Water in an irrigation ditch of width w = 3.22 m and depth d = 1.04 m flows with a speed of 0.207 m/s. The mass flux of the flowing water through an imaginary surface is the product of the water’s density (1000 kg/m 3 ) and its volume flux through that surface. Find the mass flux through the following imaginary surfaces: (a) a surface of area wd, entirely in the water, perpendicular to the flow; (b) a surface with area 3wd/ 2, of which wd is in the water, perpendicular to the flow; (c) a surface of area wd/ 2, entirely in the water, perpendicular to the flow; (d) a surface of area wd , half in the water and half out, perpendicular to the flow; (e) a surface of area wd , entirely in the water, with its normal 34.0° from the direction of flow.
Water in an irrigation ditch of width w = 3.22 m and depth d = 1.04 m flows with a speed of 0.207 m/s. The mass flux of the flowing water through an imaginary surface is the product of the water’s density (1000 kg/m 3 ) and its volume flux through that surface. Find the mass flux through the following imaginary surfaces: (a) a surface of area wd, entirely in the water, perpendicular to the flow; (b) a surface with area 3wd/ 2, of which wd is in the water, perpendicular to the flow; (c) a surface of area wd/ 2, entirely in the water, perpendicular to the flow; (d) a surface of area wd , half in the water and half out, perpendicular to the flow; (e) a surface of area wd , entirely in the water, with its normal 34.0° from the direction of flow.
Water in an irrigation ditch of width w = 3.22 m and depth d = 1.04 m flows with a speed of 0.207 m/s. The mass flux of the flowing water through an imaginary surface is the product of the water’s density (1000 kg/m3) and its volume flux through that surface. Find the mass flux through the following imaginary surfaces: (a) a surface of area wd, entirely in the water, perpendicular to the flow; (b) a surface with area 3wd/2, of which wd is in the water, perpendicular to the flow; (c) a surface of area wd/2, entirely in the water, perpendicular to the flow; (d) a surface of area wd, half in the water and half out, perpendicular to the flow; (e) a surface of area wd, entirely in the water, with its normal 34.0° from the direction of flow.
ssm A patient recovering from surgery is being given fluid
intravenously. The fluid has a density of 1030 kg/m², and
9.5 × 10-4 m³ of it flows into the patient every six hours. Find the mass
55.
flow rate in kg/s.
The basic function of an automobile's carburetor is to atomize the gasoline and mix it
with air to promote rapid combustion. Assume that 40 cm? of gasoline is atomized
into N spherical droplets. Each droplet has a radius of 2.0 x 10-5 m. Find the total
surface area of these N spherical droplets.
A 1000 L tank contains 500 L of water with a salt concentration of 10 g/L. Water with a salt concentration of 60 g/L flows into the tank at a rate of 80 L/min. The fluid mixes instantaneously and is pumped out at a specified rate Rout. Let y(t) denote the quantity of salt in the tank at time t.
Find the salt concentration when the tank overflows assuming that Rout = 40 L/min.
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