TITLE: 
                        
                            MHD Effects on Mixed Convective Nanofluid Flow with Viscous Dissipation in Surrounding Porous Medium
                                
                                
                                    AUTHORS: 
                                            Md. Nasir Uddin, Md. Abdul Alim, Md. Mustafizur Rahman 
                                                    
                                                        KEYWORDS: 
                        MHD, Mixed Convection, Nanofluid, Porous Medium, Viscous Dissipation 
                                                    
                                                    
                                                        JOURNAL NAME: 
                        Journal of Applied Mathematics and Physics,  
                        Vol.7 No.4, 
                        April
                                                        29,
                        2019
                                                    
                                                    
                                                        ABSTRACT: 
	In existence of concerning magnetic
field, heat together with mass transfer features on mixed convective
copper-water nanofluid flow through inclined plate is investigated in
surrounding porous medium together with viscous dissipation. A proper set of
useful similarity transforms is considered as to transform the desired
governing equations into a system as ordinary differential equations which are
nonlinear. The transformed equations for nanofluid flow include interrelated boundary
conditions which are resolved numerically applying Runge-Kutta integration
process of sixth-order together with Nachtsheim and Swigert technique. The
numerical consequences are compared together with literature which was
published previously and acceptable comparisons are found. The influence of
significant parameters like as magnetic parameter, angle for inclination,
Eckert number, fluid suction parameter, nanoparticles volume fraction, Schmidt
number and permeability parameter on concerning velocity, temperature along
with concentration boundary layers remains examined and calculated. Numerical consequences are presented
graphically. Moreover, the impact regarding these physical parameters for
engineering significance in expressions of local skin friction coefficient in
addition to local Nusselt together with Sherwood numbers is correspondingly
examined.