Course curriculum
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1. Atom and sub-atomic particles
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2. Deflection and calculation of sub-atomic particles
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Exercise 1
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3. Isotopes
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4. Principle quantum number and shapes of S and P orbitals
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5. Relative energy of s, p, d and f orbitals
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6. Electronic configurations
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Exercise 2
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7. Electronic configuration of chromium and copper
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Exercise 3
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8. Electronic configurations of cations and anions
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Exercise 4
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Exercise 5
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9. Radical and energy levels of orbitals
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10. Ist Ionisation
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Exercise 6
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11. 2nd Ionisation
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Exercise 7
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12. 3rd ionisation energy and effect of nuclear charge on ionisation energy
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Exercise 8
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13. Effect of shielding effect and atomic radius on ionisation energy
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14. Variation of 1st ionisation energy across a period
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15. Anomalous in ionisation energy between P and S
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16. Variation of 1st ionisation energy down a group
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17. Successive ionisation energies and electronic configuration
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Exercise 9
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18. Worked solutions
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Exercise 10
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Exercise 11
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19. Worked solutions
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Exercise 12
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Exercise 13
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1. Atoms and isotopes
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2. Calculation of AR and MR
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3. Relative formula mass
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4. Mass spectrometry
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5. Mole
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6. Molar volume and revision on solubility rule
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7. Revision on Ionic equations
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8. Molecular and empirical formulae
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9. Example of molecular and empirical formulae
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10. Reacting masses and volumes
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11. Reacting masses and volumes
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12. Limiting reagent and excess reagent
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13. Limiting reagent and excess reagent
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14. Reacting mass including percentage
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15. Volumes and concentrations of solution
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16. Volumes and concentrations of solution
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17. Worked solutions
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18. Worked solutions
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19. Worked solutions
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20. Worked solutions
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21. Worked solutions
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1. Chemical bonding
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2. Ionic bonding
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3. Examples of ionic bonding
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4. Physical properties of ionic compounds
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5. Metallic bonding
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6. Physical properties of metallic bonding
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7. Covalent bond
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8. Covalent bonding
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9. Physical properties of covalent bonding
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10. Coordinate bonding
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11. Dimerisation of AlCl3
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12. Shapes of molecules
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13. Shapes of molecules
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14. Shapes of molecules
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15. Shapes of molecules
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16. Summarising shapes of molecules
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17. Hybridisation of orbitals
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18. Hybridisation
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19. Hybridisation
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20. Electronegativity
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21. Variation of electronegativity values across a period
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22. Variation of electronegativity values down the group
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23. Bond polarity
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24. Bond length
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25. Bond energy
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26. Types of intermolecular forces
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27. Temporary induced dipole
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28. Permanent dipole - dipole attractions
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29. Hydrogen bonding
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30. Effects of hydrogen bonding
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31. Question 1-3
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32. Question 4-5
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1. Solid states
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2. Liquid state
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3. Melting
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4. Gaseous state
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5. Basic assumptions of ideal gases
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6. Ideal gases
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7. Ideal gas equation
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8. Conditions for ideality
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9. Example
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10. Graphical representation using ideal equation
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11. Vaporisation and vapour pressure
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12. Example
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13. The lattice structures of crystalline solids
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14. Giant molecular structure
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15. Giant molecular structure
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16. Giant ionic structure
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17. Giant metallic structure
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18. Simple molecular structure
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19. Worked solution 1 and 2
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20. Worked solution 3 and 4
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1. Standard enthalpy
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2. Energy profile diagrams
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3. Standard enthalpy change combustion
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4. Standard enthalpy change combustion
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5. Bond energy
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6. Calculating enthalpy change
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7. Hess law
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8. Standard change atomisation
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9. Electron affinity
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10. Factors affecting the electron
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11. Lattice energy
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12. Factors affecting lattice energy
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13. Born haber cycle
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14. Born Haber cycle of NaCl
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15. Born Haber cycle of NaCl
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16. Standard enthalpy change of hydration
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17. Factors affecting enthalpy change of hydration
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18. Relationship
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19. Enthropy change
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20. Factors affecting entropy
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21. Gibbs free energy change
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22. Spontaneity of reactions
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23. Worked solution Q1 expt 1
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24. Worked solution Q1 expt 2
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25. Worked solution Q2
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26. Worked solution Q2
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27. Worked solution Q3
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28. Worked solution Q4
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1. Calculation of oxidation states
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2. Oxidation and reduction
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3. Using change in oxidation states to write balanced half equations
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4. Balancing redox equations
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5. Redox in terms of electrons
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6. Disproportion reaction
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7. Standard half cells
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8. Standard electrode potentials
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9. Standard cell potential
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10. Salt bridge
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11. Nernst equation
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12. Predicting the feasibility of reactions using E cell
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13. Electrolysis
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14. Selective aqueous ions
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15. Selective discharge
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16. Faraday constant F
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17. Example
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18. Example to find a value
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19. Cell potential and Gibbs
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20. Worked solution Q1
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21. Worked solution Q2
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22. Worked solution Q3
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23. Worked solution Q4
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About this course
- 337 lessons