Edexcel Chemistry Modules
I know the Edexcel Chemistry course well, both from teaching it and from my experience marking exam papers. The Edexcel course is divided into broad sections, but the specification itself is split into small topics. The tutoring modules I've designed group those specification points into clear, focused packages. For example, Module 4 brings together Topic 2A – Bonding and Topic 2B – Structure, so you cover the full area in one coherent set of lessons.
Choose the modules that match your needs. Each one focuses on a specific area of the Edexcel A-Level Chemistry specification and includes live one-to-one tuition, all revision materials, and digital worksheets.
You can purchase modules individually or in bundles. The number of lessons varies depending on the topic — you’ll see this listed for each one below.
Once you’ve chosen your modules, simply add them to your cart and check out. You’ll get an email with your booking link — and from there, you can schedule lessons around your availability.
Alternatively, you can buy a standalone bespoke 1-hour lesson.
5 x 1 hour lessons
£200This module revises the structure of atoms, the properties of subatomic particles, isotopes and relative atomic mass, and how electrons are arranged in atoms and ions. You’ll explore how ionisation energy provides evidence for shell structure and examine the historical development of atomic models. You’ll also learn how to interpret mass spectra and relate periodic trends to electronic structure.
By the end of this module you will be able to:
• explain the difference between protons, neutrons and electrons in terms of relative mass and charge
• determine the number of fundamental particles in atoms and ions using mass number, atomic number and charge
• explain the existence of isotopes and calculate relative atomic mass from isotopic abundances
• analyse and interpret mass spectra, including predicting spectra for diatomic molecules like chlorine
• define and explain the trends in first and successive ionisation energies across a period and down a group
• use ionisation data to deduce electronic configuration and group number
• describe the structure of electron shells, sub-shells and orbitals, and draw electron configuration diagrams
• understand periodicity in melting point, ionisation energy and other properties across Periods 2 and 3Edexcel Specification Points:
Topic 1 – Atomic Structure and the Periodic Table
1 x 1 hour lessons
£40This short module gives you the essential foundation for writing chemical formulae and balanced equations — skills you'll use throughout the course. You'll learn how to work out the formulae of ionic and covalent compounds from their names or constituent ions, and how to construct balanced chemical equations for a wide range of reactions.
We also introduce key definitions for acids, bases, and alkalis and show how to identify common acids and their ions. You'll practise writing ionic equations and identifying spectator ions — a crucial skill for redox, acid-base, and precipitation reactions.
By the end of this module, you'll be able to:
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Write correct chemical formulae for covalent and ionic compounds
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Use charges on ions to construct formulae for compounds
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Construct and balance full chemical equations
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Write ionic equations and identify spectator ions
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Recognise common acids and their formulae
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5 x 1 hour lessons
£200This module builds core skills in chemical calculations that underpin much of A-level Chemistry. You’ll learn how to use the mole concept, write and interpret balanced equations, calculate empirical and molecular formulae, and perform quantitative calculations involving masses, solutions, gases, and titrations. You’ll also learn to evaluate percentage yield, atom economy, and experimental uncertainty.
By the end of this module you will be able to:
• define the mole and use the Avogadro constant in calculations
• calculate empirical and molecular formulae from experimental data
• use balanced equations (including ionic equations) to calculate reacting masses and volumes
• apply the ideal gas equation to calculate amounts of substance in the gas phase
• calculate concentrations in mol dm⁻³ and g dm⁻³ and use them in titration problems
• determine molar volume of a gas and apply it to reactions involving gases
• evaluate percentage yield and atom economy for chemical reactions
• relate equations and observations from test-tube reactions such as precipitation or displacement
• identify potential experimental errors and calculate measurement uncertaintyEdexcel Specification Points:
Topic 5 – Formulae, Equations and Amounts of Substance6 x 1 hour lessons
£240This module explores the different types of bonding and how bonding and structure influence the physical properties of substances. You’ll study ionic, covalent and metallic bonding, molecular shape and polarity, and intermolecular forces. You’ll also learn to explain trends in melting point, conductivity and solubility using structure and bonding models, and develop your ability to interpret structural and physical data.
