I am a secondary school & A-level Science teacher, specialising in Biology. I am also an experienced AQA GCSE Biology Examiner. My resources contain a mix of Biology, Chemistry and Physics lessons aimed at meeting specification points for the new AQA Trilogy GCSE course and KS3 Activate course.
All of my lessons include at least one opportunity for self-assessment, a range of activities to suit students of all abilities, a set of differentiated starter questions and a plenary.
I am a secondary school & A-level Science teacher, specialising in Biology. I am also an experienced AQA GCSE Biology Examiner. My resources contain a mix of Biology, Chemistry and Physics lessons aimed at meeting specification points for the new AQA Trilogy GCSE course and KS3 Activate course.
All of my lessons include at least one opportunity for self-assessment, a range of activities to suit students of all abilities, a set of differentiated starter questions and a plenary.
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Rates of Reaction’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
The lesson begins with students introduced to the idea of concentration in terms of no. of particles per cm3. Students will then need to ‘Think > Pair > Share’ their ideas of how an increase in concentration may affect the rate of a reaction.
Students can use their ideas from this first task to make a prediction for the investigation into the rate of reaction between sodium thiosulphate and different concentrations of HCl. Students will need to conduct this investigation using the practical sheet provided, record their results, plot a graph of their results and complete a conclusion. Students can assess their explanation of the results they collected using the answer provided in the PowerPoint presentation.
The next part of the lesson will focus on the effect of pressure on the rate of a reaction. Students will firstly be introduced to the idea of an increasing pressure leading to an increase in the number of particles per cm3, using this information and the diagrams provided pupils can ‘Think > Pair > Share’ their ideas about how an increase in pressure would affect the rate of a reaction. Their answer to this question can self-assessed using the answers provided.
Next, students need to work through a set of levelled questions on the effect of pressure on the rate of a reaction. This work can be self-assessed using the answers provided on the PowerPoint.
The last task is for pupils to plot a set of results onto graph paper, using these data they can calculate the initial rate of reactions for two concentrations of HCl. Students can assess their work using the mark scheme provided on the PowerPoint.
The plenary task is for pupils to write down three quiz questions (and the answers!) to test their peers knowledge of what they have learned in the lesson.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Chemical changes and electrolysis’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
Students are firstly introduced to the idea of a displacement reaction using an example of aluminium and iron oxide, pupils will then be given a list of chemical reactions and for each one students will need to decide whether a displacement reaction will occur.
Students will now conduct an investigation whereby they will place a metal - copper, magnesium, iron and zinc - into copper sulphate solution and observe what happens. Using the results from this investigation, students should decide on the order of reactivity of these metals. Students are now given another list of reactions, for each one students need to now decide if a displacement reaction will take place and if so write out the word equation for each. Students can mark their work using the answers provided.
The next part of the lesson focuses on oxidation and reduction, firstly students are provided with a definition of these two processes. They are then shown how to write an ionic half equation to demonstrate what is happening what is happening during a displacement reaction, which metal has been oxidised and which has been reduced. Pupils need to complete the ionic half equations for a list of reactions, pupils can assess their work against the answers provided on the PowerPoint presentation.
The last task is a progress check, students need to work their way through a set of questions to assess what they have learnt this lesson. The answers to which are included on the PowerPoint slides forstudents to self-assess or peer-assess their work.
The plenary task is for pupils to write a twitter message about what they learnt this lesson, no more than 140 characters and #keywords!!
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Rates of Reaction’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
This lesson begins with a video on catalyts, pupils will need to watch this and use the information provided to answer a set of questions. This work can then be self-assessed using the answers provided on the PowerPoint. This is followed by students sketching a reaction profile diagram into their books to show the effect of a catalyst on the activation energy of a reaction.
In the next task pupils will be given some information on catalysts, they will need to read through this and use this to complete a place-mat of questions. Once completed, students can either self-assess or peer-assess their work using the mark scheme provided.
Pupils will now work through a set of levelled questions on catalysts using data which is provided, pupils can then self-assess their work using the answers provided on the PowerPoint.
