What fraction of the pressure is due to nitrogen? Note: fraction due to nitrogen = N₂ pressure/total pressure = PN₂ / PT What is the nitrogen mole fraction in the tank? Note: mole fraction of nitrogen = moles of N₂ / total moles = = N₂/nT hat is the relationship between the nitrogen pressure ratio in Key Question 4 and the nitrogen ole fraction in Key Question 5? Express this relationship in the form of an equation.

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**Educational Content: Understanding Pressure and Mole Fraction in a Nitrogen Mixture**

1. **What fraction of the pressure is due to nitrogen?**

   *Note:* The fraction due to nitrogen is calculated using the formula:
   \[
   \text{fraction due to nitrogen} = \frac{\text{N}_2 \text{ pressure}}{\text{total pressure}} = \frac{P_{N_2}}{P_T}
   \]

2. **What is the nitrogen mole fraction in the tank?**

   *Note:* The mole fraction of nitrogen is determined by:
   \[
   \text{mole fraction of nitrogen} = \frac{\text{moles of N}_2}{\text{total moles}} = \frac{n_{N_2}}{n_T}
   \]

3. **What is the relationship between the nitrogen pressure ratio in Key Question 4 and the nitrogen mole fraction in Key Question 5?**

   Express this relationship in the form of an equation.

This educational content explains how to determine the fraction of pressure and mole fraction in a gas mixture, specifically nitrogen, using fundamental equations in chemistry.
Transcribed Image Text:**Educational Content: Understanding Pressure and Mole Fraction in a Nitrogen Mixture** 1. **What fraction of the pressure is due to nitrogen?** *Note:* The fraction due to nitrogen is calculated using the formula: \[ \text{fraction due to nitrogen} = \frac{\text{N}_2 \text{ pressure}}{\text{total pressure}} = \frac{P_{N_2}}{P_T} \] 2. **What is the nitrogen mole fraction in the tank?** *Note:* The mole fraction of nitrogen is determined by: \[ \text{mole fraction of nitrogen} = \frac{\text{moles of N}_2}{\text{total moles}} = \frac{n_{N_2}}{n_T} \] 3. **What is the relationship between the nitrogen pressure ratio in Key Question 4 and the nitrogen mole fraction in Key Question 5?** Express this relationship in the form of an equation. This educational content explains how to determine the fraction of pressure and mole fraction in a gas mixture, specifically nitrogen, using fundamental equations in chemistry.
**Model: Gases Exert Pressure Independently**

This educational table illustrates how gases exert pressure independently under a controlled environment.

| Condition | Pressure | Volume | Temperature | Comment |
|-----------|----------|--------|-------------|---------|
| Initial   | 1.0 atm  | 22.4 L | 273 K       | 1.0 mole of N₂ gas fills the tank. |
| Final     | 3.0 atm  | 22.4 L | 273 K       | 2.0 moles of O₂ gas have been added to the 1 mole of N₂ gas in the tank. |

**Explanation:**

- **Initial Condition:** At the start, the tank contains 1.0 mole of nitrogen gas (N₂) at a pressure of 1.0 atm, a volume of 22.4 liters, and a temperature of 273 K.

- **Final Condition:** After modifications, the pressure increases to 3.0 atm while keeping the volume and temperature constant. This change results from adding 2.0 moles of oxygen gas (O₂) to the existing nitrogen gas in the tank. 

This example demonstrates the concept of partial pressures and how gases in a mixture contribute independently to the total pressure.
Transcribed Image Text:**Model: Gases Exert Pressure Independently** This educational table illustrates how gases exert pressure independently under a controlled environment. | Condition | Pressure | Volume | Temperature | Comment | |-----------|----------|--------|-------------|---------| | Initial | 1.0 atm | 22.4 L | 273 K | 1.0 mole of N₂ gas fills the tank. | | Final | 3.0 atm | 22.4 L | 273 K | 2.0 moles of O₂ gas have been added to the 1 mole of N₂ gas in the tank. | **Explanation:** - **Initial Condition:** At the start, the tank contains 1.0 mole of nitrogen gas (N₂) at a pressure of 1.0 atm, a volume of 22.4 liters, and a temperature of 273 K. - **Final Condition:** After modifications, the pressure increases to 3.0 atm while keeping the volume and temperature constant. This change results from adding 2.0 moles of oxygen gas (O₂) to the existing nitrogen gas in the tank. This example demonstrates the concept of partial pressures and how gases in a mixture contribute independently to the total pressure.
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