¹Informetrics Research Group, Ton Duc Thang University, Ho Chi Minh City, Vietnam
²Faculty of Mathematics & Statistics, Ton Duc Thang University, Ho Chi Minh City, Vietnam
³Department of Mathematics, College of Science, King Khalid University, Abha 61413, Saudi Arabia

Correspondence should be addressed to Nehad Ali Shah; nehadali199@yahoo.com

Received 29 January 2021; Revised 23 April 2021; Accepted 6 May 2021; Published 18 May 2021

Academic Editor: Mustafa Inc

Copyright © 2021 Nehad Ali Shah et al. This is an open access article distributed under the Creative Commons Attribution License, which permits unrestricted use, distribution, and reproduction in any medium, provided the original work is properly cited.

Abstract.

The effects of pulsatile pressure gradient in the presence of a transverse magnetic field on unsteady blood flow through an inclined tapered cylindrical tube of porous medium are discussed in this article. The fractional calculus technique is used to provide a mathematical model of blood flow with fractional derivatives. The solution of the governing equations is found using integral transformations (Laplace and finite Hankel transforms). For the semianalytical solution, the inverse Laplace transform is found by means of Stehfest’s and Tzou’s algorithms. The numerical calculations were performed by using Mathcad software. The flow is significantly affected by Hartmann number, inclination angle, fractional parameter, permeability parameter, and pulsatile pressure gradient frequency, according to the findings. It is deduced that there exists a significant difference in the velocity of the flow at higher time when the magnitude of Reynolds number is small and large.

1. Introduction

The flow of blood into arteries is important in medical research. Computational blood flow simulation across vessels is one tool for integrating and interpreting clinical results. Specific hemodynamic flows may be predicted, which helps in disease detection. By deciding the form and design of blood vessels, it can also aid in the development of instruments that mimic or alter them. Blood movement in multistenosis arteries affected by pulsatile pressure gradient is one of the most difficult problems of fluid dynamics and biophysics. In the analysis that was carried out by Hatami et al. [1], blood was considered as a third grade non-Newtonian fluid conveying gold nanoparticles through a hollow porous vessel, and it was revealed that increase in the magnitude of the MHD (megnotohydrodynamics) parameter corresponds to a decrease in the velocity profile. The transient fluid dynamic equations of blood flow through stenosis geometry considering the non-Newtonian viscosity of blood and both magnetization and Lorentz forces was studied by Amlimohamadi et al. [2]. They studied the real heart beating rate, the time-dependent inlet velocity alters, and the impact of the magnetic field on different heart cycles. In the presence of the external magnetic field, finite element simulation has been carried out by Alimohamadi and Imani [3] to invesigate the pulsatile blood flow through stenosed artery.

A simple theory that models the flow of a magnetohydrodynamic blood through pump can be found in Roberts [4], Korchevskii, and Marochnik [5] while an explicit scientific report on the influence of a magnetic field on blood flow, flow of blood in branched arteries, blood flow with periodic body acceleration, flow of blood in the collapsed of veins, impact of slip velocity factor on the flow of blood in the microcirculation, combined effects of curved boundary on the temperature distribution, metabolic heat production, and blood flow has been deliberated upon by [6–11]. Tzirtzilakis [12] investigated the mathematical model for blood flow in the presence of the magnetic field. In consistent with the principles of magnetohydrodynamics, ferrohydrodynamics, and by involving the electrical conductivity, Mekheimer [13] discussed the influence of the uniform magnetic field on the peristaltic blood flow model. A mathematical governing model of blood flow in narrow and stenosis arteries under the influence of the magnetic field is presented by Jain et al. [14]. A numerical study of blood flow in stenosis tube due to the magnetic field is studied by Varshney and Gaurav [15]. Many other papers discussed blood flow models in stenosed arteries [16–19].

The effect of the magnetic field on parameters of blood in presence of magnetic particle through a circular tube is given by Sharma et al. [20]. The two-phase blood flow through a circular tube with magnetic properties has been studied by Zafar et al. [21]. He found the comparison of the analytical and semianalytical solutions of the classical model. The exact solutions of the blood flow model with fractional derivatives along with magnetic nanoparticles in the cylindrical domain have been found by Shah et al. [22].

