At 25°C and 1.000 atm, methane gas (CH4) has a mean free path of 5.33×10-8 m. a-Calculate the effective hard-sphere diameter of methane molecules b- Calculate the number of collisions per second Za undergone by one methane molecule at this temperature and pressure c-Calculate the total number of collisions per cubic meter per second ZAA in methane gas at this temperature and pressure

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Chapter5: Gases
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Problem 5.94PAE: 94 Mining engineers often have to deal with gases when planning for the excavation of coal. Some of...
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At 25°C and 1.000 atm, methane gas (CH4) has a mean free path of 5.33×10-8 m.
a-Calculate the effective hard-sphere diameter of methane molecules
b- Calculate the number of collisions per second Za undergone by one methane
molecule at this temperature and pressure
c-Calculate the total number of collisions per cubic meter per second ZAA in methane
gas at this temperature and pressure
d-Keeping the volume of the container and the temperature fixed, enough oxygen gas is
added to make the total pressure 2.000 atm. Find the total number of collisions of each
kind per cubic meter per second ZA. The effective hard-sphere diameter of oxygen is
0.361 nm.
Transcribed Image Text:At 25°C and 1.000 atm, methane gas (CH4) has a mean free path of 5.33×10-8 m. a-Calculate the effective hard-sphere diameter of methane molecules b- Calculate the number of collisions per second Za undergone by one methane molecule at this temperature and pressure c-Calculate the total number of collisions per cubic meter per second ZAA in methane gas at this temperature and pressure d-Keeping the volume of the container and the temperature fixed, enough oxygen gas is added to make the total pressure 2.000 atm. Find the total number of collisions of each kind per cubic meter per second ZA. The effective hard-sphere diameter of oxygen is 0.361 nm.
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