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Practice Problems Chang, Chapter 5 Gasses

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19 diapositives · 712 Views · Oct 23, 2014

Practice Problems Chang, Chapter 5 Gasses. 5.2 Pressure of a Gas. Convert 749 mmHg to atmospheres. 5.2 Pressure of a Gas. Convert 295 mmHg to kilopascals. 5.4 The Ideal Gas Equation. Calculate the volume (in liters) occupied by 2.12 moles of nitric oxide (NO) at 6.54 atm and 76°C.

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  1. Practice ProblemsChang, Chapter 5Gasses

  2. 5.2 Pressure of a Gas • Convert 749 mmHg to atmospheres.

  3. 5.2 Pressure of a Gas • Convert 295 mmHg to kilopascals.

  4. 5.4 The Ideal Gas Equation • Calculate the volume (in liters) occupied by 2.12 moles of nitric oxide (NO) at 6.54 atm and 76°C.

  5. 5.4 The Ideal Gas Equation • What is the volume (in liters) occupied by 49.8 g of HCl at STP?

  6. 5.4 The Ideal Gas Equation • A sample of chlorine gas occupies a volume of 946 mL at a pressure of 726 mmHg. Calculate the pressure of the gas (in mmHg) if the volume is reduced at constant temperature to 154 mL.

  7. 5.4 The Ideal Gas Equation • A sample of oxygen gas initially at 0.97 atm is cooled from 21°C to -68°C at constant volume. What is its final pressure (in atm)?

  8. 5.4 The Ideal Gas Equation • A gas initially at 4.0 L, 1.2 atm, and 66°C undergoes a change so that its final volume and temperature are 1.7 L and 42°C. What is its final pressure? Assume the number of moles remains unchanged.

  9. 5.4 The Ideal Gas Equation • What is the density (in g/L) of uranium hexafluoride (UF6) at 779 mmHg and 62°C?

  10. 5.4 The Ideal Gas Equation • The density of a gaseous organic compound is 3.38 g/L at 40°C and 1.97 atm. What is its molar mass?

  11. 5.4 The Ideal Gas Equation • A gaseous compound is 78.14 percent boron and 21.86 percent hydrogen. At 27°C 74.3 mL of the gas exerted a pressure of 1.12 atm. If the mass of the gas was 0.0934 g, what is its molecular formula?

  12. 5.5 Gas Stoichiometry • Assume no change in temperature and pressure, calculate the volume of O2 (in liters) required for the complete combustion of 14.9 L of butane (C4H10). 2C4H10(g) + 13O2(g) → 8CO2(g) + 10H2O(l)

  13. 5.5 Gas Stoichiometry The equation for the metabolic breakdown of glucose (C6H12O6) is the same as the equation for the combustion of glucose in air: C6H12O6(g) + 6O2(g) → 6CO2(g) + 6 H2O(l) Calculate the volume of CO2 produced at 37°C and 1.00 atm when 5.6 g of glucose is used up in the reaction.

  14. 5.5 Gas Stoichiometry • A 2.14 L sample of hydrogen chloride (HCl) gas at 2.61 atm and 28°C is completely dissolved in 668 mL of water to form hydrochloric acid solution. Calculate the molarity of the acid solution. Assume no change in volume.

  15. 5.6 Dalton’s Law of Partial Pressures • A sample of a natural gas contains 8.24 moles of methane (CH4), 0.421 mole of ethane (C2H6), and 0.116 mole of propane (C3H8). If the total pressure of the gases is 1.37 atm, what are the partial pressures of the gases?

  16. 5.6 Dalton’s Law of Partial Pressures • Hydrogen gas is generated when calcium metal reacts with water. The gas generated is collected over water at 30°C. The volume of gas produced at pressure of 988 mmHg is 641 mL. What is the mass (in grams) of the hydrogen gas obtained? The pressure of water vapor at 30°C is 31.82 mmHg.

  17. 5.7 The Kinetic Molecular Theory of Gases • Calculate the root-mean-square speed of molecular chlorine in m/s at 20°C.

  18. 5.7 The Kinetic Molecular Theory of Gases • It takes 192 s for an unknown gas to effuse through a porous wall and 84 s for the same volume of N2 gas to effuse at the same temperature and pressure. What is the molar mass of the unknown gas?

  19. 5.8 Deviation from Ideal Behavior • Calculate the pressure exerted by 4.37 moles of molecular chlorine confined in a volume of 2.45 L at 38°C assuming non-ideal conditions. Compare the pressure with that calculated using the ideal gas equation. Cl2: a = 6.49, b = 0.0562