Flow across a porous medium has a wide range of industrial applications. Blood flow through several stenosed porous arteries under the influence of a transverse magnetic field has been studied by Sinha et al. [23]. Magnetohydrodynamic MHD blood flow through porous vessel has been carried out by Ramamurthy and Shanker [24]. The peristaltic non-Newtonian Maxwell fluid flow through porous tube has been introduced by Eldesoky and Mousa [25].

In bioengineering, peristaltic blood flow in an inclined medium is a useful model. As a result, numerous studies of peristaltic blood flow models have been published. Through introducing a computational investigation of unsteady pulsatile blood flow through porous artery medium see [26]. Some important recent contributions to the mentioned topic are referenced in [27–30]. Generally, a fractional derivative model is obtained from the ordinary model by interchanging the derivatives of integer order with noninteger order.

Fractional dynamical systems demonstrate promise in the study of fluid flow models. In architecture and manufacturing, the fractional calculus approach has been used to obtain a useful generalization of physical concepts. Many students are interested in using fractional dynamics to solve problems in classical dynamics. However, Riemann–Liouville and Caputo fractional derivatives are commonly used, and this generalization can be done by using different other fractional approaches/definitions [31, 32].

Many models used fractional calculus to solve fluid flow problems [33, 34]. In the year 2016, Shah et al. [22] used Caputo-Fabrizio derivative to obtain the exact solutions of pulsatile blood flow in a circular cylinder. In the study, Laplace and Hankel transform was successfully used to further solve the momentum and energy equation. In that study, the influence of MHD, porous medium, and inclined surface was ignored. Motivating by Shah et al. [28], we have obtained the analytic and semianalytical solutions of unsteady MHD blood flow through an inclined porous tube that has been studied in the presence of peristaltic pressure gradient. The analysis is made by employing Laplace transformation method, and some valuable predictions have been carried out from the study. For the semianalytic solution, the inverse Laplace transform has been calculated by using numerical package though Mathcad because the velocity expressions of Laplace transform are in the complex form of modified Bessel functions. Therefore, it is almost impossible to find inverse Laplace analytically. To show the accuracy of our obtained results of inverse Laplace transform, these results are compared with two other inverse Laplace transform numerical algorithms, named as Stehfest’s [35] and Tzou’s [36] algorithms. Finally, the effect of pertinent physical parameters is discussed in detail.

2. Formulation of the Problem

Consider an inclined tapered axisymmetric cylindrical tube of radius with an unsteady pulsatile blood flow in a porous medium.

Figure 1 shows how a fluid subjected to a uniform transverse magnetic field behaves in a perpendicular direction to the tube. The induced magnetic field as well as the external electric field is not taken into account. The cylindrical coordinate system is introduced with the -axis that lies along the center of the artery and transverse to it. The unsteady magneto hydrodynamic incompressible flow of blood through an inclined tapered artery defined by following governing equations:

where is the velocity vector of the fluid, is the fluid density, is the material time derivative, and is the external body force. Maxwell equations are written as

where is the magnetic permeability, is the current density, is the magnetic field, and is the electric field. The electric current density can be written by Ohm’s law as [37]

where is the electric conductivity. The electromagnetic force can be expressed as

where is the unit vector in the direction, and = is the velocity of the blood along the axis of the cylindrical tube. The governing equation of the motion for flow in cylindrical polar coordinates [20–22, 38] is given by

where the pressure gradient of the form as , and are amplitudes of pulsatile systolic or diastolic pressure gradient, and is the frequency of the pulse. The above model becomes also that we can write

Figure 1: Schematic diagram of the flow geometry.

The boundary conditions that must be satisfied by the blood on the wall of artery are following

Let us introduce the following dimensionless variables:

where is the characteristic velocity, and is the characteristic time. Using the above dimensionless variables and parameters and after dropping out the notation in Eqs. (6), (7), and (8), we obtain

where represents the Hartmann number, describe the Reynolds number, and is the inclination parameter.

In the following, we develop a fractional model in which the classical constitutive Eqs. (9) and (11) are generalized by using the constitutive shear stress equation

proposed by Scott-Blair [39]. The Caputo fractional derivative formula of order is defined as [40]

where denotes the Gamma function.

