VCE Chemistry study plan

VCE Chemistry · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Units 1 and 2

Map the Units 1-2 study design into a checklist of every key knowledge point and dot point
Define and apply the mole concept, molar mass and Avogadro's constant to convert between mass, moles and particle number
Write and balance ionic and full equations for common precipitation, acid-base and redox reactions
Set up a formula and constants reference sheet you will maintain all course

A one-page equations and constants sheet plus a completed topic checklist with each dot point marked confident, shaky or unseen

Week 2

Explain ionic and covalent bonding in terms of electron transfer and sharing, and predict bond polarity from electronegativity differences
Relate intermolecular forces to observed melting point, boiling point and solubility trends
Draw and interpret Lewis structures and shapes for common molecules
Solve stoichiometry problems involving limiting reagents and percentage yield

A set of 15 worked bonding and stoichiometry problems with full reasoning, self-marked against the study design

Week 3

Classify matter as elements, compounds and mixtures and select suitable separation techniques for given mixtures
Describe the periodic table trends in atomic radius, ionisation energy and reactivity and link them to electron configuration
Perform calculations involving concentration, dilution and volumetric glassware uncertainty
Interpret flame tests and other simple qualitative analysis evidence

A written practical-style report of 400-600 words analysing a simulated mixture-separation and qualitative-analysis scenario

Week 4

Summarise the key skills of Units 1-2 into a condensed revision set
Complete a timed mixed-topic set under exam conditions without notes
Identify and re-teach your three weakest Units 1-2 areas
Explain energy changes in reactions using enthalpy and bond-breaking/bond-forming reasoning

A timed 60-minute mixed Units 1-2 practice paper scored and error-analysed by topic

Week 5

Apply organic nomenclature and isomerism rules to name and draw alkanes, alkenes, alcohols, carboxylic acids and esters
Predict and write equations for addition, substitution, oxidation, esterification and condensation reactions
Distinguish primary, secondary and tertiary structures and relate functional groups to physical properties
Link reaction pathways to real-world contexts such as fuels, polymers and pharmaceuticals

A reaction-pathway flowchart covering at least 10 conversions, each annotated with reagents and conditions

Week 6

Analyse galvanic cells and electrolytic cells using standard electrode potentials and oxidation numbers
Write half-equations and full redox equations and calculate cell potentials
Explain the factors affecting reaction rate using collision theory and interpret rate graphs
Apply Le Chatelier's principle to predict shifts in equilibrium position

A worked set of 12 electrochemistry and equilibrium problems including at least three multi-step calculations

Week 7

Perform acid-base calculations including pH, Ka, titration curves and buffer behaviour
Interpret volumetric analysis data and calculate concentrations from titration results
Analyse calorimetry and enthalpy data to determine energy changes
Evaluate the reliability and accuracy of experimental data and identify sources of error

A complete analysis of a simulated titration and calorimetry dataset with calculated results and an error evaluation

Week 8

Two full timed practice papers completed with a written error log and a final one-page summary of remaining weak points

Week 2: Can solve mole, stoichiometry and bonding questions unaided at 80% accuracy

Week 4: Timed mixed Units 1-2 paper completed and scored, with error analysis written up

Week 6: Can write correct half-equations and predict equilibrium shifts for unseen scenarios

Week 8: Both full practice papers completed under time, with error log and final summary finished