MATSEC AM Chemistry study plan

Map the full AM Chemistry syllabus into a personal checklist that flags every topic as confident, shaky, or unseen, and rank them by likely exam weight.

Define the atomic model and electron configuration rules (Aufbau, Hund, Pauli) and apply them to write configurations and orbital diagrams for elements across periods 1-4.

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

Practise drawing dot-and-cross and Lewis structures for simple molecules and ions, then predict their shapes with VSEPR and state bond angles.

Balance redox equations in acidic and alkaline media using oxidation states and half-equations, and identify oxidising and reducing agents in unfamiliar reactions.

Calculate reacting masses, limiting reagents, percentage yield, and concentrations for solution reactions, including titrations with mole ratios other than 1:1.

Apply the ideal gas equation and molar volume at STP to link moles, mass, and gas volumes in multi-step problems.

Distinguish empirical from molecular formulae and derive each from percentage composition or combustion data.

Describe the structure and bonding of ionic, simple molecular, giant covalent, and metallic solids, and use these to explain melting point, solubility, and conductivity.

Explain enthalpy changes of reaction, formation, combustion, and neutralisation, and construct Hess's law cycles to calculate an unknown enthalpy change.

Apply average bond enthalpy data to estimate reaction enthalpies and explain why such estimates differ from values derived from formation enthalpies.

Interpret simple Born-Haber cycles for an ionic compound and identify which step corresponds to lattice enthalpy, electron affinity, and ionisation energy.

State and apply Le Chatelier's principle to predict the effect of concentration, pressure, and temperature changes on equilibrium position and on Kc.

Write equilibrium constant expressions and calculate Kc from equilibrium concentrations, including setting up an ICE table from initial amounts.

Explain the factors affecting reaction rate using collision theory and interpret rate-concentration and rate-time graphs qualitatively.

Define acids and bases using Bronsted-Lowry theory, write conjugate pairs, and calculate pH for strong acids, strong bases, and buffer solutions.

Explain the trends in Group 2 (solubility of hydroxides and sulfates, thermal stability of carbonates and nitrates) and Group 17 (oxidising power, displacement reactions, hydrogen halide acidity).

Describe the characteristic reactions and tests for common cations and anions, and design a logical scheme to identify an unknown salt from given observations.

Explain the structure, bonding, and reactivity of Period 3 elements and their oxides and chlorides in terms of bonding type and acid-base behaviour.

Use electrode potentials to predict whether a redox reaction is feasible and to explain the relative oxidising strength of halogens.

Name and classify organic compounds by homologous series and functional group, and draw structural, displayed, and skeletal formulae for a given molecular formula.

Describe free-radical substitution in alkanes and electrophilic addition in alkenes, including the mechanism with curly arrows and the reason for Markovnikov regioselectivity.

Explain nucleophilic substitution (SN1 and SN2) in halogenoalkanes, comparing rates for primary, secondary, and tertiary halides and for different halide leaving groups.

Describe oxidation and reduction reactions of alcohols and carbonyl compounds, and select appropriate reagents and conditions for each transformation.

Distinguish structural isomers, stereoisomers, and optical isomers, and identify chiral centres and E/Z geometry in unfamiliar molecules.

Design multi-step synthetic routes between given functional groups, specifying reagents and conditions for each step and checking carbon skeleton changes.

Explain the acidity of carboxylic acids and the relative basicity of amines, and describe the formation and hydrolysis of esters, amides, and acyl chlorides.

Interpret infrared and mass spectra and simple proton NMR spectra to deduce or confirm the structure of an unknown organic compound.

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

Build a personal error log that classifies every lost mark as knowledge gap, calculation slip, misread question, or incomplete explanation, then close the top five gaps.

Rehearse command-word responses (state, explain, deduce, suggest) so that answers match the depth and precision the mark scheme rewards.

Condense all eight weeks of notes into a single revision sheet covering equations, mechanisms, and key definitions for final review.