Using Eq. (12) in Eq. (10), we obtain

3. Analytical Solution

Taking Laplace transformation of Eq. (13), we obtain

Applying finite Hankel transform to Eq. (16) and using initial and boundary conditions in Eq. (12), we obtain

where is the finite Hankel transform of function and , is the positive roots of the equation , and being the Bessel function of the first kind and order zero.

Using the series formula , Eq. (17) can be written as

Applying inverse Laplace transform to Eq. (18), we obtain

here represents the convolution product and

is the generalized G–function of Lorenzo and Hartley [41].

Taking inverse Hankel transform of Eq. (19), we obtain

4. Semianalytical Solution

Taking Laplace transformation of Eq. (13), we obtain

By rearranging Eq. (22), we have

where .

The solution of above nonhomogeneous second order differential Eq. (23) by using the initial and boundary conditions (12) in the transform domain is written as

By writing in suitable and simple form, we can determine its inverse Laplace transform traditionally but Eq. (24) is in a complex form of the modified Bessel function, and it is not easy to use for some practical applications. Moreover, the numerical Laplace method is considerd as an effective tool in computing the fractional differential equations. Sheng et al. [42] reported that the numerical inverse Laplace transform algorithms are efficacious and reliable for fractional-order differential equations. Stehfest’s algorithm [31] successfully used by Tong et al. [43] and Jiang et al. [44]. Therefore, in this work, we apply the numerical algorithm of the inverse Laplace transform method to Eq. (24) and analyze the flow properties. Stehfest’s formula is defined as

where is a positive integer.

and denotes the integer value function or bracket function.

Tzou’s formula can be defined as

The numerical solutions of transformed Eq. (24) have been obtained by using algorithms (25) and (27), and results are presented in tables.

5. Numerical Results and Discussion

In this section, the analyses of physical parameters on the fluid flow are presented as Figures 2–6.

(a)

(b)

Figure 2: Profiles of dimensionless velocity for versus at for small and large values of time .

(a)

(b)

Figure 3: Profiles of dimensionless velocity for versus at for small and large values of time .

(a)

(b)

Figure 4: Profiles of dimensionless velocity for versus at for small and large values of time .

(a)

(b)

Figure 5: Profiles of dimensionless velocity for versus at for small and large values of time .

(a)

(b)

Figure 6: Profiles of dimensionless velocity for versus at for small and large values of time .

In Figure 2, we present the effect of the fractional parameter for different small and large values of time . From Figure 2(a), it is observed that for a small value of time, the ordinary fluid velocity is maximum than fractional fluid flow. While by increasing the value of time, the fluid flow velocity decreases. In Figure 2(b), the influence is opposite than Figure 2(a), for a large value of time. A further attempt was made to quantify the effect on the velocity profile by using the slope of linear regression through the data points as presented by Animasaun and Pop [45]. In between the artery (), the optimal effect is seen when the slope of regression line through the data in known velocity and the order of Caputo fractional derivatives is . When , a decrease in the velocity field is also noticed, and the rate is estimated using the same approach as . Due to the singular kernel of the fractional derivative for small values and large values of the time, the flow has opposite influence. It is worthy to note that the effects of fractional parameter as reported in this study complement that of ref. [46] in which heat transfer in the flow of a fractional viscous fluid over an infinite vertical plate with exponential heating using a fractional derivative with nonsingular kernel is deliberated upon. Consecutively, the effect of Reynolds number on the flow is presented in Figure 3, for small and large values of time. It is deduced that there exists a significant difference between the flow when and . At the initial time (), it is seen that the velocity of the flow increases with the order of Caputo fractional derivative when and , see Figure 3(a). It is worth pointing out that the maximum velocity field is obtained at larger values of Reynolds number. At larger values of time, it is interesting to reveal that a decrease in the velocity field is guaranteed, see Figure 3(b). When , the slope of regression line through the data in known velocity and the order of Caputo fractional derivatives is . However, when , the rate of decrease in the velocity field is quantified using the slope of regression line as .

The effect of the porous parameter is presented in Figure 4, for small and large values of time. For a small time, it is seen that the velocity increases due to an increase in the magnitude of the porous parameter . For large values of time, interesting results found that in the medium of the cylinder for fractional parameter less than 0.7 by increasing , the velocity increases on the other hand, and for fractional parameter greater than 0.7 by increasing , the velocity decreases. Figure 5 reveals the influence of Hartman number . It is observed that by increasing the value of , the velocity of the fluid is found to be an increasing function when and a decreasing function when . Physically, the negligible increasing effect in the velocity field can be traced to the fact that the effects of Lorentz force have not been fully materialized at initial time. The effect of the inclination parameter is represented in Figure 6. It is clear from Figure 6(a) by increasing the value of the velocity increases by considering the small value of time . By increasing the value of time , the influence of is much more.

