3 Full Lesson Bundle which covers the Kinetics chapter from the OCR AS Level Chemistry Specification (may also suitable for the AQA and Edexcel Spec- see Learning Objectives below to confirm) Lesson 1: Collision Theory & Rates of Reaction **1. To explain the effect of concentration (including pressure of gases only) on the rate of reaction in terms of the frequency of collisions **2. To calculate the rate of reaction using the gradients of a concentration-time graph **3. To describe the techniques and procedures used to investigate reaction rates including the measurement of mass, gas volumes and concentration Lesson 2: Catalysts **1. To explain the effect of concentration (including pressure of gases only) on the rate of reaction in terms of the frequency of collisions **2. To calculate the rate of reaction using the gradients of a concentration-time graph **3. To describe the techniques and procedures used to investigate reaction rates including the measurement of mass, gas volumes and concentration Lesson 3: The Boltzmann Distribution **1. To draw a labelled diagram of the Boltzmann distribution **2. To explain qualitatively the Boltzmann distribution and its relationship with activation energy **3. To explain how temperature changes and catalytic behaviour effect the proportion of molecules exceeding the activation energy and hence the reaction rate using Boltzmann distributions Declaimer: Please refrain from purchasing this popular resource for an interview lesson or a formal observation. This is because planning your own lessons including using your own lesson PowerPoints is a fundamental skill of a qualified/unqualified teacher that will be reviewed during these scenarios outlined above

3 Full Lesson Bundle on Buffer Solutions. This bundle covers the AQA A Level Chemistry specification. Please review the learning objectives below. **Part 1: Explaining How Buffer Solutions Work To know a buffer solution is a system that minimises pH changes on addition of small amounts of an acid or base To describe how a buffer solution is formed using weak acids, salts and weak bases To explain qualitatively the action of acidic and basic buffers **Part 2: Buffer Solution Calculations (Part 1) To calculate the pH of a buffer solution containing a weak acid and the salt of a weak acid by using the Ka expression and pH equation To calculate equilibrium concentrations, moles or mass of the components of a weak acid-salt of a weak acid buffer solution Part 3: Buffer Solution Calculations (Part 2) To calculate changes in pH when a small amount of acid or alkali is added to an acidic buffer solution Declaimer: Please refrain from purchasing this popular resource for an interview lesson or a formal observation. This is because planning your own lessons including using your own lesson PowerPoints is a fundamental skill of a qualified/unqualified teacher that will be reviewed during these scenarios outlined above

5 Full Lesson Bundle on Analysis from the OCR A Level Chemistry specification. Please review the learning objectives below. Lesson 1: Chromatography To interpret one-way TLC chromatograms in terms of Rf values To interpret gas chromatograms in terms of: (i) retention times (ii) the amounts and proportions of the components in a mixture To understand the creation and use of external calibration curves to confirm concentrations of components. Lesson 2: Qualitative Analysis of Organic Functional Groups To recall qualitative analysis of organic functional groups on a test-tube scale To design qualitative analysis tests to distinguish between two or more organic compounds Lesson 3: Carbon-13 NMR Spectroscopy To analyse a carbon-13 NMR spectrum of an organic molecule to make predictions about: The number of carbon environments in the molecule The different types of carbon environment present from chemical shift values Possible structures for the molecule Lesson 4: Proton NMR Spectroscopy (Part 1) To analyse proton NMR spectra of an organic molecule to make predictions about: The number of proton environments in the molecule The different types of proton environment present from chemical shift values Lesson 5: Proton NMR Spectroscopy (Part 2) (includes combined techniques) To analyse proton NMR spectra of an organic molecule to make predictions about: The different types of proton environment present from chemical shift values The relative numbers of each type of proton present from the relative peak areas using integration traces or ratio numbers when required The number of non-equivalent protons adjacent to a given proton from the spin-spin splitting pattern, using the n+1 rule Possible structures for the molecule Note: 2 Exam Questions on Combined Techniques are also included in lesson 5! Declaimer: Please refrain from purchasing this popular resource for an interview lesson or a formal observation. This is because planning your own lessons including using your own lesson PowerPoints is a fundamental skill of a qualified/unqualified teacher that will be reviewed during these scenarios outlined above

