3. Following the procedure outlined in the lecture on "Differential Equations of Fluid Flow",show that 2-D differential control volume analysis results in the following y-momentumequation:(+v+-+(6+²) Sexdydy ax dyStart with the macroscopic momentum balance equation for the y-component.atZΣΕ = = 2 [{[[{(pv,)dv] + [[ v, (pvn)d₁.C.S.TxxXC.V.x,y+AyPAyx,y1Txyat,+Tyyv(x,y) = (vx(x,y), vy(x,y))AxTxyx+Δx,y+ΔyTyyTyxPx+Δx,yTxx

Given data: Macroscopic 2D momentum equation is given as Find: From the 2D momentum Equation show…

3. Following the procedure outlined in the lecture on "Differential Equations of Fluid Flow", show that 2-D differential control volume analysis results in the following y-momentum equation: at dt oy C.V. +(² dr + + fes Start with the macroscopic momentum balance equation for the y-component. ΣE,- (ov,)dv] + [v, (pvm)dA. ΣΕ = C.S. ax dy

3. Following the procedure outlined in the lecture on "Differential Equations of Fluid Flow", show that 2-D differential control volume analysis results in the following y-momentum equation: at dt oy C.V. +(² dr + + fes Start with the macroscopic momentum balance equation for the y-component. ΣE,- (ov,)dv] + [v, (pvm)dA. ΣΕ = C.S. ax dy

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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