In Tables 1 and 2, we make a comparison between analytical solution in Eq. (21) with numerical algorithms, named as Stehfest’s [35] and Tzou’s [36] algorithms. It is found that the analytical solution in Eq. (21) is in a good agreement with Tzou’s algorithm.

Table 1: Comparison of two Laplace inverse numerical algorithms with analytical solution.

r
[Eq. (21)]
[Stehfest’s]
[Tzou’s]

0
0.684151
1.099209
0.827544
0.415058
0.143394

0.1
0.802388
1.096127
0.82701
0.293739
0.024621

0.2
0.747556
1.086239
0.824787
0.338683
0.077232

0.3
0.791451
1.06753
0.818938
0.276079
0.027487

0.4
0.74445
1.036351
0.805933
0.291901
0.061483

0.5
0.787414
0.986957
0.780184
0.199542
7.230026-3

0.6
0.734645
0.910795
0.733327
0.17615
1.318152-3

0.7
0.790328
0.79549
0.653183
5.161311e-3
0.137146

0.8
0.706713
0.623425
0.522325
0.083288
0.184388

0.9
0.767713
0.3698
0.316108
0.397913
0.451604

1
0

0
1.479346-7
0

Table 2: Effect of noninteger order of fractional parameter on the velocity field.

[Eq. (21)]
[Stehfest’s]
[Tzou’s]

0
0.659024
0.986618
0.769764
0.327593
0.11074

0.1
0.74445
1.036351
0.805933
0.291901
0.061483

0.2
0.814984
1.074099
0.831608
0.259115
0.016623

0.3
0.872347
1.102689
0.849336
0.230342
0.023011

0.4
0.918044
1.124687
0.861515
0.206643
0.056529

0.5
0.953435
1.142488
0.870428
0.189053
0.083007

0.6
0.979774
1.158389
0.878262
0.178615
0.101513

0.7
0.998231
1.174669
0.887155
0.176438
0.111077

0.8
1.009872
1.19366
0.899271
0.183787
0.110601

0.9
1.01565
1.217833
0.916927
0.202184
0.098723

1
1.016406
1.249903
0.942799
0.233496
0.073608

6. Conclusion

The effect of a uniform magnetic field on unsteady blood flow through a peristaltic pressure gradient in an inclined porous tube has been investigated. The solution was discovered using the Laplace transformation technique, and the analysis yielded some useful predictions. For the semianalytical solution, the inverse Laplace transform has been calculated by using numerical package though Mathcad, since the velocity expressions of Laplace transform are in the complex form of modified Bessel functions. Therefore, it is very difficult to find inverse Laplace analytically. To show the accuracy of our obtained result, the result was compared with two other inverse Laplace transform numerical algorithms, named as Stehfest’s [33] and Tzou’s [34] algorithms. The effects of pertinent physical parameters are discussed in detail. These are some main results of the study:

(1)For small values of time, the fractional parameter is inversely proportional to the velocity field, and it shows an opposite behavior for greater values of time(2)There exists a significant difference in the velocity of the flow at a higher time when the magnitude of Reynolds number is small and large(3)The effect of porous permeability and inclination is opposite to the velocity field as compared to the magnetic field. By increasing these parameters, the higher velocity field is ascertained(4)Hartman number has dual effects on the velocity of the flow due to the fact that the impact of Lorentz force at the initial time is infinitesimal(5)By comparing the analytical solution in Eq. (21) with numerical algorithms, named as Stehfest’s and Tzou’s algorithms, it is found that the analytical solution in Eq. (21) is in a good agreement with Tzou’s algorithm

Data Availability

The data used to support the findings of this study are available from the corresponding author upon request.

Conflicts of Interest

The authors declare that they have no conflicts of interest.

Acknowledgments

The authors extend their appreciation to the Deanship of Scientific Research at King Khalid University for funding this work through research group program under Grant No. RGP.1/324/42.

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