CHM 1311
uOttawa
Course Overview
Grade Boosters
Lessons & Practice
I. Welcome
1. Module 1: Chemical Equations
3hr1.1.1. Reaction Stoichiometry1.1.2. Practice: Balancing 1.1.3. Moles1.1.4. Example: Reaction Stoichiometry 1.1.5. Steps for doing Stoichiometry Problems1.1.6. Practice: Stoichiometry (Similar to a question asked on a previous year's midterm) 1.1.7. Practice: Hydrate Question (Similar to a question asked on a previous year's midterm)1.1.8. Example: Stoichiometry
1.4.1. Concentration of Solutions1.4.2. Example: Converting Molarity to Mole Fraction1.4.3. Example: Converting Mole Fraction to Molarity1.4.4. Example: Calculating Molarity from Combined Solutions1.4.5. Practice Question: Calculating Molarity from Mass1.4.6. Practice Question: Calculating Mole Fraction from Molarity
2. Module 2: Gases
3hr3. Module 3: Energy and Thermochemistry
2.2hr4. Module 4: Chemical Equations
2.3hr5. Module 5: Acids and Bases
2.3hr5.3.1. Acids and their Equations5.3.2. Practice5.3.3. Acids With Different Numbers of Protons5.3.4. Bases and their Equations5.3.5. Example5.3.6. Example5.3.7. Percent Ionization or Dissociation5.3.8. Example5.3.9. Types of Acid or Base Reactions and pH Calculations Summary5.3.10. Relationships Between the Strength of an Acid/Base and its Conjugate Base/Acid5.3.11. How to Tell the Stronger Acid by Looking at Conjugate Bases5.3.12. Acidity of Oxyacids
6. Module 6: Ionic Equilibria
4hr7. Module 7: Chemical Kinetics
2.3hr7.3.1. Rate Laws7.3.2. Example: Determining Reaction Order7.3.3. Determining the Rate Law From Experimental Data 7.3.4. Shortcut to Find Units of k Quicker 7.3.5. Practice: Experimental Rate Law 7.3.6. Practice: Determining Rate Law Exponents7.3.7. Practice: Rate Law7.3.8. Practice: Units of the Rate Constant, K7.3.9. Integrated Rate Laws for Various Orders 7.3.10. Example: Plotting a Straight Line with the Integrated Rate Laws 7.3.11. Practice: Integrated Rate Laws Practice7.3.12. Integrated Rate Laws Cheatsheet7.3.13. First Order Reactions7.3.14. Second Order Reactions
7.4.1. 3 Neccessary Steps For a Reaction to Occur 7.4.2. Collision Theory7.4.3. Collision Theory Represented By A Graph7.4.4. How Do We Measure Ea7.4.5. Practice: Determining the Activation Energy7.4.6. Arrhenius Equation7.4.7. Additional Notes on the Arrhenius Equation 7.4.8. Example: Arrhenius Equation 7.4.9. Example: Arrhenius Equation7.4.10. Practice: Arrhenius Equation
7.6.1. Reactions Mechanisms – Elementary Reactions7.6.2. Example: Reactions Mechanisms – Elementary Steps7.6.3. Rate Determining Step Introduction 7.6.4. Example: Rate Determining Step7.6.5. Practice: Rate of A Reaction7.6.6. Practice: Reaction Coordinate Diagram7.6.7. Practice: Mechanism7.6.8. Steady State Approximation7.6.9. Example: Steady State Approximation
8. Module 8: Quantum Theory
8hr8.2.1. The Basics of Absorption and Emission Spectra8.2.2. Bohr's Atomic Model 8.2.3. Absorption vs Emission of a Photon8.2.4. Example8.2.5. Example8.2.6. Bohr Model Equations8.2.7. Example8.2.8. Example8.2.9. Practice 8.2.10. The Bohr Model and Atomic Line Spectra8.2.11. Relating Electronic Transitions to Emission Spectra8.2.12. Example8.2.13. Practice8.2.14. Practice
8.4.1. Schrodinger's Equation8.4.2. Quantum Numbers8.4.3. Quantum Numbers Cheatsheet8.4.4. Example8.4.5. Example8.4.6. Example8.4.7. Practice8.4.8. Shapes (aka Boundary Diagrams) of Atomic Orbitals8.4.9. Drawing Atomic Orbitals8.4.10. Example8.4.11. Practice8.4.12. Angular and Radial Nodes8.4.13. Wave Properties of Electrons8.4.14. Plotting Radial Electron Probability8.4.15. Example8.4.16. Example8.4.17. Example8.4.18. Practice8.4.19. Nodes8.4.20. Relative Energies of Atomic Orbitals8.4.21. Rules for Orbital Filling8.4.22. Example8.4.23. Example8.4.24. Practice8.4.25. Practice
8.5.1. Electronic Configurations of Atoms8.5.2. Electron Configurastions Cheatsheet8.5.3. Electron Configuration Exceptions8.5.4. Example8.5.5. Example8.5.6. Practice8.5.7. Practice8.5.8. Practice 8.5.9. Electron Configurations of Ions of Main Group Elements8.5.10. Electron Configuration of Ions of Transition Elements8.5.11. Example8.5.12. Example8.5.13. Practice8.5.14. Diamagnetic Vs Paramagnetic 8.5.15. Example8.5.16. Practice8.5.17. Ground State Vs Excited State Electron Configurations8.5.18. Example8.5.19. Example8.5.20. Practice8.5.21. Practice
8.6.1. Atomic Radius8.6.2. Effective Nuclear Charge 8.6.3. Example8.6.4. Practice8.6.5. Ionic Radius8.6.6. Example8.6.7. Example8.6.8. Practice8.6.9. Ionization Energy 8.6.10. Comparing 1st, 2nd, and 3rd Ionization Energies8.6.11. Practice8.6.12. Practice8.6.13. Practice8.6.14. Electron Affinity 8.6.15. Example8.6.16. Practice8.6.17. Practice8.6.18. Electronegativity 8.6.19. Example8.6.20. Practice8.6.21. Periodic Trends Theory8.6.22. Example8.6.23. Practice8.6.24. Practice8.6.25. Practice8.6.26. Exceptions to Periodic Trends Introduction8.6.27. Exceptions to Periodic Trends Examples8.6.28. Exceptions to Periodic Trends Summary8.6.29. Example8.6.30. Practice
9. Module 9: Chemical Bonding
3hrME.2 Midterm 2 - Mock Assessment
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Midterm 2 - Mock Assessment
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