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The ideal gas behaviour has been express...

The ideal gas behaviour has been expressed in terms of ideal gas equation `PV =nRT` Since none of the gas in univers is ideal one and deviations are noticed from ideal gas nature The deviations from ideal gas nature has been explained in terms of compressiblity factor `Z = (Z =(PV)/(nRT))` Usually when `Z gt1` repulsive forces among molecules predominates and when `Z lt1` attraction forces predominates. However almost all the gases show ideal gas behaviour within Boyle s temperature range The numberical value of `Z` for 1 mole of gas at critical conditions is `(3)/(8)`
The ratio of `Z` at Boyle's temperature and at critical conditions for 1 mole of a given gas is .

A

`8//3`

B

`3//8`

C

`5//8`

D

`8//5`

Text Solution

Verified by Experts

`((PV)/(RT))_(B.T) =1 and ((PV)/(RT))_(C.C)=(axx3bxx27Rb)/(27b^(2)xx8a)=(3)/(8)`
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The ideal gas behaviour has been expressed in terms of ideal gas equation PV =nRT Since none of the gas in univers is ideal one and deviations are noticed from ideal gas nature The deviations from ideal gas nature has been explained in terms of compressiblity factor Z = (Z =(PV)/(nRT)) Usually when Z gt1 repulsive forces among molecules predominates and when Z lt1 attraction forces predominates. However almost all the gases show ideal gas behaviour within Boyle s temperature range The numberical value of Z for 1 mole of gas at critical conditions is (3)/(8) The numerical value of 'Z' for gases within Boyle's temperature range is .

The ideal gas behaviour has been expressed in terms of ideal gas equation PV =nRT Since none of the gas in univers is ideal one and deviations are noticed from ideal gas nature The deviations from ideal gas nature has been explained in terms of compressiblity factor Z = (Z =(PV)/(nRT)) Usually when Z gt1 repulsive forces among molecules predominates and when Z lt1 attraction forces predominates. However almost all the gases show ideal gas behaviour within Boyle s temperature range The numberical value of Z for 1 mole of gas at critical conditions is (3)/(8) The gas which always shows predominative repulsive forces .

The ideal gas behaviour has been expressed in terms of ideal gas equation PV =nRT Since none of the gas in univers is ideal one and deviations are noticed from ideal gas nature The deviations from ideal gas nature has been explained in terms of compressiblity factor Z = (Z =(PV)/(nRT)) Usually when Z gt1 repulsive forces among molecules predominates and when Z lt1 attraction forces predominates. However almost all the gases show ideal gas behaviour within Boyle s temperature range The numberical value of Z for 1 mole of gas at critical conditions is (3)/(8) The numerical value of Z is greater than 1 for gases usually at .

The ideal gas behaviour has been expressed in terms of ideal gas equation PV =nRT Since none of the gas in univers is ideal one and deviations are noticed from ideal gas nature The deviations from ideal gas nature has been explained in terms of compressiblity factor Z = (Z =(PV)/(nRT)) Usually when Z gt1 repulsive forces among molecules predominates and when Z lt1 attraction forces predominates. However almost all the gases show ideal gas behaviour within Boyle s temperature range The numberical value of Z for 1 mole of gas at critical conditions is (3)/(8) The compressibility factor SO_(20 is 0.711 then .

Gas deviates from ideal gas nature because molecules

For an ideal gas, the value of compressibility factor Z(=(pVm)/(RT)) is

P BAHADUR-GASEOUS STATE-Exercise
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  2. The ideal gas behaviour has been expressed in terms of ideal gas equat...

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  3. The ideal gas behaviour has been expressed in terms of ideal gas equat...

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  4. The deviations from ideal gas behaviour PV =RT were successfully expla...

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  5. The deviations from ideal gas behaviour PV =RT were successfully expla...

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  6. The deviations from ideal gas behaviour PV =RT were successfully expla...

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  7. The deviations from ideal gas behaviour PV =RT were successfully expla...

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  8. The Graham's law states that ''at constant pressure and temperature th...

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  9. The Graham's law states that ''at constant pressure and temperature th...

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  10. The Graham's law states that ''at constant pressure and temperature th...

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  11. One litre of O(2) and one litre of h(2) are taken in a vessel of 2 lit...

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  12. One litre of O(2) and one litre of h(2) are taken in a vessel of 2 lit...

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  13. One litre of O(2) and one litre of h(2) are taken in a vessel of 2 lit...

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  14. The numerical valuse of P(c),V(c),T(c) are (a)/(27b^(2)),3b,(8a)/(27...

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  15. The numerical value of a for H(2)O is higher than C(6)H(6) H(2)O pos...

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  16. At low pressure the van der Waals' equation is reduced to [P +(a)/(V^(...

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  17. Molar specific heat at constant volume of an ideal diatomic gas is (5)...

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  18. Ideal gas do not show Joule -Thoson effect as well as they cannot be l...

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  19. Andrew's worked on a temporary gas (so called at that time) and derive...

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