Advanced Chemistry Course

Lesson 1 • Atomic Theory and Subatomic Particles

Covers the historical development of atomic models and the properties of protons, neutrons, and electrons. Anchors all subsequent bonding and reactivity concepts.

Lesson 2 • The Periodic Table and Elemental Trends

Examines periodic law and trends in atomic radius, ionisation energy, and electronegativity. Enables prediction of element reactivity and compound formation.

Lesson 3 • Electron Configuration and Quantum Numbers

Introduces quantum mechanical description of electron arrangement using orbitals and quantum numbers. Directly supports understanding of periodic trends and bonding.

Lesson 1 • Covalent Bonding and Lewis Structures

Covers shared electron pairs, bond order, and Lewis dot structure construction including resonance. Builds the structural foundation for molecular geometry analysis.

Lesson 2 • VSEPR Theory and Molecular Shapes

Applies VSEPR model to predict three-dimensional molecular geometries from electron pair repulsion. Directly informs polarity and intermolecular force analysis.

Lesson 3 • Polarity, Hybridisation, and Molecular Orbitals

Introduces bond polarity, dipole moments, sp hybridisation, and molecular orbital theory. Connects electronic structure to spectroscopic and reactive behaviour.

Lesson 4 • Intermolecular Forces and Physical Properties

Distinguishes London dispersion, dipole-dipole, and hydrogen bonding forces and their effects on boiling point and solubility. Bridges molecular structure to bulk material behaviour.

Lesson 1 • Stoichiometric Calculations and Limiting Reagents

Applies mole ratios to calculate reactant and product quantities, identifying limiting and excess reagents. Core quantitative skill for all laboratory and industrial applications.

Lesson 2 • Percent Yield and Solution Stoichiometry

Introduces actual vs. theoretical yield analysis and extends stoichiometry to solution-phase reactions using molarity. Connects calculations to real laboratory outcomes.

Lesson 3 • The Mole Concept and Molar Mass

Defines Avogadro's number, molar mass, and conversions among mass, moles, and particles. Establishes the quantitative bridge between atomic and macroscopic scales.

Lesson 4 • Balancing Chemical Equations

Teaches conservation of mass through systematic equation balancing by inspection and algebraic methods. Prepares students for stoichiometric ratio extraction.

Lesson 1 • Enthalpy and Hess's Law

Covers standard enthalpies of formation and reaction, applying Hess's law to calculate unmeasured enthalpy changes. Enables thermochemical analysis of complex reaction pathways.

Lesson 2 • Heat, Energy, and Calorimetry

Defines heat, work, and internal energy within the first law of thermodynamics and applies calorimetry to measure reaction enthalpy. Grounds energy concepts in measurable quantities.

Lesson 3 • Entropy and the Second Law

Introduces entropy as a measure of disorder and the second law as the driver of spontaneous change. Connects molecular-level randomness to macroscopic thermodynamic predictions.

Lesson 1 • Reaction Mechanisms and Catalysis

Examines elementary steps, rate-determining steps, and how catalysts lower activation energy. Connects mechanistic understanding to rational catalyst design.

Lesson 2 • ICE Tables and Equilibrium Calculations

Applies ICE (Initial-Change-Equilibrium) tables to solve for equilibrium concentrations and validate K values. Develops systematic problem-solving for equilibrium systems.

Lesson 3 • Le Chatelier's Principle and Equilibrium Shifts

Predicts equilibrium shifts in response to concentration, pressure, and temperature changes using Le Chatelier's principle. Applies directly to industrial process optimisation.

Lesson 4 • Reaction Rate Laws and Rate Constants

Introduces rate laws, reaction orders, and the rate constant with its temperature dependence. Provides the mathematical basis for controlling reaction speed.

Lesson 1 • Buffers and Titration Curves

Explains buffer action using the Henderson-Hasselbalch equation and interprets titration curves for equivalence point determination. Critical for analytical and biological chemistry applications.

Lesson 2 • Acid-Base Theories and Strength

Compares Arrhenius, Brønsted-Lowry, and Lewis acid-base definitions and distinguishes strong from weak acids and bases. Establishes the conceptual framework for all pH calculations.

Lesson 3 • Oxidation-Reduction and Electrochemical Cells

Assigns oxidation states, balances redox equations, and analyses galvanic and electrolytic cell operation. Connects electron transfer chemistry to energy storage and electroplating.

Lesson 4 • Nernst Equation and Electrochemical Applications

Applies the Nernst equation to calculate cell potential under non-standard conditions and links electrochemistry to free energy. Supports battery technology and corrosion analysis.

Lesson 1 • Stereochemistry and Isomerism

Distinguishes constitutional, geometric, and enantiomeric isomers and introduces chirality and R/S configuration. Essential for understanding biological activity and reaction selectivity.

Lesson 2 • Hydrocarbons and Functional Groups

Classifies alkanes, alkenes, alkynes, and aromatic compounds and introduces major functional groups. Provides the structural vocabulary for all organic chemistry analysis.

Lesson 3 • Carbonyl Chemistry and Functional Group Transformations

Examines nucleophilic addition to aldehydes and ketones, ester hydrolysis, and amide formation. Builds synthetic competency for constructing complex organic molecules.

Lesson 4 • Nucleophilic Substitution and Elimination

Analyses SN1, SN2, E1, and E2 mechanisms with respect to substrate, nucleophile, and solvent effects. Develops mechanistic reasoning for predicting organic reaction outcomes.

Lesson 1 • Computational and Spectroscopic Methods

Introduces IR, NMR, and mass spectrometry for structural elucidation and computational modelling for property prediction. Equips students with modern analytical and theoretical tools.

Lesson 2 • Nuclear Chemistry and Radioactivity

Covers radioactive decay modes, half-life calculations, and nuclear fission and fusion reactions. Connects nuclear processes to energy production and radiochemical applications.

Lesson 3 • Polymer Chemistry and Macromolecules

Examines addition and condensation polymerisation mechanisms, polymer structure, and material properties. Bridges organic chemistry to materials science applications.

Lesson 4 • Green Chemistry and Sustainable Practices

Applies the twelve principles of green chemistry to evaluate reaction efficiency, atom economy, and waste reduction. Prepares students to design environmentally responsible chemical processes.