Pricing

Special Rate MUR 500 (validity for 6 months)

Course curriculum

    1. 1. Atom and sub-atomic particles

    2. 2. Deflection and calculation of sub-atomic particles

    3. Exercise 1

    4. 3. Isotopes

    5. 4. Principle quantum number and shapes of S and P orbitals

    6. 5. Relative energy of s, p, d and f orbitals

    7. 6. Electronic configurations

    8. Exercise 2

    9. 7. Electronic configuration of chromium and copper

    10. Exercise 3

    11. 8. Electronic configurations of cations and anions

    12. Exercise 4

    13. Exercise 5

    14. 9. Radical and energy levels of orbitals

    15. 10. Ist Ionisation

    16. Exercise 6

    17. 11. 2nd Ionisation

    18. Exercise 7

    19. 12. 3rd ionisation energy and effect of nuclear charge on ionisation energy

    20. Exercise 8

    21. 13. Effect of shielding effect and atomic radius on ionisation energy

    22. 14. Variation of 1st ionisation energy across a period

    23. 15. Anomalous in ionisation energy between P and S

    24. 16. Variation of 1st ionisation energy down a group

    25. 17. Successive ionisation energies and electronic configuration

    26. Exercise 9

    27. 18. Worked solutions

    28. Exercise 10

    29. Exercise 11

    30. 19. Worked solutions

    31. Exercise 12

    32. Exercise 13

    1. 1. Atoms and isotopes

    2. 2. Calculation of AR and MR

    3. 3. Relative formula mass

    4. 4. Mass spectrometry

    5. 5. Mole

    6. 6. Molar volume and revision on solubility rule

    7. 7. Revision on Ionic equations

    8. 8. Molecular and empirical formulae

    9. 9. Example of molecular and empirical formulae

    10. 10. Reacting masses and volumes

    11. 11. Reacting masses and volumes

    12. 12. Limiting reagent and excess reagent

    13. 13. Limiting reagent and excess reagent

    14. 14. Reacting mass including percentage

    15. 15. Volumes and concentrations of solution

    16. 16. Volumes and concentrations of solution

    17. 17. Worked solutions

    18. 18. Worked solutions

    19. 19. Worked solutions

    20. 20. Worked solutions

    21. 21. Worked solutions

    1. 1. Chemical bonding

    2. 2. Ionic bonding

    3. 3. Examples of ionic bonding

    4. 4. Physical properties of ionic compounds

    5. 5. Metallic bonding

    6. 6. Physical properties of metallic bonding

    7. 7. Covalent bond

    8. 8. Covalent bonding

    9. 9. Physical properties of covalent bonding

    10. 10. Coordinate bonding

    11. 11. Dimerisation of AlCl3

    12. 12. Shapes of molecules

    13. 13. Shapes of molecules

    14. 14. Shapes of molecules

    15. 15. Shapes of molecules

    16. 16. Summarising shapes of molecules

    17. 17. Hybridisation of orbitals

    18. 18. Hybridisation

    19. 19. Hybridisation

    20. 20. Electronegativity

    21. 21. Variation of electronegativity values across a period

    22. 22. Variation of electronegativity values down the group

    23. 23. Bond polarity

    24. 24. Bond length

    25. 25. Bond energy

    26. 26. Types of intermolecular forces

    27. 27. Temporary induced dipole

    28. 28. Permanent dipole - dipole attractions

    29. 29. Hydrogen bonding

    30. 30. Effects of hydrogen bonding

    31. 31. Question 1-3

    32. 32. Question 4-5

    1. 1. Solid states

    2. 2. Liquid state

    3. 3. Melting

    4. 4. Gaseous state

    5. 5. Basic assumptions of ideal gases

    6. 6. Ideal gases

    7. 7. Ideal gas equation

    8. 8. Conditions for ideality

    9. 9. Example

    10. 10. Graphical representation using ideal equation

    11. 11. Vaporisation and vapour pressure

    12. 12. Example

    13. 13. The lattice structures of crystalline solids

    14. 14. Giant molecular structure

    15. 15. Giant molecular structure

    16. 16. Giant ionic structure

    17. 17. Giant metallic structure

    18. 18. Simple molecular structure

    19. 19. Worked solution 1 and 2

    20. 20. Worked solution 3 and 4

    1. 1. Standard enthalpy

    2. 2. Energy profile diagrams

    3. 3. Standard enthalpy change combustion

    4. 4. Standard enthalpy change combustion

    5. 5. Bond energy

    6. 6. Calculating enthalpy change

    7. 7. Hess law

    8. 8. Standard change atomisation

    9. 9. Electron affinity

    10. 10. Factors affecting the electron

    11. 11. Lattice energy

    12. 12. Factors affecting lattice energy

    13. 13. Born haber cycle

    14. 14. Born Haber cycle of NaCl

    15. 15. Born Haber cycle of NaCl

    16. 16. Standard enthalpy change of hydration

    17. 17. Factors affecting enthalpy change of hydration

    18. 18. Relationship

    19. 19. Enthropy change

    20. 20. Factors affecting entropy

    21. 21. Gibbs free energy change

    22. 22. Spontaneity of reactions

    23. 23. Worked solution Q1 expt 1

    24. 24. Worked solution Q1 expt 2

    25. 25. Worked solution Q2

    26. 26. Worked solution Q2

    27. 27. Worked solution Q3

    28. 28. Worked solution Q4

    1. 1. Calculation of oxidation states

    2. 2. Oxidation and reduction

    3. 3. Using change in oxidation states to write balanced half equations

    4. 4. Balancing redox equations

    5. 5. Redox in terms of electrons

    6. 6. Disproportion reaction

    7. 7. Standard half cells

    8. 8. Standard electrode potentials

    9. 9. Standard cell potential

    10. 10. Salt bridge

    11. 11. Nernst equation

    12. 12. Predicting the feasibility of reactions using E cell

    13. 13. Electrolysis

    14. 14. Selective aqueous ions

    15. 15. Selective discharge

    16. 16. Faraday constant F

    17. 17. Example

    18. 18. Example to find a value

    19. 19. Cell potential and Gibbs

    20. 20. Worked solution Q1

    21. 21. Worked solution Q2

    22. 22. Worked solution Q3

    23. 23. Worked solution Q4

About this course

  • 337 lessons