The final task is a true or false activity, pupils are given a set of statements which they need to decide are true or false. They can write their answers down on mini white boards so it is easier to assess the whole class.
The plenary activity requires pupils to talk to their partner, for a few minutes, about what they have learnt in the lesson today.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Chemical changes’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
The lesson begins with an worked example of how to balance equations, after this pupils are asked to complete a fill-in-the-blank task to summarize the importance of balancing equations. This work can be assessed using the answers provided on the PowerPoint presentation.
There are two further worked examples for the teacher to go through using the PowerPoint presentation, pupils will specifically look at the number of atoms of each element on each side of the equation to decide whether it is balanced or not. If it is not balanced then the class can discuss how to go about balancing it and pupils can attempt to answer the problems.
The next worksheet is a set of equations, for each one the student must add up the number of atoms of each element on each side of the equation to decide if the equation is balanced or not. If it is not balanced students can have a go at balancing it, pupils can self-assess their work using the answers provided on the PowerPoint presentation. Finally pupils can have a go at balancing a list of equations, again the answers will be provided for pupils to assess their work.
The next part of the lesson pupils will look at reacting masses, pupils will be shown how they can use a balanced symbol equation to work out the reacting masses Pupils will be shown a worked example first, then be given the steps that they need to carry out the calculations themselves. Pupils will then be given a worksheet of problems to work their way through, this work can be self-assessed using the answers in the PowerPoint presentation.
Pupils will then be given a set of slightly harder problems to work through, these can be skipped for lower ability classes but would be useful to higher ability classes.
The last part of the lesson focuses on teaching students to use the masses of reactants to work out the balanced symbol equation for a reaction. Again, pupils are shown a worked example and given a set of steps to help them to complete the problems themselves. They will then be given a worksheet to complete a set of problems.
The plenary task requires students to write a twitter message on what they have learned about quantitative chemistry.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the KS3 Year 8 Science course, specifically the C2 1.4 unit on ‘The Earth’.
For more lessons designed for KS3 and KS4 please visit my shop at: https://www.tes.com/teaching-resources/shop/SWiftScience.
The lesson begins with an introduction to the structure of the Earth and a description of each of the layers found within the centre of the Earth. Students will now complete a ‘Memory Test’, students will need to memorise the information shown about the structure of the Earth. They will then be given a blank worksheet to copy down as much information as they can remember, this will the be self-assessed using the mark scheme provided.
The next part of the lesson focuses on the composition of elements found in the Earth’s crust, students will firstly be shown a table which shows % composition of different elements found in the Earth’s crust. Students will then watch a video demonstrating the steps involved with drawing a pie chart. Students will then need to use the skills acquired to carry out the necessary calculations and draw a pie chart, using the data provided. Once complete, students can then self-assess their work using the mark scheme provided.
Lastly, students will learn about the gases which are found within the Earth’s atmosphere and how these have changed over time. Students will compare the composition of the Earth’s atmosphere today to the Earth’s atmosphere 3 billion years ago. Firstly, they are asked to describe the changes which have occurred over the 3 billion years and secondly they will need to draw a pie chart to represent the composition of the Earth’s atmosphere today.
The plenary task is an anagram challenge, students are given five anagrams of key words learned this lesson. They will need to unscramble them to figure them out, the answers to this task is included in the PowerPoint.
All resources are included at the end of the presentation, thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Chemistry GCSE, particularly the 'Atomic Structure & Periodic Table' SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
This lesson begins with an introduction into the sub-atomic particles that make up an atom, pupils will need to fill in a diagram and statements to describe the position of each of these particles. Pupils will then be shown the charges and relative mass of each of these particles for a couple of minutes during a 'memory test' activity, they will then try and copy the information down into their books from memory.
Next is a mid-lesson progress check where pupils will need to answer questions off the board in pairs.
In the next half of the lesson pupils are introduced to the idea of atomic and mass numbers, they are firstly asked to use their periodic table to identify the atomic and mass numbers of certain elements. This work is self-assessed and then pupils are asked to think about how the number of neutrons could be calculated, once revealed pupils are then given a large table to complete to identify the atomic number mass number, plus the number of protons, neutrons & electrons for the first 20 elements.
