Solution: Consider the flow of air through the venturi in an automobile carburetor. The volume flowrate through the venturi is .009 m^3/s. At the inlet to the venturi the cross sectional area is 5.0x10^-4 m^2, the pressure is 100 kPa, and the temperature is 35 degrees C. At the throat of the venturi the flow area is reduced to 1.7x10^-4 m^2. Assuming that the air can be considered incompressible: What is the air velocity at the inlet and throat of the venturi? What is the gage pressure at the throat of the venturi?

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Consider the flow of air through the venturi in an automobile carburetor. The volume flowrate through the venturi is .009 m^3/s. At the inlet to the venturi the cross sectional area is 5.0x10^-4 m^2, the pressure is 100 kPa, and the temperature is 35 degrees C. At the throat of the venturi the flow area is reduced to 1.7x10^-4 m^2. Assuming that the air can be considered incompressible: What is the air velocity at the inlet and throat of the venturi? What is the gage pressure at the throat of the venturi?