3. Consider the following reaction: XO(s) + CO(g) = X(s) + CO2(g) Kp = 0.403 at 100. °C At 100. 'C, the system is at equilibrium in a 1.00 L vessel and contains 1.00 moles of XO, 1.00 moles of CO, 0.403 moles of X, and 0.403 moles of CO2. a. Consider a case where all moles of X are removed from the system described above (volume and temperature remain constant). After waiting for the system to reach a constant composition, how many moles of CO2 will be present? b. Consider a case where all moles of CO are removed from the system described above (volume and temperature remain constant). After waiting for the system to reach a constant composition, how many moles of CO2 will be present?

Chemistry
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Chapter17: Spontaneity, Entropy, And Free Energy
Section: Chapter Questions
Problem 84E: Consider the following reaction at 298 K: 2SO2(g)+O2(g)2SO3(g) An equilibrium mixture contains O2(g)...
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3. Consider the following reaction: XO(s) + CO(g) = X(s) + CO2(g) Kp = 0.403 at 100. °C
At 100. 'C, the system is at equilibrium in a 1.00 L vessel and contains 1.00 moles of XO,
1.00 moles of CO, 0.403 moles of X, and 0.403 moles of CO2.
a. Consider a case where all moles of X are removed from the system described
above (volume and temperature remain constant). After waiting for the system to
reach a constant composition, how many moles of CO2 will be present?
b. Consider a case where all moles of CO are removed from the system described
above (volume and temperature remain constant). After waiting for the system to
reach a constant composition, how many moles of CO2 will be present?
Transcribed Image Text:3. Consider the following reaction: XO(s) + CO(g) = X(s) + CO2(g) Kp = 0.403 at 100. °C At 100. 'C, the system is at equilibrium in a 1.00 L vessel and contains 1.00 moles of XO, 1.00 moles of CO, 0.403 moles of X, and 0.403 moles of CO2. a. Consider a case where all moles of X are removed from the system described above (volume and temperature remain constant). After waiting for the system to reach a constant composition, how many moles of CO2 will be present? b. Consider a case where all moles of CO are removed from the system described above (volume and temperature remain constant). After waiting for the system to reach a constant composition, how many moles of CO2 will be present?
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