Pearson Edexcel · International A-Level
Chemistry · Chimie
Papers, samples and curriculum documents for this course. · Dossiers, échantillons et documents de programme pour ce cours.
Qualification code · Code de qualification: XCH11 / YCH11
Recent past papers · Anciens sujets récents
77 paper and mark-scheme pairs · paires sujet-barème de correction
Browse papers and mark schemes · Consulter les dossiers et les barèmes de correction →Handouts, exercise sheets and slides
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Handouts · Supports de cours · A-Level Chemistry · Chimie A-Level (37)
- 1. Atomic structure · 1. Structure atomique
- 2. Atoms, molecules and stoichiometry · 2. Atomes, molécules et stœchiométrie
- 3. Chemical bonding · 3. Liaisons chimiques
- 4. States of matter · 4. États de la matière
- 5. Chemical energetics · 5. Énergétique chimique
- 6. Electrochemistry · 6. Électrochimie
- 7. Equilibria · 7. Équilibres
- 8. Reaction kinetics · 8. Cinétique chimique
- 9. The Periodic Table: chemical periodicity · 9. Tableau périodique : périodicité chimique
- 10. Group 2 · 10. Groupe 2
- 11. Group 17 · 11. Groupe 17
- 12. Nitrogen and sulfur · 12. Azote et soufre
- 13. An introduction to AS Level organic chemistry · 13. Introduction à la chimie organique niveau AS
- 14. Hydrocarbons · 14. Hydrocarbures
- 15. Halogen compounds · 15. Composés halogénés
- 16. Hydroxy compounds · 16. Composés hydroxylés
- 17. Carbonyl compounds · 17. Composés carbonyles
- 18. Carboxylic acids and derivatives · 18. Acides carboxyliques et dérivés
- 19. Nitrogen compounds · 19. Composés azotés
- 20. Polymerisation · 20. Polymérisation
- 21. Organic synthesis · 21. Synthèse organique
- 22. Analytical techniques · 22. Techniques analytiques
- 23. Chemical energetics · 23. Énergétique chimique
- 24. Electrochemistry · 24. Électrochimie
- 25. Equilibria · 25. Équilibres
- 26. Reaction kinetics · 26. Cinétique chimique
- 27. Group 2 · 27. Groupe 2
- 28. Chemistry of transition elements · 28. Chimie des éléments de transition
- 29. An introduction to A Level organic chemistry · 29. Introduction à la chimie organique niveau A
- 30. Hydrocarbons · 30. Hydrocarbures
- 31. Halogen compounds · 31. Composés halogénés
- 32. Hydroxy compounds · 32. Composés hydroxylés
- 33. Carboxylic acids and derivatives · 33. Acides carboxyliques et dérivés
- 34. Nitrogen compounds · 34. Composés azotés
- 35. Polymerisation · 35. Polymérisation
- 36. Organic synthesis · 36. Synthèse organique
- 37. Analytical techniques · 37. Techniques analytiques
Exercise sheets · Fiches d'exercices · A-Level Chemistry · Chimie A-Level (90)
- 1.1 Particles in the atom and atomic radius · 1.1 Particules dans l'atome et rayon atomique
- 1.2 Isotopes
- 1.3 Electrons, energy levels and atomic orbitals · 1.3 Électrons, niveaux d'énergie et orbitales atomiques
- 1.4 Ionisation energy · 1.4 Énergie d'ionisation
- 2.1 Relative masses of atoms and molecules · 2.1 Masses relatives des atomes et des molécules
- 2.2 The mole and the Avogadro constant · 2.2 La mole et la constante d'Avogadro
- 2.3 Formulas · 2.3 Formules
- 2.4 Reacting masses and volumes (of solutions and gases) · 2.4 Masses et volumes réactionnels (de solutions et de gaz)
- 3.1 Electronegativity and bonding · 3.1 Électronégativité et liaisons
- 3.2 Ionic bonding · 3.2 Liaison ionique
- 3.3 Metallic bonding · 3.3 Liaison métallique
- 3.4 Covalent bonding and coordinate (dative covalent) bonding · 3.4 Liaison covalente et liaison coordonnée (covalente dative)
- 3.5 Shapes of molecules · 3.5 Formes moléculaires
- 3.6 Intermolecular forces, electronegativity and bond properties · 3.6 Forces intermoléculaires, électronégativité et propriétés des liaisons
- 3.7 Dot-and-cross diagrams · 3.7 Diagrammes point et croix
- 4.1 The gaseous state: ideal and real gases and pV = nRT · 4.1 État gazeux : gaz idéaux et réels et pV = nRT
- 4.2 Bonding and structure · 4.2 Liaisons et structure
- 5.1 Enthalpy change, ΔH · 5.1 Variation d'enthalpie, ΔH
