A belt moves upward at velocity V, dragging a film of viscous liquid of thickness h,as shown in the figure. Gravity is aligned with negative y direction. Near the belt, the fluidmoves upward due to no-slip. At its outer edge, the film has a free surface (i.e. no shear stress).Assuming that the only non-zero velocity is v(x), with zero shear stress at the outer film edge.The fluid has viscosity µu and density p. Assuming steady flow, no pressure gradient, fullydeveloped flow. Please answer the following:What assumptions can be made about this flow scenario?Write out the N.S. equation governing this flow along the flow direction, andA).C).reduce this equation to a second order ordinary differential equation.D).E).Find the solution of v(x) to this ODE using appropriate Boundary Conditions.Find the average velocity Vave in the film.h s consty,vх, иP.BELT2.

NOTE: As per Bartleby Guidelines only first three subparts have to be solved at a time. Kindly…

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