By the end of this module you will be able to:
• describe ionic, covalent and metallic bonding and draw dot-and-cross diagrams for ions and molecules
• apply electron pair repulsion theory to deduce molecular shape and bond angles
• define electronegativity and use it to explain bond polarity and molecular polarity
• explain and compare London forces, permanent dipole interactions and hydrogen bonding
• explain how intermolecular forces affect boiling point, volatility and solubility
• classify substances as giant ionic, giant covalent, simple molecular or metallic and describe their structures
• explain the physical properties of substances using structure and bonding (e.g. conductivity, melting point)
• predict structure and bonding type from data or chemical formulae
• describe the structure of diamond, graphite and grapheneEdexcel Specification Points:
Topic 2A – Bonding
Topic 2B – Structure5 x 1 hour lessons
£200This module introduces key ideas in thermochemistry. You’ll learn the definitions and conventions of enthalpy change, apply Hess’s Law to calculate unknown values using cycles and enthalpy diagrams, and perform calorimetric calculations. These foundations prepare you for more advanced energetics in Module 4B.
By the end of this module you will be able to:
• define standard enthalpy changes of combustion, formation, reaction, and neutralisation
• calculate enthalpy changes from experimental calorimetry data
• construct enthalpy cycles and level diagrams
• apply Hess’s Law to find enthalpy changes indirectly
• identify and explain sources of error in calorimetry experiments
• use bond enthalpy data to estimate enthalpy changes
• assess the limitations of mean bond enthalpy calculationsEdexcel Specification Points:
Topic 8 – Energetics I6 x 1 hour lessons
£240
Note: Unless you are confident with using standard enthalpy changes in calculations, it is advisable to have completed Module 4A "Thermodynamics Part 1" before attempting this module.This module builds on earlier thermochemistry by introducing lattice enthalpies, Born–Haber cycles, entropy, and Gibbs free energy. You’ll learn to calculate and explain the energetics of ionic compound formation and dissolution, and determine whether reactions are thermodynamically feasible.
By the end of this module you will be able to:
• define lattice enthalpy and describe its significance in ionic bonding
• construct and interpret Born–Haber cycles
• explain trends in lattice enthalpy and ionic stability
• define and calculate enthalpy of hydration and solution
• apply Hess’s Law to calculate enthalpy of solution
• define entropy and explain its role in determining feasibility
• calculate Gibbs free energy and predict reaction spontaneity
• explain the significance of positive/negative ΔG valuesEdexcel Specification Points:
Topic 13 – Energetics II5 x 1 hour lessons
£200This module explores the factors affecting how fast reactions occur. You’ll learn how to measure rates, define and use rate equations, and understand the effect of concentration, temperature, and catalysts. The module includes calculating rate constants and analysing rate data graphically and numerically.
By the end of this module you will be able to:
• define rate of reaction and explain methods of measuring it
• describe the effect of temperature, concentration, surface area, and catalysts on rate
• explain collision theory and the role of activation energy
• sketch and interpret Maxwell–Boltzmann distributions
• derive rate equations from experimental data
• calculate rate constants and use units to verify order
• analyse rate–concentration graphs for first and second order reactions
• use initial rate and clock methods to determine rate equations
• describe and interpret multi-step reaction mechanisms
Edexcel Specification Points:
Topic 9 – Kinetics I
Topic 16 – Kinetics II4 x 1 hour lessons
£160This module introduces dynamic equilibrium and extends into equilibrium constants and industrial applications. You’ll learn to calculate and interpret Kc and Kp, and apply Le Chatelier’s Principle to explain how changing conditions affect chemical equilibria in both qualitative and quantitative terms.
By the end of this module you will be able to:
• describe the characteristics of dynamic equilibrium
• apply Le Chatelier’s Principle to changes in concentration, pressure, and temperature
• write expressions for Kc and Kp and calculate their values
• calculate equilibrium concentrations using Kc and Kp
• interpret the significance of large/small K values
• describe how catalysts affect the rate but not position of equilibrium
• explain compromises made in industrial equilibrium processesEdexcel Specification Points:
Topic 10 – Equilibrium I
Topic 11 – Equilibrium II5 x 1 hour lessons
£200This module covers redox reactions, electrochemical cells and electrode potentials. You’ll learn to construct electrochemical cells, calculate standard electrode potentials and cell EMFs, and predict redox feasibility. These ideas underpin modern fuel cell and battery technologies.
By the end of this module you will be able to:
• assign oxidation numbers and identify redox processes
• construct and balance redox half-equations
• describe the structure of electrochemical cells
• calculate standard cell EMFs using electrode potentials
• predict whether a redox reaction is feasible using E° values
• use conventional notation for cells
• interpret electrochemical series and trends in reactivity
• explain how fuel cells and storage cells operate
Edexcel Specification Points:
Topic 3 – Redox I
Topic 14 – Redox II6 x 1 hour lessons
£240This module develops the skills needed to handle acid–base equilibria quantitatively. You’ll calculate pH for strong and weak acids and bases, work with Ka and Kw, explore buffer solutions, and apply pH curves and indicators in titration problems.
