Consider a U-tube whose arms are open to the atmosphere. Now equal volumes of water and light oil (p=49.3 lbm/ft3) are poured from different arms. A person blows from the oil side of the U-tube until the contact surface of the two fluids moves to the bottom of the U-tube, and therefore, the liquid levels in the two arms are the same. If the fluid height in each arm is 34 in, determine the gage pressure exerted by the person on the oil by blowing. The gage pressure exerted by the person on the oil by blowing is 3 ✪ psi.

Consider a U-tube whose arms are open to the atmosphere. Now equal volumes of water and light oil (p=49.3 lbm/ft3) are poured from different arms. A person blows from the oil side of the U-tube until the contact surface of the two fluids moves to the bottom of the U-tube, and therefore, the liquid levels in the two arms are the same. If the fluid height in each arm is 34 in, determine the gage pressure exerted by the person on the oil by blowing. The gage pressure exerted by the person on the oil by blowing is 3 ✪ psi.

Name: Consider a U-tube whose arms are open to the atmosphere. Now equal vo
Uploaded: 2024-03-20T06:56:55.000Z
Channel: Bartleby
Description: Consider a U-tube whose arms are open to the atmosphere. Now equal volumes of water and light oil (p=49.3 lbm/ft3) are pouredfrom different arms. A person blows from the oil side of the U-tube until the contact surface of the two fluids moves to the

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

See similar textbooks

Similar questions

Air is compressed into a 0.5m3 rigid tank until the pressure changes from 120 kPa vacuum pressure to gage pressure of 320 kPa. If the air can cool to 450C. What will be the initial temperature of the air?
A 10-m high cylindrical container with a radius of 2 m is filled with oil and water. If the lower 2.5-m of the tank is water with a density of ρ = 1000 kg/m3 while the rest of the tank is filled with oil with a density of ρ = 800 kg/m3, determine the pressure difference, in kPa, between the top and bottom of the cylinder. Assume that the gravity is 9.81 m/s2.
A 80 cm tall cylinder is filled with water (ρwater = 1000 kg/m3) and oil (ρoil = 600 kg/m3) and is capped on the bottom so no fluid is flowing. It contains equal amounts of the two fluids by weight. What is the pressure at the bottom of the cup?
The pressure in a natural gas pipeline is measured by the manometer shown in the figure with one of the arms open to the atmosphere where the local atmospheric pressure is 14 psia. Determine the absolute pressure at the bottom of the natural gas pipeline. Take the density of water to be pw = 62.4 lbm/ft3 Specific gravity of mercury is 13.6, and its density is pHg = 848.6 lbm/ft³ Specific gravity of oil is given to be 0.69, and its density is Poil = 43.1 lbm/ft³. Natural Gas 14 in 6 in Mercury SG = 13.6 -Oil 2 in 22 in Water The absolute pressure at the bottom of the natural gas pipeline is psia. E
Quick -sol
Milk with a density of 970 kg/m^3 is transported on a level road in a 9-m long, 3-m diameter cylindrical tanker. The tanker is completely filled with milk, i.e., no air space in the tank. If the truck is accelerating from a stop signal at 7.0 m/s^2 to the left, determine the pressure difference between the maximum and minimum pressures in the tank. Depict on the figure the location of the minimum and maximum pressures in the tank. min. 9m 3m
Consider a cylindrical tank contains pressurized oxygen gas. The gage on the tank reads 100 kPa. A manometer is attached to the tank to verify its pressure. The manometer fluid has a density of 13,600 kg/m3. Determine the manometer reading in cm. (g = 9.80 m/s2 ; gc = 1 kgm/ Ns2).
. A cannister contains water with a height level of 80 cm and is transported up a building using a pulley-operated dumbwaiter. Determine the pressure at the bottom of the cannister when the dumbwaiter is stationary, moving up with an acceleration of 3.8 m/s², and moving down with a downward acceleration of 3.5 m/s². Draw your schematic/ free-body diagram.
The open tank filled with a liquid in full as shown in the figure below has the height of h = 6.00 m. The inclined angle of the inclined wall is = 45.00 °. The width (perpendicular to the screen) of the inclined wall is w = 20.00 m. The specific weight of the liquid is = 9.81 kN/m3. (1) For the inclined wall, determine the average pressure on it._________ (kPa)
A capillary tube is immersed vertically in a water container. Knowing that water starts to evaporate when the pressure drops below 3 kPa, determine the maximum capillary rise and tube diameter for this maximum-rise case. Take the contact angle at the inner wall of the tube to be 6° and the surface tension to be 1.00 N/m. The maximum capillary rise is m. The tube diameter for the maximum rise is um.