- 5.2 Hess’s law · 5.2 Loi de Hess
- 6.1 Redox processes: electron transfer and changes in oxidation number (oxidation state) · 6.1 Processus redox : transfert d'électrons et variations du nombre d'oxydation (état d'oxydation)
- 7.1 Chemical equilibria: reversible reactions, dynamic equilibrium · 7.1 Équilibres chimiques : réactions réversibles, équilibre dynamique
- 7.2 Brønsted–Lowry theory of acids and bases · 7.2 Théorie des acides et des bases de Brønsted–Lowry
- 8.1 Rate of reaction · 8.1 Vitesse de réaction
- 8.2 Effect of temperature on reaction rates and the concept of activation energy · 8.2 Effet de la température sur les vitesses de réaction et notion d'énergie d'activation
- 8.3 Homogeneous and heterogeneous catalysts · 8.3 Catalyseurs homogènes et hétérogènes
- 9.1 Periodicity of physical properties of the elements in Period 3 · 9.1 Périodicité des propriétés physiques des éléments de la période 3
- 9.2 Periodicity of chemical properties of the elements in Period 3 · 9.2 Périodicité des propriétés chimiques des éléments de la période 3
- 9.3 Chemical periodicity of other elements · 9.3 Périodicité chimique d'autres éléments
- 10.1 Similarities and trends in the properties of the Group 2 metals, magnesium to barium, and their compounds · 10.1 Similitudes et tendances dans les propriétés des métaux du groupe 2, magnésium à baryum, et de leurs composés
- 11.1 Physical properties of the Group 17 elements · 11.1 Propriétés physiques des éléments du groupe 17
- 11.2 The chemical properties of the halogen elements and the hydrogen halides · 11.2 Propriétés chimiques des halogènes et des halogénures d'hydrogène
- 11.3 Some reactions of the halide ions · 11.3 Certaines réactions des ions halogénures
- 11.4 The reactions of chlorine · 11.4 Réactions du chlore
- 12.1 Nitrogen and sulfur · 12.1 Azote et soufre
- 13.1 Formulas, functional groups and the naming of organic compounds · 13.1 Formules, groupes fonctionnels et nomenclature des composés organiques
- 13.2 Characteristic organic reactions · 13.2 Réactions organiques caractéristiques
- 13.3 Shapes of organic molecules; σ and π bonds · 13.3 Formes des molécules organiques ; liaisons σ et π
- 13.4 Isomerism: structural isomerism and stereoisomerism · 13.4 Isomérie : isomérie structurale et stéréoisomérie
- 14.1 Alkanes · 14.1 Alcanes
- 14.2 Alkenes · 14.2 Alcènes
- 15.1 Halogenoalkanes · 15.1 Haloalcanes
- 16.1 Alcohols · 16.1 Alcools
- 17.1 Aldehydes and ketones · 17.1 Aldéhydes et cétones
- 18.1 Carboxylic acids · 18.1 Acides carboxyliques
- 18.2 Esters
- 19.1 Primary amines · 19.1 Amines primaires
- 19.2 Nitriles and hydroxynitriles · 19.2 Nitriles et hydroxynitriles
- 20.1 Addition polymerisation · 20.1 Polymérisation par addition
- 21.1 Organic synthesis · 21.1 Synthèse organique
- 22.1 Infrared spectroscopy · 22.1 Spectroscopie infrarouge
- 22.2 Mass spectrometry · 22.2 Spectrométrie de masse
- 23.1 Lattice energy and Born-Haber cycles · 23.1 Énergie réticulaire et cycles de Born-Haber
- 23.2 Enthalpies of solution and hydration · 23.2 Enthalpies de solution et d'hydratation
- 23.3 Entropy change, ΔS · 23.3 Variation d'entropie, ΔS
- 23.4 Gibbs free energy change, ΔG · 23.4 Variation d'énergie libre de Gibbs, ΔG
- 24.1 Electrolysis · 24.1 Électrolyse
- 24.2 Standard electrode potentials E⦵, standard cell potentials E⦵cell and the Nernst equation · 24.2 Potentiels électrodes standards E⦵, potentiels de cellule standards E⦵cell et équation de Nernst
- 25.1 Acids and bases · 25.1 Acides et bases
- 25.2 Partition coefficients · 25.2 Coefficients de partition
- 26.1 Simple rate equations, orders of reaction and rate constants · 26.1 Équations de vitesse simples, ordres de réaction et constantes de vitesse
- 26.2 Homogeneous and heterogeneous catalysts · 26.2 Catalyseurs homogènes et hétérogènes
- 27.1 Similarities and trends in the properties of the Group 2 metals, magnesium to barium, and their compounds · 27.1 Similitudes et tendances dans les propriétés des métaux du groupe 2, magnésium à baryum, et de leurs composés
