Pancyprian Chemistry study plan

Name and draw all alkanes, alkenes, alkynes, haloalkanes, alcohols and carboxylic acids up to six carbons from a given structure or formula, applying IUPAC rules without notes

Assign oxidation numbers and balance full equations for combustion and addition reactions of the functional groups covered this week

Convert between mass, moles, molar mass and gas volume at STP for at least twenty mixed practice items with under ten percent error

Build a one-page reaction map linking substitution, addition, elimination and oxidation routes between the functional groups studied

Predict the major product of electrophilic addition to unsymmetrical alkenes using Markovnikov's rule and of radical halogenation of alkanes

Distinguish primary, secondary and tertiary alcohols and haloalkanes and predict their relative reactivity in substitution and elimination

Write rate expressions and determine reaction order from initial-rate data tables

Explain how a catalyst changes the rate but not the equilibrium position, using an energy profile sketch

Write full and condensed electron configurations for atoms and ions up to krypton, including exceptions such as chromium and copper

Relate periodic trends in atomic radius, ionisation energy and electronegativity to nuclear charge and shielding

Draw Lewis structures and assign VSEPR shapes and bond angles for molecules with up to five electron domains, including lone-pair distortions

Rank substances by the type and strength of intermolecular forces and link this to boiling point and solubility

Calculate pH, pOH and concentrations in strong and weak acid and base solutions, including buffers made from a weak acid and its salt

Perform titration stoichiometry calculations and select a suitable indicator from endpoint pH reasoning

Apply Hess's law and standard enthalpy of formation to calculate reaction enthalpy for at least ten reactions

Calculate calorimetry results from temperature-change data and identify the main sources of heat loss

Apply Le Chatelier's principle to predict the direction of shift for changes in concentration, pressure and temperature, including the effect on the equilibrium constant

Calculate equilibrium constants and equilibrium concentrations from initial amounts using an ICE table

Use the ideal gas equation and Dalton's law to solve mixed-gas problems, converting correctly between units

Calculate solution concentration, dilution and mass-percentage values and convert between molarity and moles

Assign oxidation states and identify oxidising and reducing agents in complex redox equations, then balance them in acidic and basic media

Predict the products of electrolysis of molten and aqueous salts and write the electrode half-equations

Describe the trends in group 1, group 2, group 17 and the first-row transition elements, including characteristic colours and oxidation states

Explain why transition metals form coloured complexes and act as catalysts, using ligand and d-orbital reasoning

Select appropriate apparatus and separation techniques for filtration, distillation, crystallisation and titration scenarios

Identify systematic and random error sources and describe how to reduce each in a described experiment

Process tabulated experimental data, including significant figures, unit consistency and graphical determination of a gradient

Solve multi-step stoichiometry problems involving limiting reagents and percentage yield

Complete two full-length timed mock papers under exam conditions and record the score per domain

Re-teach the three lowest-scoring sub-topics from weeks one to seven using fresh worked examples

Reduce the error log to zero unresolved items by reworking every previously missed question

State the key formula and rule set for each domain from memory in a single condensed revision sheet