By the end of this module you will be able to:
• calculate pH of strong acids and strong bases
• define and use Ka, pKa, and Kw
• calculate the pH of weak acids using Ka
• describe and explain the action of acidic and basic buffer solutions
• calculate pH changes in buffer systems
• sketch and interpret pH curves for strong/weak acid–base combinations
• choose suitable indicators based on titration type
• perform complex acid–base calculationsEdexcel Specification Points:
Topic 12 – Acid–Base Equilibria4 x 1 hour lessons
£160This module focuses on the trends and reactivity of elements in Groups 1, 2 and 7. You’ll study reactions, solubility trends, displacement reactions, and periodic trends in atomic radius, ionisation energy and melting point across Period 3. This module develops core inorganic reasoning skills.
By the end of this module you will be able to:
• describe and explain the trends in reactivity and solubility in Group 1 and Group 2
• interpret observations of Group 2 metal reactions with water and acids
• explain the uses of Group 2 compounds such as Ca(OH)₂ and BaSO₄
• describe and explain halogen reactivity and displacement reactions
• explain trends in boiling points and oxidising power of halogens
• write ionic equations for halide precipitation reactions
• describe and explain Period 3 trends in melting point, atomic radius and ionisation energy
Edexcel Specification Points:
Topic 4A – The elements of Groups 1 and 2
Topic 4B – The elements of Group 7 (halogens)4 x 1 hour lessons
£160This module introduces the properties and chemistry of transition metals. You’ll study variable oxidation states, complex ion formation, colour, and redox behaviour. You’ll also explore their use as catalysts and practise writing ligand substitution and redox equations involving transition metal ions.
By the end of this module you will be able to:
• define transition elements and explain characteristic properties
• describe common oxidation states and their stability
• explain the formation of coloured compounds
• describe and write equations for ligand substitution reactions
• • interpret colour changes and observations in test-tube reactions
• predict formulae and shapes of complex ions
Edexcel Specification Points:
Topic 15A – Principles of Transition Metal Chemistry4 x 1 hour lessons
£160This module builds on redox concepts with a focus on quantitative applications and transition metal chemistry. You’ll carry out redox titration calculations and explore how transition metal ions behave as variable oxidation state species and catalysts.
By the end of this module you will be able to:
• write and balance half-equations for redox processes
• carry out full redox titration calculations involving manganate(VII) and dichromate(VI)
• describe the role of transition metals as heterogeneous and homogeneous catalysts• describe redox reactions involving transition metal ions
• explain redox behaviour of transition metal ions in different oxidation states
• predict and explain observations in redox reactions involving transition metals
• interpret titration data to determine concentration or formulaeEdexcel Specification Points:
Topic 15B – Reactions of Transition Metal Elements2 x 1 hour lessons
£80This short module explores the behaviour of transition metal ions in aqueous solution. You’ll study ligand exchange, complex ion formation, and the use of ammonia and hydroxide ions in test-tube reactions. This is key practical knowledge for qualitative inorganic analysis.
By the end of this module you will be able to:
• describe and write equations for the reactions of aqueous transition metal ions with NaOH and NH₃
• explain ligand substitution and precipitation reactions involving metal–aqua ions
• identify transition metal ions based on colour changes and precipitate formation
• understand the role of complex ion formation in dissolving otherwise insoluble precipitatesEdexcel Specification Points:
Topic 15B – Reactions of Transition Metal Elements2 x 1 hour lessons
£80This module introduces the foundations of organic chemistry: how compounds are named, how to classify them, and how organic reactions proceed via mechanisms. It sets up all the organic topics that follow.
By the end of this module you will be able to:
• name alkanes, alkenes, halogenoalkanes, alcohols, and other simple organic compounds using IUPAC rules
• classify compounds as primary, secondary or tertiary
• identify and draw functional groups and homologous series
• describe the meaning of reaction types such as substitution, addition and elimination
• draw curly arrow mechanisms for electrophilic and nucleophilic processes
• identify nucleophiles and electrophiles in organic reactionsEdexcel Specification Points:
Topic 6A – Introduction to Organic Chemistry2 x 1 hour lessons
£80This module explores how organic compounds with the same molecular formula can differ structurally or spatially. You’ll study chain, position and functional group isomerism, as well as optical isomerism in chiral molecules.