- 28.1 General physical and chemical properties of the first row of transition elements, titanium to copper · 28.1 Propriétés physiques et chimiques générales de la première série d'éléments de transition, titane à cuivre
- 28.2 General characteristic chemical properties of the first set of transition elements, titanium to copper · 28.2 Propriétés chimiques caractéristiques générales de la première série d'éléments de transition, titane à cuivre
- 28.3 Colour of complexes · 28.3 Couleur des complexes
- 28.4 Stereoisomerism in transition element complexes · 28.4 Stéréoisomérie dans les complexes des éléments de transition
- 28.5 Stability constants, Kstab · 28.5 Constantes de stabilité, Kstab
- 29.1 Formulas, functional groups and the naming of organic compounds · 29.1 Formules, groupes fonctionnels et nomenclature des composés organiques
- 29.2 Characteristic organic reactions · 29.2 Réactions organiques caractéristiques
- 29.3 Shapes of aromatic organic molecules; σ and π bonds · 29.3 Formes des molécules organiques aromatiques ; liaisons σ et π
- 29.4 Isomerism: optical · 29.4 Isomérie : optique
- 30.1 Arenes · 30.1 Arènes
- 31.1 Halogen compounds · 31.1 Composés halogénés
- 32.1 Alcohols · 32.1 Alcools
- 32.2 Phenol · 32.2 Phénol
- 33.1 Carboxylic acids · 33.1 Acides carboxyliques
- 33.2 Esters
- 33.3 Acyl chlorides · 33.3 Chlorures d'acyle
- 34.1 Primary and secondary amines · 34.1 Amines primaires et secondaires
- 34.2 Phenylamine and azo compounds · 34.2 Phénylamine et composés azoïques
- 34.3 Amides
- 34.4 Amino acids · 34.4 Acides aminés
- 35.1 Condensation polymerisation · 35.1 Polymérisation par condensation
- 35.2 Predicting the type of polymerisation · 35.2 Prédire le type de polymérisation
- 35.3 Degradable polymers · 35.3 Polymères biodégradables
- 36.1 Organic synthesis · 36.1 Synthèse organique
- 37.1 Thin-layer chromatography · 37.1 Chromatographie sur couche mince
- 37.2 Gas/liquid chromatography · 37.2 Chromatographie gaz/liquide
- 37.3 Carbon-13 NMR spectroscopy · 37.3 Spectroscopie RMN du carbone-13
- 37.4 Proton (1H) NMR spectroscopy · 37.4 Spectroscopie RMN des protons (1H)
Presentation slides · Diaporamas de présentation · A-Level Chemistry · Chimie A-Level (37)
- 1. Atomic structure · 1. Structure atomique
- 2. Atoms, molecules and stoichiometry · 2. Atomes, molécules et stœchiométrie
- 3. Chemical bonding · 3. Liaisons chimiques
- 4. States of matter · 4. États de la matière
- 5. Chemical energetics · 5. Énergétique chimique
- 6. Electrochemistry · 6. Électrochimie
- 7. Equilibria · 7. Équilibres
- 8. Reaction kinetics · 8. Cinétique chimique
- 9. The Periodic Table: chemical periodicity · 9. Tableau périodique : périodicité chimique
- 10. Group 2 · 10. Groupe 2
- 11. Group 17 · 11. Groupe 17
- 12. Nitrogen and sulfur · 12. Azote et soufre
- 13. An introduction to AS Level organic chemistry · 13. Introduction à la chimie organique niveau AS
- 14. Hydrocarbons · 14. Hydrocarbures
- 15. Halogen compounds · 15. Composés halogénés
- 16. Hydroxy compounds · 16. Composés hydroxylés
- 17. Carbonyl compounds · 17. Composés carbonyles
- 18. Carboxylic acids and derivatives · 18. Acides carboxyliques et dérivés
- 19. Nitrogen compounds · 19. Composés azotés
- 20. Polymerisation · 20. Polymérisation
- 21. Organic synthesis · 21. Synthèse organique
- 22. Analytical techniques · 22. Techniques analytiques
- 23. Chemical energetics · 23. Énergétique chimique
- 24. Electrochemistry · 24. Électrochimie
- 25. Equilibria · 25. Équilibres
- 26. Reaction kinetics · 26. Cinétique chimique
- 27. Group 2 · 27. Groupe 2
- 28. Chemistry of transition elements · 28. Chimie des éléments de transition
- 29. An introduction to A Level organic chemistry · 29. Introduction à la chimie organique niveau A
- 30. Hydrocarbons · 30. Hydrocarbures
- 31. Halogen compounds · 31. Composés halogénés
- 32. Hydroxy compounds · 32. Composés hydroxylés
