Problem 2 (20 points) Consider a subsonic compressible flow in cartesian coordinates (x and y in...
Problem 2 (20 points) Consider a subsonic compressible flow in cartesian coordinates (x and y in meters), with velocity potential: $(x, y) = Vox + VI - M For an altitude of 10 km and velocity of 240 m/s, Calculate M, P, and T for the location (0.10 m, 0.15 m). 70 -24V1-My sin 27X
There is a subsonic compressible flow given in cartesian coordinates in meters. It has the velocity potential: Given an altitude of 10 km and a velocity of 240 m/s, find M,p, and T with the location (0.10 m, 0.15 m)
1. (15 pts.) The velocity potential of a subsonic compressible airflow in Cartesian coordinates is given by x, y) 1-м The freestream properties are given by V 214 m/s, po1 atm, andT is a perfect gas. At the location (x,y) = (0.06 m, 0.06 m), calculate a. the flow velocity. b. the pressure using the linear theory. 288 K. Assume air
please help me. Z=x+ly Ideal potential flow field with velocity vector in 2- dimensional virtual (x, y) plane Complex potential function of a fluid flowing through a range with a volumetric flow m and F(2) = aperture range is given with. Where In; natural logarithmic function and sinh; sinus is hyperbolic function abbreviation, m and b are constant. Find the velocity components in Cartesian coordinates for this flow area in (sinh (5)
(8%) Problem 3: In a particular Cartesian coordinate system, a particle has coordinates X(t) = 2sin(31) + C. y= 0, z=0. where t is in seconds, x is in meters, and C is a constant to be determined by the data. At t=0 the particle was at x = 1 m. 14% Part (a) Find the value of constant C, in meters. C=1 Correct! * 14% Part (b) Find the instantaneous velocity, in meters per second, at 1-1.5 S. vy(t)...
Consider the flow field represented by the velocity potential φ = Ax+Bx2−By2, where A = 1 m/s, B = 1 s−1, and the coordinates are measured in meters. Obtain expressions forthe velocity field and the stream function. Using water as the working fluid, calculate the pressure difference between the origin and the point (x,y) = (1,2). What is the volume flow rate (per unit depth) between streamlines passing through these two points?
Now evaluate the mass and momentum into and out of the CV shown with 1.0s y Rs 1.5 at (2) Let p 1200 kg/m2, Uoo- 20 m/s and cylinder radius R 0.01 m 1 cm and Az 1 m Note: The flow does not cross streamlines, so there is no flow across the side boundaries. Exit (2) NO SCALE Variable u vs y at x2-0 Inlet (1) y- H1 and v 0 constant u Uo constant v0 A) Find mass...