By the end of this module you will be able to:
• define and identify structural isomerism (chain, position, and functional group types)
• draw and name structural isomers of common functional groups
• define stereoisomerism and chirality
• identify chiral centres and draw enantiomers using wedge notation
• explain the effect of chirality on physical and biological properties
Edexcel Specification Points:
Topic 6A – Introduction to Organic Chemistry
Topic 17A – Chirality3 x 1 hour lessons
£120This module focuses on alkanes as saturated hydrocarbons. You’ll study their structure, physical properties, combustion reactions, and radical substitution mechanisms. You’ll also examine the importance of crude oil processing and industrial cracking.
By the end of this module you will be able to:
• describe the bonding and structure of alkanes
• explain trends in boiling point and volatility in relation to chain length and branching
• write balanced equations for complete and incomplete combustion
• draw mechanisms for free radical substitution of halogens with alkanes
• identify problems with radical substitution such as multiple substitution and isomer formation
• explain the industrial processes of fractional distillation and cracking
• understand the environmental impact of burning alkanes (e.g. CO, NOₓ, particulates)
Edexcel Specification Points:
Topic 6B – Alkanes2 x 1 hour lessons
£80This module focuses on halogenoalkanes and their reactions via nucleophilic substitution and elimination. You’ll learn how the polarity of the carbon–halogen bond leads to reactivity and how different conditions favour different products.
By the end of this module you will be able to:
• describe the bonding and polarity of the C–X bond in halogenoalkanes
• explain nucleophilic substitution reactions with aqueous OH⁻, CN⁻ and NH₃
• draw curly arrow mechanisms for nucleophilic substitution
• describe elimination reactions with ethanolic OH⁻ to form alkenes
• predict the major organic product under given conditions
• explain competing substitution and elimination reactions based on conditions
• relate reactivity to bond enthalpy and halogen identity
Edexcel Specification Points:
Topic 6D – Halogenoalkanes2 x 1 hour lessons
£80This module explores alkenes, including their bonding, reactivity, and electrophilic addition mechanisms. You’ll study Markovnikov’s rule and the industrial and synthetic importance of alkenes.
By the end of this module you will be able to:
• describe the bonding and shape of alkenes including π-bond formation
• explain the reactivity of alkenes in terms of electron density
• draw and interpret mechanisms for electrophilic addition reactions
• use Markovnikov’s rule to predict major and minor products
• identify carbocation stability in mechanisms
Edexcel Specification Points:
Topic 6C – Alkenes2 x 1 hour lessons
£80This module introduces both addition and condensation polymers. You’ll learn to recognise monomers and repeat units, draw polymerisation equations, and consider the environmental and biological roles of polymers.
By the end of this module you will be able to:
• define and distinguish between addition and condensation polymerisation
• identify monomers and draw polymer structures from repeat units
• draw repeat units from condensation reactions involving dicarboxylic acids, diols and diamines
• describe the formation of polyesters and polyamides
• explain hydrolysis of condensation polymers under acidic and basic conditions
• discuss the biodegradability and sustainability of polymers
• recognise naturally occurring polyamides and polyesters
Edexcel Specification Points:
Topic 6C – Alkenes
Topic 18B – Amines, Amides, Amino Acids and Proteins3 x 1 hour lessons
£120This module covers the structure, properties and reactions of alcohols. You’ll study their oxidation to carbonyl compounds and carboxylic acids, their reactions with halides and dehydration to alkenes, and their role as intermediates in synthesis.
By the end of this module you will be able to:
• describe the physical properties of alcohols (e.g. boiling point, solubility)
• explain how hydrogen bonding affects their properties
• write equations and mechanisms for alcohol substitution reactions with halides
• describe and carry out oxidation reactions to aldehydes, ketones and carboxylic acids
• use suitable reagents to distinguish between primary, secondary and tertiary alcohols
• carry out dehydration of alcohols to form alkenes
• apply alcohol reactions in synthetic pathwaysEdexcel Specification Points:
Topic 6E – Alcohols5 x 1 hour lessons
£200This module explores aldehydes, ketones and carboxylic acids. You’ll study nucleophilic addition, oxidation, and reduction reactions, along with test-tube identification techniques and the underlying mechanisms.
