New GCSE AQA Physics lesson on 'Internal Energy' written in line with new AQA Physics specification. Lesson Outline: Starter discussed whether a glass of water has energy of not to see what conclusions pupils can draw on this from previous lessons. This leads to a view of a substance on a microscopic scale to highlight that the particles are moving, therefore pupils should be able to deduce must have energy in order to move. Internal energy is then shown to be this energy in substance due to kinetic energy and potential energy. After revisiting the starter how to increase internal energy is discussed The different states of matter are review again but now in relation to internal energy with helpful graphics to support these points. How much energy in a substance is related to specific heat capacity which is typically covered earlier in the course so this provides a great opportunity to review of this topic. Lesson concludes with review questions. Lesson Objectives: - Explain what is meant by internal energy. - Identify and explain how you can increase internal energy. - Relate internal energy to properties of solids, liquids and gases. - Explain how particles in a gas exert a pressure.

New GCSE AQA Physics lesson on 'Density, Mass and Volume' written in line with new AQA Physics specification. Lesson Outline: Nice simple starter asks pupils to list objects in order of density. Density is then clearly explained with visual effects to provide an example with a definition. Volume is also explained with comparative visuals. This lead to density being considered with volume and then both considered to produce mass - leading m=ρV. Some review questions practice the use of this equation. Pupils are tasked with finding the density of different objects provided by the teacher (simple shapes of common materials required). REQUIRED PRACTICAL 5 To continue the lesson the story of Archimedes and the gold crown is told featuring some key questioning for pupils. This then leads to pupils finding the density of irregular shaped objects by 'displacement technique' (REQUIRED PRACTICAL 5). To further extend pupil knowledge Archimedes principle of displacement is further explored with floating objects such as ships in water, icebergs and ice on water. Lesson Objectives: - State and explain the properties called volume, density and mass. - Use the density equation to calculate different properties of objects. - Describe in detail experiments to identify an objects density. - Explain how large objects such as ships float in water.

New AQA GCSE lesson on Scalars and Vectors (+ Forces) written in line with new GCSE AQA specification. All questions provided with answers within power point. Starter asks how far away a school is from a home - this prompts responses from pupils that either follow the road or straight across the field. This introduces the idea of distance and displacement which is explained in detail. This is also used to explain magnitude, scalars and vectors. A series of questions review pupils understanding of distance and displacement. A quick class activity reviews a number of different variables to classify each as scalar or vector. Speed and Velocity are identified as a scalar and vector by reviewing the equations and then also related to acceleration. This leads to force the representation of force vectors and scale diagrams. A quick review of forces and different types of forces lead to force interactions and their effects. A set of review questions provides use of force vectors. Lesson Objectives: - Explain how displacement and distance are different. - Identify and explain scalar and vector quantities. - Identify different types of forces and how these can be represented. - Explain what the effect of simple force interactions will have on objects.

New GCSE AQA Physics lesson on ' Resolution of Forces' written in line with new AQA Physics specification. All questions provided with answers within power point. The starter provides some simple combination of forces questions to review the subject of resultant forces - one question has two forces acting on different planes which pupils will be unfamiliar with and therefore how to solve - this prompts the lesson. The intuitive resultant force and direction is highlighted but also how we need to calculate exactly what they are. The parallelogram/geometric method is taught step by step with a worked example, this is done a second time with another example but with the class prompted to follow it and do the same on their own paper which also allows for discussion of difference in results. A collection of questions allows pupils to practice use of this method. This method is then used for inclined planes to explain frictional force acting to put object in equilibrium on inclined planes. Review questions again allow pupils to practice this. Lesson Objectives: - Review resolving simple combination of forces. - Identify when forces are acting on different lines/planes. - Calculate the resultant force on an object which has equal forces acting on different lines/planes. - Calculate the resultant force on an object which has unequal forces acting on different lines/planes. A worksheet is not provided as it is best for pupils to work on their own paper to define their own scales for this methodology.

2 New GCSE AQA Physics lesson on 'Infrared Radiation & Black body radiation' written in line with new AQA Physics specification. Bundled together is 2 complete lessons on infra-red radiation with different learning objectives and activities. LESSON 1 - Infrared radiation and black body radiation Lesson starts with optical illusion which makes white dots appear black, this is to start thoughts on what black is and engage students with something a bit different. The difference between heat and temperature is discussed to lead to what infrared radiation is. A question posed about whether ice gives off infrared radiation consolidates a key point. Thermal imaging is explored with how it works and a guess what it is exercise of infrared images. Different shades of black are shown to discuss what black does in terms of visible light, leading to an explanation of perfect black body radiation. Black body radiation and infrared emission at varied temperatures is discussed (including a link to a useful simulation). The effect of absorption and emission of infrared on bodies is detailed concluding with summary question on the topic. Lesson Objectives: State the difference between heat and infra-red radiation. Explain what is meant by ‘black-body radiation’. Identify the effects of infra-red radiation can have on a body. Relate the effects of absorption and emission of infra-red radiation has on a body. LESSON 2 - Infrared radiation, surfaces and bodies The use of black balls on the LA reservoir is shown in gif images to pupils to discuss why they did this. Absorption and emission of infrared is reviewed briefly. This leads to factors which effect the Earth's temperature and how greenhouse gases impact this. An experiment to investigate different surfaces and infrared emission, absorption and reflection is outlined. The key points from this investigation are summarised for note taking. A true or false activity reviews previous content followed by review questions. Infrared emission, absorption and reflection is applied through questioning to the Earth & the moon, satellites in space and the starter on the LA reservoir. Lesson Objectives: Identify and explain key factors that effect the temperature of the Earth. Investigate and identify the properties of different materials and their effect on infra-red radiation. Apply your knowledge of infrared radiation and surfaces to real life problems. Explain why the temperature on the Moon is different to the Earth.

