i need the answer quickly General ProblemsConsider a steady 2-D flow (Vz - 0) in a pipe where the radial velocity component is gvenby:(p2 - 1) cos 0vrDetermine:1) The corresponding tangential velocity component ve, where ve -0 at r-0.2) The corresponding stream function if it exists3) The shear force per unit length of the pipe. Where does this force vanishes?4) The conditions for.a stagnate flow.5) Prove that the flow is rotational6) The conditions for a potential flow. As a result find:a) The velocity potential fieldb) The pressure drop, in function of r, p and U, from an upstream point in the flow to apoint near the surface of the cylinder. U is the free stream velocity of the upstreamflow.c) The particle acceleration. For what value(s) of r, do this acceleration vanish? Interpretyour result.7) How do you interpret the result of part (3) and (6)? What do you conclude

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General Problems Consider a steady 2-D flow (Vz-0) in a pipe where the radial velocity component is ven by: (r2-1) cos 0 Determine: 1) The corresponding tangential velocity component ve, where ve -0 at r-0. 2) The corresponding stream function if it exists 3) The shear force per unit length of the pipe. Where does this force vanishes? ditione for a stagnate flow

General Problems Consider a steady 2-D flow (Vz-0) in a pipe where the radial velocity component is ven by: (r2-1) cos 0 Determine: 1) The corresponding tangential velocity component ve, where ve -0 at r-0. 2) The corresponding stream function if it exists 3) The shear force per unit length of the pipe. Where does this force vanishes? ditione for a stagnate flow

Elements Of Electromagnetics

7th Edition

ISBN:9780190698614

Author:Sadiku, Matthew N. O.

Publisher:Sadiku, Matthew N. O.

ChapterMA: Math Assessment

Section: Chapter Questions

Problem 1.1MA

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