(a) Interpretation: The final total pressure of the given 5.00 L container should be determined. Concept introduction: The ideal gas equation is used to calculate the pressure, volume, temperature and number of moles of gas under ideal conditions. The partial pressure is the pressure of each gas in the given gaseous mixture. The sum of partial pressure of all gaseous components in the mixture is equal to the total gas pressure. This is called as Dalton’s law of partial pressure. The partial pressure of each gas component can be calculated as: Partial pressure of gas = Mole fraction of gas × Total pressure
(a) Interpretation: The final total pressure of the given 5.00 L container should be determined. Concept introduction: The ideal gas equation is used to calculate the pressure, volume, temperature and number of moles of gas under ideal conditions. The partial pressure is the pressure of each gas in the given gaseous mixture. The sum of partial pressure of all gaseous components in the mixture is equal to the total gas pressure. This is called as Dalton’s law of partial pressure. The partial pressure of each gas component can be calculated as: Partial pressure of gas = Mole fraction of gas × Total pressure
Solution Summary: The author explains how the ideal gas equation is used to calculate the pressure, volume, temperature and number of moles of gas under ideal conditions.
The final total pressure of the given 5.00 L container should be determined.
Concept introduction:
The ideal gas equation is used to calculate the pressure, volume, temperature and number of moles of gas under ideal conditions. The partial pressure is the pressure of each gas in the given gaseous mixture. The sum of partial pressure of all gaseous components in the mixture is equal to the total gas pressure. This is called as Dalton’s law of partial pressure. The partial pressure of each gas component can be calculated as:
Partial pressure of gas = Mole fraction of gas × Total pressure
Interpretation Introduction
(b)
Interpretation:
The partial pressure of gas A should be determined.
Concept introduction:
The ideal gas equation is used to calculate the pressure, volume, temperature and number of moles of gas under ideal conditions. The partial pressure is the pressure of each gas in the given gaseous mixture. The sum of partial pressure of all gaseous components in the mixture is equal to the total gas pressure. This is called as Dalton’s law of partial pressure. The partial pressure of each gas component can be calculated as:
Partial pressure of gas = Mole fraction of gas× Total pressure
Interpretation Introduction
(c)
Interpretation:
The partial pressure of gas B should be determined.
Concept introduction:
The ideal gas equation is used to calculate the pressure, volume, temperature and number of moles of gas under ideal conditions. The partial pressure is the pressure of each gas in the given gaseous mixture. The sum of partial pressure of all gaseous components in the mixture is equal to the total gas pressure. This is called as Dalton’s law of partial pressure. The partial pressure of each gas component can be calculated as:
Partial pressure of gas = Mole fraction of gas× Total pressure
"Water gas" is an industrial fuel composed of a mixture of carbon monoxide and hydrogen gases. When this
fuel is burned, carbon dioxide and water result. From the information given below, write a balanced equation
and determine the enthalpy of this reaction:
CO(g) + O2(g) → CO₂(g) + 282.8 kJ
H2(g) + O2(g) → H₂O(g) + 241.8 kJ
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4. Calculate AG for the following reaction at 25°C. Will the reaction occur (be spontaneous)? How do you
know?
NH3(g) + HCl(g) → NH4Cl(s)
AH=-176.0 kJ
AS-284.8 J-K-1
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