QUESTION 2 A container of neon gas has the following properties: (1) 1.4 moles (2) T= 468 K (3) p = 0.6 atm. Calculate the entropy in J K- as a number in normal form accurate to 1 decimal place (X.X or XX.X, etc.). Do not include units in your answer.
QUESTION 2 A container of neon gas has the following properties: (1) 1.4 moles (2) T= 468 K (3) p = 0.6 atm. Calculate the entropy in J K- as a number in normal form accurate to 1 decimal place (X.X or XX.X, etc.). Do not include units in your answer.
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Question 2

Transcribed Image Text:the same iraction Of atoms in he vapor.
a d. These curves show that all atoms would go into the vapor if the internal energy U of the system was minimized at equilibrium.
Oe These curves show that all atoms would go into the vapor if the entropy of the system was maximized in equilibrium.
O f. The free energy curve is the internal energy curve minus the temperature-entropy product curve.
QUESTION 2
A container of neon gas has the following properties:
(1) 1.4 moles
(2) T= 468 K
(3) p = 0.6 atm.
Calculate the entropy in J K- as a number in normal form accurate to 1 decimal place (X.X or XX.X, etc.). Do not include units in your answer.
QUESTION 3
A container of neon gas has the following properties:
(1) 0.7 moles
(2) T = 332 K
(3) p = 1.8 atm
Calculate the Helmholtz free energy in kJ (kilojoules) as a number in normal form accurate to 1 decimal place (X.X or XX.X, etc.). Do not
include units in your answer.
Hint: Use equipartition for a monatomic gas to calculate U and Sackur-Tetrode to calculate S.
QUESTION 4
Plot the free energy F described in the handout for the parameters given below. You can use a plotting calculator, if you want, or you could use
MOur wob h
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