A Science teacher by trade, I've also been known to be found teaching Maths and PE! However, strange as it may seem, my real love is designing resources that can be used by other teachers to maximise the experience of the students. I am constantly thinking of new ways to engage a student with a topic and try to implement that in the design of the lessons.
A Science teacher by trade, I've also been known to be found teaching Maths and PE! However, strange as it may seem, my real love is designing resources that can be used by other teachers to maximise the experience of the students. I am constantly thinking of new ways to engage a student with a topic and try to implement that in the design of the lessons.
This lesson describes the key difference between scalar and vector quantities and introduces examples of physical factors that fit into each group. The PowerPoint has been designed to cover points 2.1 - 2.4 of the Edexcel GCSE Physics and Combined Science specifications.
The lesson begins with an introduction of the fact that some quantities are scalar and some are vector. A quick competition is used to introduce the key term, magnitude, and students will learn that scalar quantities such as speed have a size but are missing something else. A guided discussion period then challenges them to consider what that missing element might be, and this leads into the completion of the scalar definition. The next task then challenges the students to use this completed definition to write a similar one for a vector quantity. They will learn that velocity is a vector due to its magnitude and specific direction and then a series of exam questions are used to challenge their current understanding in terms of changes in speed and velocity at a crossroads. The mark scheme for each of the questions is embedded into the PowerPoint.
The remainder of the lesson uses another competition to introduce acceleration, momentum, energy, force, mass and weight as scalar or vector quantities and the students are challenged one final time as they have to explain why weight is an example of a vector quantity.
An informative lesson presentation (26 slides) that shows students how to convert between numbers and standard form (and the other way) so they are able to understand when these are used in Science questions. The lesson begins by guiding them through how to change numbers to standard form and explains when a power of 10 that is positive will be achieved and when it will be negative. Students are given the opportunity to see these used in a Science question and there is a cross-subject link as they are also required to convert between units. A number of competitions are used near the end of the lesson to maintain motivation and to allow the students to check their progress in a fun way
This lesson has been designed for GCSE students but is suitable for KS3
This engaging and detailed lesson presentation (43 slides) uses a step by step guide to take students through the important scientific skill of drawing graphs to represent data and address all the misconceptions and misunderstandings that often accompany this topic. The lesson begins by explaining to the students how to decide whether data should be represented on a line graph or a bar chart and a competition called "To BAR or not to BAR" is used to allow them to check their understanding while maintaining motivation. Moving forwards, students are shown a 6 step guide to drawing a line graph. Included along the way are graphs that are wrong and explanations as to why so that students can see what to avoid. There are continuous progress checks and a homework is also included as part of the lesson.
This lesson is written for students of all ages who are studying Science.
A resourced lesson which looks at calculating acceleration using the (v-u)/t equation. This lesson includes an engaging lesson presentation (26 slides) and a worksheet of questions that can be used for homework or during the lesson. The lesson begins by looking at the actual meaning of acceleration, ensuring that students understand it is a rate and therefore recognise the units as a result. A number of engaging activities are included in the lesson, such as the ACCELERATION OLYMPICS, to maintain motivation. Students are shown how to rearrange the equation to make velocity or time the subject and then challenged to apply these in a series of questions. Deceleration is briefly mentioned at the end of the lesson.
This lesson has been primarily designed for students studying GCSE (14 - 16 year olds in the UK) but it is suitable for students at KS3 too.
A fully-resourced lesson which focuses on using the kinetic energy equation to calculate energy, mass and speed. The lesson includes a lesson presentation (23 slides) which guides students through the range of calculations and accompanying worksheets which are differentiated. The lesson begins with the students being drip fed the equation so they are clear on the different factors involved. They are challenged to predict whether increasing the mass or increasing the speed will have a greater effect on the kinetic energy before testing their mathematical skills to get results to support their prediction. Moving forwards, students are shown how to rearrange the equation to make the mass the subject of the formula so they can use their skills when asked to calculate the speed. The final task of the lesson brings all of the learning together to tackle a set of questions of increasing difficulty. These questions have been differentiated so that students who need extra assistance can still access the learning.
This lesson has been written for GCSE students
A fully-resourced lesson which includes a concise lesson presentation (16 slides) and accompanying worksheet that guides students through the use of the gravitational potential energy equation to calculate energy, mass and height. The lesson begins by challenging students to work out the factors involved in calculating gravitational potential energy having been given a scenario with some balls on shelves. The students will discover that mass and height affect the energy size and that a third factor, gravity constant, is involved. The rest of the lesson focuses on using the equation to calculate energy, mass and height. In terms of the latter, students have to carry out an engaging task to work out the height that three flags have to be hoisted to during a medal ceremony.
This lesson has been written for GCSE students.