New GCSE AQA Physics lesson on ' Centre of Mass' written in line with new AQA Physics specification. All questions provided with answers within power point. Starter simply looks at balancing object on one finger and how intuitively we can know how to do this. Then stability of different shapes is reviewed and again highlighted how we can assess whether something will be stable or not. The physics of this is then applied in terms of centre of mass. The technique to find the centre of mass for a symmetrical shape is detailed and practices with questions. Suspended equilibrium and centre of mass is shown using a hanging bird cage and can also be demonstrated in class with a simple mass and string. Then an experiment is outlined to find the centre of mass of irregular shapes. Centre of mass it then related to real life contexts for practice exam questions. Lesson Objectives: - Explain what is meant by centre of mass. - Find the centre of mass for a simple symmetrical object and explain this position. - Find the centre of mass of an irregular shaped object. - Apply the principle of centre of mass to real-life problems.

2 New GCSE AQA Physics lesson on 'Specific Heat Capacity' written in line with new AQA Physics specification. A choice of two starters, one ask pupils to put a series of fluids in order of which would boil first from the same heat source another poses questions on different volumes of water and boiling and placing hot objects above boiling temperature in water. A focus on words to inform what specific heat capacity means to help understand the equation and units is given to explain what it meant by specific heat capacity. Questions included for practice of using equation for exam to secure marks in exam. A link to video is provided with prepared questions for pupils to answer. Specific heat capacity is further detailed with illustrations and comparisons of different substances. The AQA required practical 1 is provided as part of the lesson (all be it a tricky practical due to likely limited resources for the class), different methodologies are provided (many link to different methods are also in the note box). A set of review questions and mini-plenary questions conclude the lesson along with an example exam question. Lesson Objectives: 1) State the relationship between energy, mass and temperature. 2) Explain how different materials affect the amount of energy required in temperature change. 3) Calculate the energy required to change an objects temperature. 4) Re-arrange the required equation appropriately.

New GCSE AQA Physics lesson on Impact Forces written in line with new AQA Physics specification. All questions provided with answers within power point. Starter 'Car Wars' looks at the test collision between an old and a new vehicle to stimulate discussion of collisions and safety - posing the question which car is safer and why? This is discussed and reviewed focusing on crumple zones and comparing how each car crumpled and why this is good (or for the old car, bad). Crumple zones, air bags and seat belts are detailed and discussed for common function - to increase impact time to decrease impact force. This concept is highlighted by exploring the physics mathematically. Review questions with answers are provided for the topic. Lesson Objectives: - Identify key safety features of vehicles to reduce impact force. - Explain how ‘impact time’ affects impact force. - Relate momentum to impact forces in collisions and explain how impact forces can be reduced in car collisions. - Calculate impact forces resulting from collisions.

Complete set of lessons for AQA GCSE Physics P2 including key content from AQA. The content of GCSE Physics P2 is covered over 25 separate resourced lessons all in the same format for continuity and direction for pupils (some of which are suitable for double lessons). Please do look at the shop if you wish to look at more detailed breakdowns of the lessons included in this bundle. P2.1 Forces and their Effects L1 - Resultant Forces L2 - Forces and motion: d-t L3 - Forces and motion:Acceleration & v-t L4 - Forces and Braking L5 - Forces & Terminal Velocity L6 - Forces & Elasticity P2.2 Kinetic energy of objects L7 - Forces & Energy L8 - Momentum P2.3 Current Electricity L9 - Statics/Charges L10 - Circuits Symbols & Current L11 – Current, Voltage & Resistance L12 - I-V Characteristics L13 – Series Circuits L14 - Parallel Circuit P2.4 Main Electricity L15 - AC/DC L16 - Plug Wiring L17 – Fuses, Circuit Breakers & RCCBs L18 – Electrical Power L19 - Electrical Energy & Charge P2.5 Radioactivity L20 - Atomic Structure & Radioactivity L21 - Properties of Alpha, Beta & Gamma radiation L22 - Properties of Radiation/Uses L23 - Half-life P2.6 Nuclear Fission & Fusion L24 - Nuclear Fission L25 - Nuclear Fusion/Stars