- 33. Carboxylic acids and derivatives · 33. Acides carboxyliques et dérivés
- 34. Nitrogen compounds · 34. Composés azotés
- 35. Polymerisation · 35. Polymérisation
- 36. Organic synthesis · 36. Synthèse organique
- 37. Analytical techniques · 37. Techniques analytiques
Course units and learning goals · Unités de cours et objectifs d'apprentissage
These lessons teach selected course objectives. Check the remaining coverage gaps; the material is not a complete preparation programme. · Ces leçons abordent des objectifs de cours sélectionnés. Vérifiez les lacunes restantes en couverture ; ce matériel ne constitue pas un programme d'entraînement complet.
1 · Structure, Bonding and Introduction to Organic Chemistry
- The SI unit of amount of substance.
- Calculate the amount available for each reactant and divide by its coefficient. The smaller ratio limits the reaction. Use that reactant to calculate the maximum product before comparing actual yield.
- Write the balanced equation first, include units in molar masses, then convert each given mass or solution volume into amount. Convert cubic centimetres to cubic decimetres before using concentration in moles per cubic decimetre.
- Attraction between oppositely charged ions.
- To explain a bulk property, name the structure, particles, forces and mobile charge carriers. Simple molecular substances can have strong covalent bonds inside molecules but weak attractions between molecules.
- Compare substances using evidence such as melting point, conductivity when solid and molten, and solubility. One property rarely proves a structure; use a pattern of evidence.
- An atom group determining characteristic reactions.
- Distinguish addition, substitution, oxidation and polymerization by tracing bonds before and after reaction. Conditions and reagents belong to the reaction arrow; they are not interchangeable labels.
- Draw displayed or structural formulae with the correct number of bonds at each carbon. Use a carbon count to check a proposed synthesis. At advanced level, track reagents and conditions through multistep routes.
- mole
- The SI unit of amount of substance
- limiting reagent
- The reactant that limits the possible product amount
- ionic bond · liaison ionique
- Attraction between oppositely charged ions
- delocalized electron
- An electron not confined to one atom or bond
- functional group
- An atom group determining characteristic reactions
- isomer
- A compound sharing a formula but differing in structure
2 · Energetics, Group Chemistry, Halogenoalkanes and Alcohols
- Transferring energy to the surroundings.
- Use energy transferred = mass × specific heat capacity × temperature change. Convert joules to kilojoules before dividing by reaction amount. An exothermic molar enthalpy change has a negative sign.
- Use insulation and a lid, measure starting temperatures consistently, stir, and record a temperature-time series. Estimate the reaction temperature from an appropriate extrapolation rather than ignoring cooling during measurement.
- Loss of electrons.
- Predict products using the specified electrolyte and electrode material. In an aqueous solution, hydrogen or oxygen may form because water-related species compete. Molten salts contain only the ions of the salt.
- Use a low-voltage direct-current supply, approved electrodes, and the school risk assessment. Collect gases only by an approved method. Keep chlorine demonstrations teacher-controlled; do not ask students to generate hazardous gases independently.
- The energy barrier for a reaction pathway.
- A product-time graph has a steeper gradient where rate is larger. A tangent estimates instantaneous rate; a secant gives average rate over an interval. The final plateau reflects the total collected product under the stated conditions.
- For gas production, check apparatus for leaks, start timing consistently and record volume at regular intervals. Keep concentration, reactant amount and surface area controlled when changing temperature.
