A quantity of gas has an initial pressure and volume of 0.1 MN/m2 and 0.1 m3. respectively. It is compressed to a final pressure of 1.4 MN/m2 according to the law PV1.26= constant. Determine the final volume of the gas.
A mass of air has an initial pressure of 1.3 MN/m 2 , volume 0.014 and temperature 135 0C. It is expanded until its final pressure is 275 kN/m 2 and its volume becomes 0.056 m3 . Determine
a)The mass of air
b)The final temperature
Take R = 0.287 kJ/kg k
A mass of gas has an initial pressure of 1 bar and a temperature of 20 0C. The temperature of the gas is now increased to 550 0C while the volume remains constant. Determine the final pressure of the gas.
A quantity of gas has an initial volume of 0.06 m3 and a temperature of 15 0C. It is expanded to a volume of O. 12 m3 while the pressure remains constant. Determine the final temperature of the gas.
A quantity of gas has an initial pressure of 140 kN/m2 and volume 0.14 m3 It then compressed to a pressure of 700 kN/m2 while the temperature remains constant Determine the final volume of the gas.
a) We are planning to operate a mixed flow reactor to convert A into R. This is a liquid phase reaction, with the stoichiometryA→R. The rate of reaction is given below. What size of mixed flow reactor is needed to achieve 75% conversion of a feed stream of 1000 moles of A per hour?
CA,mol/l. 0.1 0.2 0.3 04 0.5 0.6 0.7 0.8 1 1.3 2. -rA,mol/(l.min). 0.1 0.3 0.5 0.6 0.5 0.25 0.1 0.06 0.05 0.045 0.042
Solve this problem with step by step process?
At present the conversion is 66.7% for the elementary second order reaction 2A→2R when operating in an isothermal plug flow reactor with a recycle ratio of unity. Determine the conversion if recycle is shut off.
Solve this problem with step by step process?