New GCSE AQA Physics lesson on 'Newtons Second Law - Force and Accerlation' written in line with new AQA Physics specification. Starter prompts pupils to discuss how there weight would vary on different planets, this is to set-up how weight is different to mass. Key terms Force, mass and acceleration are reviewed for clarity leading to the equation F=ma, the units, how it can be rearranged and then review questions to practice the use of. The equation is then reviewed in terms of proportionality as required by the AQA specification. Following this F=ma is related to W=mg to highlight that weight is a force and different to mass. This then leads to pupils calculating their mass on different planets - alternatively a task is provided to calculate the mass of a schoolbag on different planets. For higher tier pupils intertial mass is explained. Learning Objectives: - Clearly explain what force, mass and acceleration are. - Relate how mass and acceleration effect the size of a force. - Calculate the resultant force on an object by its mass and acceleration. - Explain the difference between weight and mass. - What is meant by inertia (Higher Tier)

New GCSE AQA Physics lesson on 'Pressure and Volume' written in line with new AQA Physics specification. Lesson Objectives: - Explain the effects of changing pressure on volume of a gas (and vice versa). - Use the equation ‘PV=constant’ (Boyle’s Law) to solve problems. - Correctly explain trends in terms of proportionality. - Explain the effects of quickly compressing a gas on temperature.

New GCSE AQA Physics lesson on 'Latent Heat' written in line with new AQA Physics specification. Lesson Outline: Starter review the change of state graph to look at why the temperature does not increase at the transition point of state of matter whilst it substance is still heated. To answer this internal energy is first recapped. This highlights the importance of the potential energy of the substance/ position of particles in a substance for different states and also overall internal energy. This leads to the conclusion that the energy is being used to change these particles position and overcome forces of attraction within a substance in order to change state - therefore no temperature increase. Latent heat of fusion and latent heat of vaporisation are both discussed in detail with the equation and in relation to the graph. Examples of the equation in use show how to carry out calculations to pupils. Lesson concludes with review questions. Lesson Objectives: - Explain what happens to a substance as it is provided more energy without a temperature change. - State and explain what is meant by specific latent heat. - Compare and contrast latent heat of fusion and latent heat of vaporisation - Successfully apply latent heat equations to solve problems.

New GCSE AQA Physics lesson on 'State of Matter (Solids, Liquid and Gases)' written in line with new AQA Physics specification. Lesson Outline: Starter tasks pupils with drawing particle diagrams of different states of matter. Kinetic theory is review in details for each state of matter. Energy levels of each state of matter are discussed and compared. Students are given a task to act out the different states of matter to model them, this allows for discussion of key concepts that must be communicated and how well the models explain different phenomenon. Changes of states are reviewed to identify the different processes that can occur with change of state including sublimation. A simple experiment shows evaporation and condensation in action for pupils to observe. Evaporation, condensation and sublimation are then discussed in detail. Lesson concludes with review questions and a writing challenge. Lesson Objectives: - State key differences between solids, liquids and gases. - Identify properties of solids, liquids and gases. - Explain the energy differences between different states of matter. - Explain in detail the processes of evaporation and condensation.

New GCSE AQA Physics lesson on 'Melting and Boiling points of substances (changes in states)' written in line with new AQA Physics specification Lesson Outline: Starter uses 5 quick question to recap some prior content question some key concepts for the lesson. Pure substances are discussed using a visual game to recognise if a pure substance is being shown or not - leading to a key definition. Melting and boiling points are then highlighted and linked back to the previous changes of states illustration. Impurities in substances are then discussed to show the importance of pure substances in melting and boiling points. An experiment to acquire data on melting and boiling points of water is outlined which lead to plotting a change of state graph. An ideal change of state diagram then allows the teacher to discuss with the class trends and key points along the graph. Lesson Objectives: - Identify pure substances and mixtures. - Explain what is meant by melting point and boiling point of a substance.- - Compare and contrast boiling and evaporation. - Detail changes in state of substance using a graph.

MERRY CHRISTMAS FROM Nteach. As the much needed Christmas break approaches some fun activities are needed for the classroom as the typical lessons become near impossible to do. Please enjoy the 2016 Christmas Science Quiz to have some fun your classes before the Christmas holidays. Some more fun Christmas activities to follow.

New GCSE AQA Physics lesson on ' Pressure and Surfaces' written in line with new AQA Physics specification. All questions provided with answers within power point. Starter looks at a balloon being pressed down onto a bed of nails - details of how to set this up simply with thumbtacks (obvious as it is) can be found in the notes box. Following this a problem of dog trapped on thin ice is presented for pupils to come up with potential rescue attempts to avoid breaking the ice. The concept of pressure is consolidated with the example of thumb tack being pressed into a wall - the equation for pressure is then detailed. To make use of the pressure equation an elephant and person in stiletto heels are compared mathematically to find which exerts the greatest pressure. Pupils are then guided to calculate the amount of pressure they exert onto the floor whilst standing. The lesson is concluded with a set of review question. Lesson Objectives: - State what pressure is and be able to calculate it. - Identify the units for pressure. - Explain the relationship between pressure, force and area. - Apply knowledge of pressure to different problems.