An informative lesson which guides students through the commonly misunderstood topic of drawing free body diagrams and using them to calculate resultant forces. The lesson begins by ensuring that students understand that force is a vector quantity and therefore arrows in diagrams can be used to show the magnitude and direction. Drawing free body diagrams is poorly understood and therefore time is taken to go through the three key steps in drawing these diagrams. Each of these steps is demonstrated in a number of examples, so students are able to visualise how to construct the diagrams before they are given the opportunity to apply their new-found knowledge. The rest of the lesson focuses on calculating resultant forces when the forces act in the same plane and also when they are at angles to each other. Again, worked examples are shown before students are challenged to apply. Progress checks are written into the lesson at regular intervals so that students can constantly assess their understanding and any misconceptions can be addressed.
This lesson has been designed for GCSE students
This bundle of 9 lessons covers a lot of the key content in Topic P3 (Electricity and magnetism) of the OCR Gateway A GCSE Combined Science specification. The topics covered within these lessons include:
Current and charge
Potential difference
Electrical circuit symbols
Resistance and Resistors
Circuit devices
Series and parallel circuits
Circuit calculations
Energy and power in circuits
All of these lesson presentations and accompanying resources are detailed and engaging and contain regular progress checks to allow the students to constantly assess their understanding.
This is a fully-resourced lesson that uses a variety of tasks and quick competitions to look at what happens to sound waves when they hit a boundary and how these properties are utilised for numerous functions and appliances. This lesson includes an engaging and informative lesson presentation (32 slides) and a worksheet which is differentiated two ways to enable students who are finding the topic difficult a chance to access the learning.
The lesson begins by looking at how sound waves can be reflected and how this is commonly known as an echo. Students are challenged to use a provided equation to calculate a distance by using the time that the echo of a shout takes to be heard in the Grand Canyon. Moving forwards, students will see how this idea of reflection can be used with ultrasound in the imaging of the foetus. At this stage, as the cover image shows, students are challenged to complete a doctor’s letter to an expectant mother who is concerned about the ultrasound procedure. Assistance is given in the form of a differentiated worksheet for those who find it difficult. Moving forwards, students will learn that sound waves can be refracted at a boundary, just as light waves can. Working with the teacher, they will use key terms to build up an exemplar definition to explain how this refraction occurs.
This lesson has been designed for GCSE aged students.
This bundle of 6 lessons covers all of the content in the sub-topic P6.1 (Radioactive emissions) of the OCR Gateway A GCSE Physics specification. The topics covered within these lessons include:
Atoms and isotopes
The properties of alpha, beta and gamma radiation
Nuclear decay equations
Half-life
Background radiation
All of these lesson presentations and accompanying resources are detailed and engaging and contain regular progress checks to allow the students to constantly assess their understanding.
This bundle of 3 lessons covers most of the content in sub-topic P6.1(Physics on the move) of the OCR Gateway A GCSE Combined Science specification. The topics or specification points covered within these lessons include:
Everyday motion
Reaction time and thinking distance
Stopping distances
All of these lesson presentations and accompanying resources are detailed and engaging and contain regular progress checks to allow the students to constantly assess their understanding.
This is a fully-resourced revision lesson that uses a combination of exam questions, understanding checks, quick tasks and quiz competitions to enable students to assess their understanding of the content found within Module P1 (Matter) of the OCR Gateway A GCSE Combined Science specification.
The sub-topics and specification points that are tested within the lesson include:
Describe how the atomic model has changed over time
Define density
Measure length, volume and mass to calculate density
Explain the differences in density between the different states of matter in terms of the arrangements of atoms and molecules
Describe how physical changes differ from chemical changes
Define the term specific heat capacity and distinguis between this term and specific latent heat
Carry out calculations to apply the equations involving specific heat capacity and specific latent heat
Students will be engaged through the numerous quiz rounds whilst crucially being able to recognise those areas which require their further attention during general revision or during the lead up to the actual GCSE terminal exams
This is a fully-resourced revision lesson that uses a combination of exam questions, understanding checks, quick tasks and quiz competitions to enable students to assess their understanding of the content found within Topic P14 (Particle model) of the Edexcel GCSE Combined Science specification.
The sub-topics and specification points that are tested within the lesson include:
Explain the different states of matter in terms of movement and arrangement of particles
Recall and use the equation to calculate density
Explain the differences in density between the different states of matter
Describe how mass is conserved during changes of state and understand how these physical changes differ from chemical changes
Define the terms specific heat capacity and specific latent hear and explain the differences between them
Use the equations to calculate change in thermal energy and thermal energy for a change in state
Knows way to reduce unwanted energy transfer
Describe the term absolute zero, in terms of the lack of movement of particles
Convert between the kelvin and Celsius scales
Students will be engaged through the numerous quiz rounds whilst crucially being able to recognise those areas which require their further attention during general revision or during the lead up to the actual GCSE terminal exams
This is a fully-resourced revision lesson, that is likely to be most effective when used over the course of a series of lessons, and has been designed to help students to revise and assess their knowledge of the content that is found in topics P4 (Waves and radioactivity), P5(Energy) and P6 (Global challenges) of the OCR Gateway A GCSE Combined Science specification. This is the content that will be assessed in paper 6 in the terminal exams.