11 Full Lesson Bundle covering the OCR A Level Chemistry Chapter on Electrons, Bonding & Structure. Lessons are also suitable for AQA and Edexcel (please review the learning objectives below). **Lesson 1: Atomic Orbitals To know that atomic orbitals are a region around the nucleus that occupy electrons To illustrate the shape of s, p and d orbitals To describe the number of orbitals that make up the s, p and d sub shells and the number of electrons that fill the sub shells To deduce the electronic configuration of atoms and ions in the s and p-block **Lesson 2: Electronic Configuration of d-block elements To recall the order of electron shells to be filled To construct electronic configurations of d-block atoms and ions To know the elemental anomalies in electron filling of d block atoms **Lesson 3: Ionic Bonding To know ionic bonding as electrostatic attraction between positive and negative ions, and the construction of ‘dot-and-cross’ diagrams To explain solid structures of giant ionic lattices are a result of oppositely charged ions strongly attracted to each other in all directions To link the structure and bonding of ionic compounds on their physical properties including melting and boiling points, solubility and electrical conductivity in solid, liquid and aqueous states **Lesson 4: Covalent and Dative Covalent Bonding To know covalent bonding as electrostatic attraction between a shared pair of electrons and the nucleus To construct dot and cross diagrams of molecules and ions to describe single and multiple covalent bonding To apply the term average bond enthalpy as a measurement of covalent bond strength To know what a dative covalent bond is To construct dot and cross diagrams of molecules and ions to describe dative covalent bonding **Lesson 5: Simple and Giant Covalent Structures To describe the structure of simple and giant covalent compounds To explain how the structure and bonding of simple and giant covalent compounds link to their different physical properties To evaluate the potential applications of covalent structures based on their physical properties (stretch & challenge) **Lesson 6: Metallic Bonding and Structure To describe the structure of metals To explain metallic bonding as strong electrostatic attraction between cations and delocalised electrons To explain the physical properties of giant metallic structures **Lesson 7: Shapes of Molecules and Ions To determine the number of bonding pairs & lone pairs in a molecule or ion To recall the shapes and bond angles of molecules and ions with up to six electron pairs surrounding the central atom To explain the shapes of molecules and ions using the electron pair repulsion theory To construct diagrams to illustrate the 3D shapes of molecules and ions **Lesson 8: Electronegativity and Bond Polarity To define the term electronegativity To explain the trend in electronegativity down a group and across a period To explain what a polar covalent bond is bond and to illustrate this type of bond in a molecule **Lesson 9: Polar and Non-Polar Molecules To describe the difference between polar and non-polar molecules To explain why non-polar molecules can contain polar bonds To predict whether molecules are polar or non-polar **Lesson 10 : Intermolecular Forces (Part 1) Understand intermolecular forces based on induced-dipole interactions and permanent dipole-dipole interactions Explain how intermolecular forces are linked to physical properties such as boiling and melting points Compare the solubility of polar and non-polar molecules in polar and non-polar solvents **Lesson 11 : Intermolecular Forces (Part 2) To understand hydrogen bonding as intermolecular forces between molecules containing N, O or F and the H atom of –NH, -OH or HF To construct diagrams which illustrate hydrogen bonding To explain the anomalous properties of H2O resulting from hydrogen bonding Declaimer: Please refrain from purchasing this popular resource for an interview lesson or a formal observation. This is because planning your own lessons including using your own lesson PowerPoints is a fundamental skill of a qualified/unqualified teacher that will be reviewed during these scenarios outlined above