- An atom group determining characteristic reactions.
- Distinguish addition, substitution, oxidation and polymerization by tracing bonds before and after reaction. Conditions and reagents belong to the reaction arrow; they are not interchangeable labels.
- Draw displayed or structural formulae with the correct number of bonds at each carbon. Use a carbon count to check a proposed synthesis. At advanced level, track reagents and conditions through multistep routes.
- exothermic · exothermique
- Transferring energy to the surroundings
- enthalpy change
- Heat change at constant pressure for a stated process
- oxidation
- Loss of electrons
- reduction · réduction
- Gain of electrons
- activation energy
- The energy barrier for a reaction pathway
- rate · taux
- Change in a measured quantity per unit time
- functional group
- An atom group determining characteristic reactions
- isomer
- A compound sharing a formula but differing in structure
3 · Practical Skills in Chemistry I
- The volume delivered between two burette readings.
- Calculate the known amount first, apply the stoichiometric ratio, then divide by the unknown solution volume in cubic decimetres. Use concordant titres as required by the school method and report the accepted values.
- Rinse the burette with its solution and the pipette with the solution it transfers. Rinse the flask with distilled water. Add titrant slowly near the endpoint, swirl, and read the meniscus at eye level. Use a white tile and appropriate eye protection.
- Separation using two phases.
- Rf is distance travelled by a component divided by distance travelled by the solvent front, both measured from the baseline. Compare under the same conditions; an Rf value alone does not establish identity across different solvents.
- Use pencil for the baseline, keep spots above solvent level, mark the solvent front promptly, and run known references alongside unknowns. For ion tests, use clean equipment and separate aliquots to avoid carrying reagents into later tests.
- A quantified limitation on a measured result.
- For a product or quotient, adding fractional uncertainties is a common maximum-uncertainty approximation. For a difference, add absolute uncertainties. A nonzero intercept can reveal an offset or an incomplete model.
- Show units on axes and choose a sensible scale. Plot uncertainty bars where justified, draw a best-fit line rather than joining every point, and estimate steepest and shallowest plausible gradients when the course method calls for them.
- titre
- The volume delivered between two burette readings
- equivalence point · point d'équivalence
- The point of stoichiometric reaction completion
- chromatography
- Separation using two phases
- Rf
- Spot distance divided by solvent-front distance
- uncertainty
- A quantified limitation on a measured result
- systematic error
- A consistent measurement bias
4 · Rates, Equilibria and Further Organic Chemistry
- The energy barrier for a reaction pathway.
- A product-time graph has a steeper gradient where rate is larger. A tangent estimates instantaneous rate; a secant gives average rate over an interval. The final plateau reflects the total collected product under the stated conditions.
- For gas production, check apparatus for leaks, start timing consistently and record volume at regular intervals. Keep concentration, reactant amount and surface area controlled when changing temperature.
- A state with equal forward and reverse reaction rates.
- A concentration or pressure change disturbs the balance. The system responds toward a new equilibrium. Temperature changes can also change the equilibrium constant; a catalyst changes how quickly equilibrium is reached.
- State the balanced equation and whether the forward reaction is exothermic before predicting a temperature effect. Count gas coefficients when considering pressure; pressure has no composition effect when gaseous amounts are equal on both sides.
- Transferring energy to the surroundings.
- Use energy transferred = mass × specific heat capacity × temperature change. Convert joules to kilojoules before dividing by reaction amount. An exothermic molar enthalpy change has a negative sign.
- Use insulation and a lid, measure starting temperatures consistently, stir, and record a temperature-time series. Estimate the reaction temperature from an appropriate extrapolation rather than ignoring cooling during measurement.
- An atom group determining characteristic reactions.
- Distinguish addition, substitution, oxidation and polymerization by tracing bonds before and after reaction. Conditions and reagents belong to the reaction arrow; they are not interchangeable labels.
- Draw displayed or structural formulae with the correct number of bonds at each carbon. Use a carbon count to check a proposed synthesis. At advanced level, track reagents and conditions through multistep routes.
- activation energy
- The energy barrier for a reaction pathway
- rate · taux
- Change in a measured quantity per unit time
- equilibrium · équilibre
- A state with equal forward and reverse reaction rates
- reversible reaction
- A reaction that can proceed in both directions
- exothermic · exothermique
- Transferring energy to the surroundings
- enthalpy change
- Heat change at constant pressure for a stated process
- functional group
- An atom group determining characteristic reactions
- isomer
- A compound sharing a formula but differing in structure
5 · Transition Metals and Organic Nitrogen Chemistry
- Loss of electrons.
