## 1 Introduction  
Two-dimensional boundary layer flow problems of nanofluid flow, heat and mass transmission over a stretched heated surface with magnatohydrodynamic effects have an abundant and extensive range of applications in various engineering and industrial disciplines. These include glass blowing, extrusion process, melt-spinning, design of heat exchangers, wire and fiber coating, glass fiber production, manufacturing of plastic and rubber sheets, etc. Magneto hydrodynamics is the knowledge of magnetic assets of electrically conducting fluids. Plasmas, salt water, electrolytes and liquid metals are examples of such magneto fluids. [PERSON] [1] pioneered the field of Magnetohydrodynamic (MHD). Magnetohydrodynamics have numerous practical usages in the field of engineering and technology, such as crystal growth, liquid-metal cooling of reactors, plasma, magnetohydrodynamic sensors, electromagnetic casting, MHD power generation and magnetic drug targeting. Magnetohydrodynamic depend upon the strength of the magnetic inductions. Eccentric features of nanofluids make them proficient in various applications. Nanofluids are used in pharmaceutical procedures, hybrid powered engines, fuel cells, microelectronics and currently, they are vastly used in the field of nanotechnology. Maxwell fluids is the most important subclass of non-Newtonian fluids, and are commonly used in industries and technology of paints, paper pulps, drilling muds, shampoos, certain oils and polymer solutions, which have a nature of Maxwell fluid [2]. Several researchers investigated Maxwell fluid with the effect of heat and MHD. Few data are available on it in the form of Nanofluids. Researchers have shown great interest in the Maxwell fluid, owing to its physical importance. It has numerous applications in various fields of engineering and industry and in some other disciplines of technologies. Melting, spinning, design of heat exchangers, fiber coating, manufacturing of plastics sheet, food stuff, vehicle's engine, Nano chips and the extradition from the dye are some of the important applications of Maxwell fluids, while nanofluids have different applications, for example engine cooling, defense, improving efficiency of diesel generator and cooling of electronic appliances [3]. Nanoparticles include metals, carbons, metal oxides and inorganic materials. They have no dissolution properties of the base fluid. Experimental investigations [4; 5; 6; 7; 8] reveal that adding metals or metallic oxides to the base fluid increases thermal conductivity which results in increase of heat transfer rates. The main concept behind nanoparticles is the transfer of heat easily. The electric field has a great role in fluid dynamics [9]. To improve the rate of heat transfer in fluids, different authors have worked from different angles. The role of electrodes is important in heat transfer, which is studied by [PERSON]. The influence of electric field on a plate in fluid flow is studied by [PERSON] et al. [10]. [PERSON] et al. [11] have found that applying a non-uniform electric field has better results than uniform electric field. Electro-kinetic is also one of the important methods of flow, which enhance the fluid flow. In electro-kinetic, an electric potential is applied across the micro-channel. The applied electric potential is not so high in magnitude because the electrical layer EDL is much smaller than the micro-channel. The electrically motivated flow with pressure is much better than the driven pressure, flow because it reduces device scale. Some of the articles on electro-kinetic method of flow in different systems is presented in [12]. The electric field has also important applications in medical sciences. The micro fluid under electro-kinetic delivers drugs quickly with low power in self-ruling microsystem. The electro-kinetic influences on nanoparticles are important because a non-uniform field applies to the suspension that exerts force on the nanoparticles. The high power field produces an extra force on the suspension as well as on the medium.