and Dalton and Immiscible solve problems based on Concentration these laws Molarity Molality Mole fraction Predict boiling point Solvation changes based on Heat of solution changes in atmospheric Unsaturated solution pressure Saturated solution Supersaturated Explain the basis for solution gaseous diffusion and Henry’s law effusion Colligative properties Vapor pressure Describe Avogadro’s lowering hypothesis and use it to Boiling point solve stoichiometric elevation problems Freezing depression Explain the difference Osmosis between an and real Osmotic pressure gas, the assumptions made about an ideal gas, and what conditions favor ideal behavior for a real gas Apply the mathematical relationships that exist among the volume, temperature, pressure, and number of particles in an ideal gas Compute gas density when given molar mass, temperature, and pressure Apply the ideal gas law to determine the molar mass of a volatile compound
and Dalton and solve problems based on these laws Predict boiling point changes based on changes in atmospheric pressure Explain the basis for gaseous diffusion and effusion Describe Avogadro’s hypothesis and use it to solve stoichiometric problems Explain the difference between an and real gas, the assumptions made about an ideal gas, and what conditions favor ideal behavior for a real gas Apply the mathematical relationships that exist among the volume, temperature, pressure, and number of particles in an ideal gas Compute gas density when given molar mass, temperature, and pressure Apply the ideal gas law to determine the molar mass of a volatile compound Immiscible Concentration Molarity Molality Mole fraction Solvation Heat of solution Unsaturated solution Saturated solution Supersaturated solution Henry’s law Colligative properties Vapor pressure lowering Boiling point elevation Freezing depression Osmosis Osmotic pressure
Curriculum%20Map%20AP%20Chemistry%202012-2103(1).docx