- Predict products using the specified electrolyte and electrode material. In an aqueous solution, hydrogen or oxygen may form because water-related species compete. Molten salts contain only the ions of the salt.
- Use a low-voltage direct-current supply, approved electrodes, and the school risk assessment. Collect gases only by an approved method. Keep chlorine demonstrations teacher-controlled; do not ask students to generate hazardous gases independently.
- An atom group determining characteristic reactions.
- Distinguish addition, substitution, oxidation and polymerization by tracing bonds before and after reaction. Conditions and reagents belong to the reaction arrow; they are not interchangeable labels.
- Draw displayed or structural formulae with the correct number of bonds at each carbon. Use a carbon count to check a proposed synthesis. At advanced level, track reagents and conditions through multistep routes.
- Separation using two phases.
- Rf is distance travelled by a component divided by distance travelled by the solvent front, both measured from the baseline. Compare under the same conditions; an Rf value alone does not establish identity across different solvents.
- Use pencil for the baseline, keep spots above solvent level, mark the solvent front promptly, and run known references alongside unknowns. For ion tests, use clean equipment and separate aliquots to avoid carrying reagents into later tests.
- oxidation
- Loss of electrons
- reduction · réduction
- Gain of electrons
- functional group
- An atom group determining characteristic reactions
- isomer
- A compound sharing a formula but differing in structure
- chromatography
- Separation using two phases
- Rf
- Spot distance divided by solvent-front distance
6 · Practical Skills in Chemistry II
- The volume delivered between two burette readings.
- Calculate the known amount first, apply the stoichiometric ratio, then divide by the unknown solution volume in cubic decimetres. Use concordant titres as required by the school method and report the accepted values.
- Rinse the burette with its solution and the pipette with the solution it transfers. Rinse the flask with distilled water. Add titrant slowly near the endpoint, swirl, and read the meniscus at eye level. Use a white tile and appropriate eye protection.
- A quantified limitation on a measured result.
- For a product or quotient, adding fractional uncertainties is a common maximum-uncertainty approximation. For a difference, add absolute uncertainties. A nonzero intercept can reveal an offset or an incomplete model.
- Show units on axes and choose a sensible scale. Plot uncertainty bars where justified, draw a best-fit line rather than joining every point, and estimate steepest and shallowest plausible gradients when the course method calls for them.
- titre
- The volume delivered between two burette readings
- equivalence point · point d'équivalence
- The point of stoichiometric reaction completion
- uncertainty
- A quantified limitation on a measured result
- systematic error
- A consistent measurement bias
Preparing for this qualification · Préparation à cette qualification
- Six separately assessed units; IAS uses Units 1–3, IAL uses Units 1–6.
- Units 3 and 6 are written practical-skills examinations based on experimental experience; they are not a Cambridge hands-on practical paper.
- Retain core-practical numbering from the acquired specification. Unit weights, marks and times are in the assessment evidence manifest.
Teaching coverage still needed · Couverture pédagogique encore nécessaire
- Full topic 1–5 statement coverage remains.
- Intermolecular forces, Groups 1/2/7, halogenoalkanes and alcohol chemistry remain.
- All AS core practicals, preparation methods and practical-paper objectives remain.
- Rate equations, entropy, acid-base equilibria, carbonyls/acids/chirality remain.
- Transition-metal complexes, electrode potentials, organic nitrogen, synthesis and spectroscopy remain.
- A2 synthesis, purification, quantitative analysis and practical-paper coverage remain.
Specifications and sample documents · Spécifications et documents d'échantillon
Course materials · Matériel pédagogique
- Study notes · Notes de cours →
- Revision questions · Questions de révision →
- Teaching guidance · Guide pédagogique · Teacher access · Accès enseignant →
- Teacher diagnostics · Diagnostique enseignant · Teacher access · Accès enseignant →
- Supervised task guidance · Guide pour la tâche supervisée · Teacher access · Accès enseignant →
Course preparation · Préparation du cours
Documents are available. Board-specific notes, assessments and interactive past-paper practice are not yet available for every course. · Les documents sont disponibles. Les notes spécifiques au conseil, les évaluations et la pratique interactive des anciens sujets ne sont pas encore disponibles pour tous les cours.
Lessons · Leçons →