You mix 1.00 moles of liquid "A" and 4.98 moles of liquid "B" at 25 °C. Pure liquid "A" has a vapor pressure of 0.4 atm. at 25 °C. Pure liquid "B" has a vapor pressure of 0.6 atm. at 25°C. When the two liquids are combined, there is no change in the temperature of the solution. What is the ideal vapor pressure of this mixture? atm Which of the following statements is TRUE for the solution above? Choose one: The total vapor pressure of the solution will be less than the ideal vapor pressure. The total vapor pressure of the solution will be greater than the ideal vapor pressure. The total vapor pressure of the solution cannot be determined without knowing the standard enthalpies of vaporization. The total vapor pressure of the solution will be the same as the ideal vapor pressure.

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Chapter1: Chemical Foundations
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You mix 1.00 moles of liquid "A" and 4.98 moles of liquid "B" at 25 °C. Pure liquid "A" has a vapor pressure of 0.4 atm. at 25°C. Pure
liquid "B" has a vapor pressure of 0.6 atm. at 25°C. When the two liquids are combined, there is no change in the temperature of the
solution.
What is the ideal vapor pressure of this mixture?
atm
Which of the following statements is TRUE for the solution above?
Choose one:
The total vapor pressure of the solution will be less than the ideal vapor pressure.
The total vapor pressure of the solution will be greater than the ideal vapor pressure.
The total vapor pressure of the solution cannot be determined without knowing the standard enthalpies of
vaporization.
The total vapor pressure of the solution will be the same as the ideal vapor pressure.
Transcribed Image Text:You mix 1.00 moles of liquid "A" and 4.98 moles of liquid "B" at 25 °C. Pure liquid "A" has a vapor pressure of 0.4 atm. at 25°C. Pure liquid "B" has a vapor pressure of 0.6 atm. at 25°C. When the two liquids are combined, there is no change in the temperature of the solution. What is the ideal vapor pressure of this mixture? atm Which of the following statements is TRUE for the solution above? Choose one: The total vapor pressure of the solution will be less than the ideal vapor pressure. The total vapor pressure of the solution will be greater than the ideal vapor pressure. The total vapor pressure of the solution cannot be determined without knowing the standard enthalpies of vaporization. The total vapor pressure of the solution will be the same as the ideal vapor pressure.
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