Task3 Project 1You are an engineer that design and manufactures gas compressors, you manager asked you tocalculate the amount of heat and work transfer to the gas compressor, use the following tasks:Task1Using the following gases: hydrogen, carbon monoxide, carbon dioxide, and oxygen determine thespecific heats at constant volume and constant pressure maintained at different temperatures :20 °C,25 °C, 30 °C, and 40 °C.a. What is the effect of temperature on specific heat for different gases. You can presentyour data in a table or graph since you have different gases and temperatures.b. Calculate the gas constant for different gases maintained at different temperaturesand compare your results to the published data.c. A fixed mass of an ideal gas is heated from 50 to 80 C at a constant pressure of (a)1 atm and (b) 3 atm. For which case do you think the energy required will be greater?Why?d. A fixed mass of an ideal gas is heated from 50 to 80 C (a) at constant volume and(b) at constant pressure. For which case do you think the energy required will begreater? Why?Task 2A frictionless piston fitted inside a cylinder containing gas at a pressure of 200 kPa, volume of 1liter and temperature of 25 ° C. Choose one gas from Task 1, the gas is to be compressed in thesystem and the final volume is 0.5 liter. Work is done to move the piston and heat is transferred tothe cooling system around the cylinder. Illustrate the importance of expressions for work donein thermodynamic processes by applying first principles while calculating the work done when theexpansion is ADIABATIC, ISOTHERMAL and POLYTROPIC for different n= (1.2, 1.3, 1.4, 1.8,1.9). Discuss the effect of varying n on the calculated boundary work.Task 3A 3 m3 tank contains air at 15 C and 400 kPa is connected through a valve to another tank containing5 kg of air at 40 C and 300 kPa. After 10 minutes, the valve is opened, and the whole system willreach thermal equilibrium with the surroundings (T= 25 C). Determine the volume of the secondtank and the final pressure of air. Explain the relationships between system constants for a perfectgas. In addition, discuss under what conditions is the ideal-gas assumption suitable for real gases?

the volume of second tank is determined from the ideal gas equation of state ,…

Task 3 A 3 m tank contains air at 15 C and 400 kPa is connected through a valve to another tank containing 5 kg of air at 40 C and 300 kPa. After 10 minutes, the valve is opened, and the whole system will reach thermal equilibrium with the surroundings (T= 25 C). Determine the volume of the second tank and the final pressure of air. Explain the relationships between system constants for a perfect gas. In addition, discuss under what conditions is the ideal-gas assumption suitable for real gases?

Task 3 A 3 m tank contains air at 15 C and 400 kPa is connected through a valve to another tank containing 5 kg of air at 40 C and 300 kPa. After 10 minutes, the valve is opened, and the whole system will reach thermal equilibrium with the surroundings (T= 25 C). Determine the volume of the second tank and the final pressure of air. Explain the relationships between system constants for a perfect gas. In addition, discuss under what conditions is the ideal-gas assumption suitable for real gases?

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

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