GCE A/L Chemistry study materials
GCE A/L Chemistry study resources

GCE A/L Chemistry study plan

GCE A/L Chemistry · Give each week a clear focus.

8 weeks · About 7 hours per week

Week 1

Atomic structure and periodicity & Organic chemistry: structure, nomenclature and functional groups

  • Draw electron configurations (including exceptions such as Cr and Cu) and assign quantum numbers for the first 36 elements without notes

  • Explain and predict periodic trends in atomic and ionic radius, ionisation energy, electron affinity and electronegativity using effective nuclear charge and shielding

  • Name and draw straight-chain and branched alkanes, alkenes, alkynes, haloalkanes and alcohols using IUPAC rules, including stereochemical descriptors (E/Z, R/S)

  • Identify and classify functional groups in unfamiliar structures and state the homologous series and general formula for each

Your checkpoint

A one-page annotated periodic-trend summary sheet plus a 40-structure IUPAC naming worksheet scored against a mark scheme (target 85% correct)

Week 2

Chemical bonding and intermolecular forces & Organic chemistry: structure, nomenclature and functional groups

  • Construct dot-and-cross diagrams and predict molecular geometry and bond angles using VSEPR for molecules with 2-6 electron domains, including lone-pair distortions

  • Assign hybridisation and describe sigma/pi bonding in given molecules, relating shape to orbital overlap

  • Rank and justify intermolecular forces (London, dipole-dipole, hydrogen bonding) and predict relative boiling points and solubility

  • Draw and name carbonyl compounds, carboxylic acids, esters, amines, amides and nitriles, and describe their key physical properties

Your checkpoint

A comparison table of 15 molecules giving shape, bond angle, hybridisation, polarity and dominant intermolecular force, plus a written justification of three anomalous boiling points

Week 3

Chemical equilibrium, acids, bases and buffers & Gases, kinetic theory and the mole concept

  • Apply Le Chatelier's principle to predict the direction of shift for changes in concentration, pressure, temperature and catalyst, and explain the effect on Kc and Kp

  • Write and manipulate Kc and Kp expressions, including units, and solve equilibrium composition problems from initial amounts

  • Perform mole calculations involving gases (ideal gas equation, molar volume at RTP), solutions and limiting reagents, with consistent significant figures

  • Calculate pH of strong and weak acids and bases and of buffer solutions from Ka and the Henderson-Hasselbalch relationship

Your checkpoint

A timed 10-question equilibrium-and-moles problem set (45 minutes) fully worked, with a written error log identifying each mistake type

Week 4

Chemical equilibrium, acids, bases and buffers & Energetics and thermochemistry

  • Explain Brønsted-Lowry and Lewis acid-base behaviour and predict the relative strength of acids from structure and conjugate-base stability

  • Construct and interpret titration curves for strong/weak acid-base combinations and select suitable indicators

  • Calculate enthalpy changes from calorimetry data and from standard enthalpy of formation and combustion using Hess's law

  • Use mean bond enthalpies and Born-Haber cycles to calculate lattice enthalpy and explain deviations from ideal ionic behaviour

Your checkpoint

A full mock section on equilibrium, acids, bases and energetics (25 marks) completed under timed conditions with self-marking against a scheme

Week 5

Kinetics and reaction mechanisms & Electrochemistry and redox

  • Derive rate equations from initial-rate and concentration-time data, determine order and rate constant with units, and deduce half-life behaviour for first-order reactions

  • Explain collision theory, the effect of temperature and catalysts on rate, and sketch and interpret Maxwell-Boltzmann and energy profile diagrams

  • Propose stepwise mechanisms consistent with a given rate equation, including SN1, SN2, E1 and E2 for haloalkanes and the role of the intermediate carbocation

  • Assign oxidation states, balance half-equations and full redox equations in acidic and alkaline media, and calculate cell EMF from standard electrode potentials

Your checkpoint

A mechanism-and-kinetics portfolio: 8 hand-drawn mechanisms with curly arrows and rate-law justification, plus 5 fully balanced redox equations with EMF calculations

Week 6

Organic reaction mechanisms and synthesis & Electrochemistry and redox

  • Predict products and write balanced equations for nucleophilic substitution, elimination, addition, oxidation and reduction reactions of the functional groups covered so far

  • Design two- to four-step syntheses from a given starting material to a target molecule, selecting reagents and conditions and justifying each step

  • Explain electrophilic addition to alkenes including Markovnikov orientation and carbocation stability, and the mechanism of electrophilic substitution in arenes

  • Predict the products of electrolysis of molten and aqueous electrolytes and calculate masses and volumes using Faraday's laws

Your checkpoint

A synthesis map linking at least 20 interconversions between functional groups, plus three multi-step synthesis routes written out with reagents, conditions and mechanisms

Week 7

Industrial, environmental and applied chemistry & Laboratory techniques, qualitative and quantitative analysis

  • Describe the chemistry and conditions of the Haber, Contact and Ostwald processes and explain the economic and equilibrium trade-offs in operating conditions

  • Explain the chemistry of greenhouse gases, acid deposition, photochemical smog and water treatment, and evaluate one mitigation strategy with data

  • Select and justify appropriate separation and purification techniques (filtration, recrystallisation, distillation, solvent extraction, chromatography) for given mixtures

  • Interpret qualitative analysis results for common cations, anions and gases, and plan a quantitative titration or gravimetric procedure including indicator and apparatus choice

Your checkpoint

A written practical-style report on one applied topic (e.g. industrial ammonia or water treatment) with calculations, plus a completed unknown-substance identification flow chart

Week 8

Atomic structure and periodicity & Chemical equilibrium, acids, bases and buffers & Organic reaction mechanisms and synthesis

  • Complete two full timed past-paper-style papers under exam conditions and mark them strictly against the scheme

  • Re-derive the five highest-error topics identified in earlier error logs and solve two fresh questions on each

  • Consolidate a single revision sheet of formulas, constants, reagents and conditions for all eleven domains

  • Practise structuring extended written answers with correct terminology, units and significant figures within time limits

Your checkpoint

Two completed timed papers with a final error analysis and a personal one-page formula-and-reagents sheet covering all domains

Milestones

Week 2: Score at least 80% on a self-made 30-question test on atomic structure, periodicity, bonding and nomenclature; if below, redo the week 1-2 worksheets before starting week 3

Week 4: Complete the timed 25-mark equilibrium/acids/energetics section in under 35 minutes with at least 70% of marks and a written error log

Week 6: Draw all 8 mechanisms and 5 redox equations from memory with correct curly arrows and balancing; achieve at least 75% on a mixed kinetics/electrochemistry/organic synthesis set

Week 8: Achieve at least 65% on both full timed papers with no domain scoring below 50%, and confirm every error-log item has been re-tested