A vessel of cylindrical shape is 50 cm in…. solved problem

A vessel of cylindrical shape is 50 cm in diameter and 75 cm high. It contains 4 kg of a gas. the pressure measured with manometer indicates 620 mm of Hg above atmosphere when barometer reads 760 mm of Hg. Determine:(i) The absolute pressure of the gas in the vessel in bar.(ii) Specific volume and density of the gas.

A vessel of cylindrical shape is 50 cm in diameter and 75 cm high. It contains 4 kg of a gas. the pressure measured with manometer indicates 620 mm of Hg above atmosphere when barometer reads 760 mm of Hg. Determine:

(i) The absolute pressure of the gas in the vessel in bar.

(ii) Specific volume and density of the gas.

1. A tube contains an oil of specific gravity 0.9 to a depth of 120 cm. Find the gauge pressure at this depth (in kN/m²).

2. A vacuum recorded in the condenser of a steam power plant is 740 mm of Hg. Find the absolute pressure in the condenser in Pa. The barometric reading is 760 mm of Hg.

3. A vessel of cylindrical shape is 50 cm in diameter and 75 cm high. It contains 4 kg of a gas. the pressure measured with manometer indicates 620 mm of Hg above atmosphere when barometer reads 760 mm of Hg. Determine:

(i) The absolute pressure of the gas in the vessel in bar.

(ii) Specific volume and density of the gas.

4. In a pipe line the pressure of gas is measured with a mercury manometer having one limb open to the atmosphere (as shown in figure). If the difference in the height of mercury in the two limbs is 550 mm, calculate the gas pressure.

Given : Barometer reading = 761 mm of Hg

Acceleration due to gravity = 9.79 m/s²

Density of mercury = 13640 kg/m³.

5. A U-tube mercury manometer with one arm open to atmosphere is used to measure pressure in a steam pipe. The level of mercury in open arm is 97.5 mm greater than that in the arm connected to the pipe condenses in the manometer arm connected to the pipe. The height of this column is 34 mm. The atmospheric pressure is 760 mm of Hg. Find the absolute pressure of steam.

IMO website link click here