By the end of this module you will be able to:
• describe the bonding and reactivity of the carbonyl group
• draw and explain nucleophilic addition mechanisms for HCN and reduction by NaBH₄
• distinguish between aldehydes and ketones using Tollens’ and Fehling’s reagents
• describe the oxidation of aldehydes to carboxylic acids
• describe the acid properties of carboxylic acids and their reactions with metals, bases and carbonates
• explain esterification and hydrolysis reactions of esters
• relate structure to physical properties (e.g. solubility, boiling point)
• use carbonyl reactions in synthetic routes
Edexcel Specification Points:
Topic 17B – Carbonyl Compounds
Topic 17C – Carboxylic Acids3 x 1 hour lessons
£120This module introduces the chemistry of arenes, focusing on the bonding and reactivity of benzene. You’ll explore electrophilic substitution reactions, evidence for delocalisation, and how aromatic compounds behave in nitration and acylation reactions.
By the end of this module you will be able to:
• describe the bonding and delocalised structure of benzene
• explain experimental evidence for delocalisation (enthalpy and lack of reactivity)
• draw mechanisms for electrophilic substitution (nitration and acylation)
• describe the conditions required for these reactions
• explain why benzene undergoes substitution rather than addition
• predict and explain the products of reactions with benzene derivatives
• describe environmental and safety considerations of nitration
Edexcel Specification Points:
Topic 18A – Arenes (Benzene)4 x 1 hour lessons
£160This module explores the structure and reactions of amines, amides, amino acids, and proteins. You’ll learn how to classify amines, how they act as bases and nucleophiles, and how they combine to form polyamides and peptides.
By the end of this module you will be able to:
• name and classify primary, secondary and tertiary amines
• describe amines as nucleophiles and as Brønsted–Lowry bases
• explain the base strength of amines and aromatic amines
• describe the synthesis of amines and amides
• describe zwitterions, isoelectric points and reactions of amino acids
• explain peptide bond formation and hydrolysis
• relate the structure of proteins to bonding and function
Edexcel Specification Points:
Topic 18B – Amines, Amides, Amino Acids and Proteins4 x 1 hour lessons
£160This module ties together all of the organic chemistry content into coherent synthetic routes. You’ll learn to devise multistep syntheses, identify reagents and conditions, and use reaction maps to navigate between compound types.
By the end of this module you will be able to:
• identify reagents and conditions for key functional group transformations
• devise synthetic routes involving multiple steps
• suggest how to convert between organic compound classes
• identify intermediates in synthesis questions
• combine reaction mechanisms and conditions into a full synthesis strategy
• use synthesis knowledge to solve unfamiliar problems
• use knowledge of physical and chemical tests to verify products
Edexcel Specification Points:
Topic 18C – Organic Synthesis7 x 1 hour lessons
£280This module develops your skills in analytical chemistry. You’ll use data from a range of spectroscopic techniques—mass spectrometry, infrared (IR), and nuclear magnetic resonance (NMR)—to deduce molecular structures and confirm synthetic success.
By the end of this module you will be able to:
• interpret mass spectra to determine molecular mass and fragmentation patterns
• use IR spectra to identify functional groups
• explain fingerprint regions in IR spectra and how they confirm identity
• interpret ¹H and ¹³C NMR spectra, including splitting patterns and chemical shift
• determine molecular structures from combined spectral data
• understand the principles of chromatography (paper, TLC, GC)
• use Rf values and retention times in identifying compounds
• analyse and solve structure problems using all available data
Edexcel Specification Points:
Topic 4C – Analysis of Inorganic Compounds
Topic 7A – Mass Spectrometry
Topic 7B – Infrared (IR) Spectroscopy
Topic 19A – Mass Spectrometry
Topic 19B – Nuclear Magnetic Resonance (NMR)
Topic 19C – Chromatography6 x 1 hour lessons
£240This module prepares you for questions based on the 16 core practicals and related experimental skills. You’ll revise methods, apparatus, data handling, and error analysis, all in line with the Practical Endorsement and written exam questions.
By the end of this module you will be able to:
• describe the techniques and purposes of each core practical
• recall and explain how to set up apparatus for titration, calorimetry, distillation, and others
• analyse experimental data and identify anomalies
• calculate percentage uncertainty and evaluate method accuracy
• explain how to improve reliability, accuracy and safety of experiments
• interpret practical-based multiple-choice and extended response questions
• link theory to experiment (e.g. pH titration curve shape and indicators)
Module Selection Advice
You don’t have to buy everything at once. Many students begin with just one or two modules to test their knowledge and rebuild confidence.
If you’re unsure which modules are right for you, you can: book a free 30-minute consultation to talk through your situation
Key Terms Reminder
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This service is for resit students who are no longer at school/college
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You can’t book more than one lesson per day
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You need to give at least 24 hours’ notice to reschedule — otherwise that lesson is forfeited
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Once a module is started, unused lessons are non-refundable
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Unstarted modules can be refunded in full
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