This revision lesson uses a combination of exam questions, understanding checks, quick tasks and quiz competitions to cover the following sub-topics and specification points:
Wave behaviour
The electromagnetic spectrum
Radioactivity
Work done
Power and efficiency
Physics on the move
Powering Earth
This lesson contains a big emphasis on the mathematical calculations that will be involved in these exams, and as a result students are challenged to recall the equations and to apply them.
Students will be engaged through the numerous quiz rounds whilst crucially being able to recognise those areas which require their further attention during general revision or during the lead up to the actual GCSE terminal exams. A lot of the tasks have been differentiated so that students of all abilities can access the work and be challenged appropriately.
This is fully-resourced REVISION lesson that contains an engaging PowerPoint (98 slides) and associated differentiated worksheets and has been designed to challenge the students on their knowledge of the content in TOPIC 4 (Electricity and magnetism) of the Cambridge IGCSE Physics specification. The lesson includes a wide range of activities which aim to motivate the students whilst they assess their understanding of the content and recognise those areas which need further attention.
The lesson was designed to include as many sub-topics as possible but the following have been given a particular focus:
Logic gates
Series and parallel circuits and circuit calculations
Resistors
Diodes and their roles as rectifiers
Fleming’s left-hand rule and the motor effect
Transformers
This lesson is suitable for revision purposes at numerous times of the year, whether it be at the end of the topic or in the lead up the mocks or actual IGCSE exams
An engaging lesson presentation (57 slides) and associated worksheets that uses a combination of exam questions, quick tasks and quiz competitions to help the students to assess their understanding of the topics found within module P6 (Global challenges) of the OCR Gateway A GCSE Combined Science specification.
The topics that are tested within the lesson include:
Everyday motion
Reaction time and thinking distance
Braking distance and stopping distance
Energy sources
The National Grid
Mains electricity
Students will be engaged through the numerous activities including quiz rounds like “Can you go the DISTANCE” whilst crucially being able to recognise those areas which need further attention
An engaging, practical-based lesson presentation (22 slides), accompanied by a practical worksheet and application questions which together explore how the extension of a spring is related to force according to Hooke’s Law. The lesson begins by introducing the name of the law and looking at the equation which connects the force, extension and spring constant. As spring constant is likely to be a new term to students, time is taken to look at the definition of this key term. Students are given hints throughout the lesson about potential issues to look out for, including the unit of spring constant being N/m when the majority of springs are small enough that their extension will be measured in cm or mm. Moving forwards, students will follow the provided experimental method to carry out the investigation and produce a set of results which can be used to plot the line. The two distinct sections of the line are discussed and the actual words of Hooke’s Law are given and again discussed and considered. The final part of the lesson involves the students being challenged to apply their knowledge of the law to a range of application questions and assessing against the displayed mark scheme.
This lesson has been written for GCSE students but can be used with KS3 students who are studying the extension of a spring
A concise lesson presentation (22 slides) and question worksheet, which together focus on the challenge of applying the equations of motion to calculation questions. Students are given this equation on the data sheet in the exam - therefore, this lesson shows them how they will be expected to rearrange in it four ways. For this reason, the start of the lesson revisits the skills involved in rearranging the formula, beginning with simple tasks and building up to those that involve indices as are found in this equation. Once students have practised these skills, they are challenged to answer 4 questions, although 1 is done together with the class to visualise how to set out the working.
This lesson has been designed for GCSE students
A fully-resourced lesson that explores how resistance, current and potential difference differ between series and parallel circuits. This knowledge needs to be sound in order for students to be able to carry out circuit calculations. The lesson includes a practical and task-based lesson presentation (24 slides) and an accompanying worksheet. The lesson begins by challenging the students to recognise the key difference between the two circuits, in that in a parallel circuits, the electrons can follow more than one route. Moving forwards, each physical factor is investigated in each type of circuits and students carry out tasks or calculations to back up any theory given. Helpful analogies and hints are provided to guide the students through this topic which is sometimes poorly understood. Students will be challenged to use the V = IR equation on a number of occasions so that they are comfortable to find out any of these three factors. Progress checks have been written into the lesson at regular intervals so that students are constantly assessing their understanding and any misconceptions can be addressed.
This has been written for GCSE students, but could be potentially used with higher ability KS3 students.
This bundle of 14 lessons covers the majority of the content in Topic P2 (Forces) of the OCR Gateway A GCSE Combined Science specification. The topics covered within these lessons include:
Speed and velocity
Acceleration
Distance and velocity-time graphs
Contact and non-contact forces
Free body diagrams
Resultant forces
Terminal velocity
Momentum
Conservation of momentum
Mass, weight and gravitational field strength
Gravitational potential and kinetic energy
Work done and power
Hooke’s Law
All of these lesson presentations and accompanying resources are detailed and engaging and contain regular progress checks to allow the students to constantly assess their understanding. It is estimated that this bundle would cover over 6 week’s worth of lessons.