6 Full Lesson Bundle covering the first 6 chapters in the OCR A Level Chemistry Chapter on Energy Lesson 1: Lattice Enthalpy **By the end of the lesson students will: Explain the term lattice enthalpy Understand the factors that determine the size of lattice enthalpy Explain the terms standard enthalpy change of formation and first ionisation energy** Lesson 2: Born-Haber Cycles **By the end of the lesson students will: **1. Construct Born Haber Cycle diagrams for ionic compounds from enthalpy change values **2. Calculate the value for lattice enthalpy from Born Haber Cycle diagrams **3. Calculate other enthalpy change values from Born Haber Cycle diagrams Lesson 3: Enthalpy Changes of Solution & Hydration **By the end of the lesson students will: **1. Define the terms enthalpy change of solution and hydration **2. Construct enthalpy cycles using the enthalpy change of solution of a simple ionic solid 3. Qualitatively explain the effect of ionic charge and ionic radius on the exothermic value of lattice enthalpy and enthalpy change of hydration Lesson 4: Entropy **By the end of lesson students will: **1. Know that entropy is a measure of the dispersal of energy in a system, which is greater the more disordered a system **2. Explain the difference in entropy of solids, liquids and gases **3. Calculate the entropy change of a reactant based on the entropies provided for the reactants and products Lesson 5: Gibbs Free Energy (Part 1) **By the end of the lesson students will: **1. Explain that the feasibility of a process depends upon ΔG being negative which in turn depends upon ΔS, ΔH and the T of the system **2. Recall the Gibbs’ Equation and calculate ΔG, ΔH, ΔS or T **3.Calculate ΔG, ΔH, ΔS or T using the Gibbs’ Equation Lesson 6: Gibbs Free Energy (Part 2) By the end of the lessons students will: 1. Explain that the feasibility of a process depends upon ΔG being negative which in turn depends upon ΔS, ΔH and the T of the system 2. Recall the Gibbs’ Equation and calculate ΔG, ΔH, ΔS or 3. Calculate ΔG, ΔH, ΔS or T using the Gibbs’ Equation The teacher will be able to check students have met these learning objectives through starter activities, discussion questions, mini AfL tasks and practice questions for students to complete Declaimer: Please refrain from purchasing this popular resource for an interview lesson or a formal observation. This is because planning your own lessons, including using your own lesson PowerPoints, is a fundamental skill of a qualified/unqualified teacher that will be assessed during the scenarios outlined above

9 Full Lesson Bundle covering Module 3.1 - The Periodic Table from OCR A Level Chemistry A specification. Please review the learning objectives below Lesson 1: The Structure of The Periodic Table To know how the periodic table is arranged To describe the periodic trend in electron configurations across periods 2 and 3 To classify elements into s, p and d blocks Lesson 2: AS Chemistry: Ionisation Energy (Part 1) To define the term ‘first ionisation energy’ and successive ionisation energies To describe the factors affecting ionisation energy To explain the trend in successive ionisation energies of an element Lesson 3: AS Chemistry: Ionisation Energy (Part 2) To explain the trend in first ionisation energies down a group To explain the trend in first ionisation energies across period 2 To explain the trend in first ionisation energies across period 3 Lesson 4: Periodicity: Melting Points To describe the trend in structure from giant metallic to giant covalent to simple molecular lattice To explain the variation in melting points across period 2 & 3 in terms of structure and bonding Lesson 5: AS Chemistry: Group 2 Elements To know group 2 elements lose their outer shell s2 electrons to form +2 ions To state and explain the trend in first and second ionisation energies of group 2 elements and how this links to their relative reactivities with oxygen, water and dilute acids To onstruct half equations of redox reactions of group 2 elements with oxygen, water and dilute acids and to identify what species have been oxidised and reduced using oxidation numbers Lesson 6: AS Chemistry: Group 2 Compounds To know the reaction between group 2 metal oxides and water To state the trend in solubility and alkalinity of group 2 metal hydroxides To describe the uses of some group 2 compounds including their equations Lesson 7: The Halogens: Properties & Reactivity To describe and explain the trend in boiling points of the halogens in terms of induced dipole-dipole interactions (London Forces) To describe and explain the trend in reactivity of the halogens illustrated by their displacement reaction with other halide ions To construct full and ionic equations of halogen-halide displacement reactions and to predict the colour changes of these reactions in aqueous and organic solutions Lesson 8: Disproportionation & The Uses of Chlorine To explain the term disproportionation To explain how the reaction of chlorine with water or cold dilute sodium hydroxide are examples of disproportionation reactions To evaluate the uses of chlorine (How Science Works) Lesson 9: Qualitative Analysis To carry out test tube reactions and record observations to determine the presence of the following anions : CO32- SO42- , Cl-, Br-, and I- To carry out test tube reactions and record observations to determine the presence of the following cations: NH4+, Fe2+, Fe3+, Mn2+ and Cu2+ To construct ionic equations to explain the qualitative analysis tests of cations and anions Declaimer: Please refrain from purchasing this popular resource for an interview lesson or a formal observation. This is because planning your own lessons including using your own lesson PowerPoints is a fundamental skill of a qualified/unqualified teacher that will be reviewed during these scenarios outlined above