The plenary task is an exit card where pupils can identify the areas in which they feel confident with this topic and those areas they feel they need more practise with.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Chemical calculations’ SoW and specifically designed for higher tier GCSE chemistry students.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
The lesson starts with students learning how to calculate the concentration of a solution in mols/dm3 when you know the mass of the solute in the solution. Students learn the steps necessary to complete this calculation, they can then complete a set of problems. This work can be self-assessed using the answers provided in the PowerPoint presentation.
Students are then asked to discuss how they might work out the mass of a solute in a solution when they know the volume and concentration of a solution. After a short class discussion, the PowerPoint reveals four steps students should work their way through when approaching a problem such as this one. Students are then given two further problems to have a go at, they should show their working at each step of the calculation. Answers to the questions, as well as working out, is included in the PowerPoint presentation.
Students are then given a worksheet, including a worked example of how to use a titration to calculate the concentration of a unknown substance. Using the worked example as a guide, students should attempt to answer the questions on the worksheet. For lower ability students it will be worth going through the worked example on the board first, those very able students should be able to use the worked example as a guide when answering the other questions
Once this task has been completed students should self-assess their work using the mark scheme provided.
The last task is a titration practical, their is a worksheet included in the PowerPoint for students to use as guide when completing the practical - including an aim, equipment list, method and results table. Once they have completed the investigation they should be able to use the balanced symbol equation to calculate the concentration of sulfuric acid used in this titration.
The plenary task is for pupils to write down 3 key words, 2 facts and a question to test their peers on what they have learned today.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the Activate KS3 Science Course, specifically Year 7 C4 ’Acids & Alkalis’.
For more lessons designed for KS3 and KS4 please visit my shop at: https://www.tes.com/teaching-resources/shop/SWiftScience.
This lesson begins with an introduction to the chemical formulae of the three main acids, students are asked to consider what they have in common - hopefully they should all identify that the chemical formulae of each acid contains hydrogen atoms.
Students are now given some information about salts, which are made as a result of an acid and a base reacting together. Students will need to read the information and answer a set of questions, this work can then be self-assessed using the mark scheme provided.
Students will be introduced to the different types of reactions which make salts, e.g. metals reacting with acids and acids reacting with bases. Students will then watch a video observing a metal reacting with an acid, they will need to note down the observations they make during the reaction.
Students will then be shown some examples of word equations for metals reacting with acids and a pattern will be pointed out to students, to help them write word equations for other metals with acid combinations. Students will then need to finish off the word equations for a set of metal and acid reactants, this task can be self-assessed using the mark scheme once it is complete.
Next, students are introduced to the basic word equation for a base and an acid -> salt plus water. Students can then practice finishing the word equations for a set of base and acid reactants, this task can also be marked and corrected using the answers provided on the PowerPoint. Students can now summarise what they have learned so far by completing a ‘fill-in-the-blank’ task, this work can be self-assessed using the mark scheme provided.
Lastly, students will complete a practical investigation to make their own salt crystals. The practical worksheet is provided, students can follow the method in pairs or small groups.
The plenary task requires students to write a list of key words that they have learned over the course of the ‘Acid & Alkali’ topic.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the KS3 Year 8 Science course, specifically the C2 1.1 unit on ‘The Periodic Table’.
For more lessons designed for KS3 and KS4 please visit my shop at: https://www.tes.com/teaching-resources/shop/SWiftScience.
The lesson begins with an introduction to the elements found within Group 7 of the Periodic Table - the Halogens. Students will learn about some of the properties of these elements before each being given some information on the physical properties of one particular halogen. Students will then need to walk around the room and share information with each other in order to complete a summary table. This work can be self-assessed using the mark scheme provided.
Students will now need to focus on identifying trends with the halogen group, students will be given the melting points and boiling points of the halogen elements. Using this data they will need to answer a set of questions, this task can then be self-assessed using the mark scheme provided.
The next part of the lesson will focus on displacement reactions which occur amongst halogens, students will be shown a diagram which demonstrates how a more reactive halogen will displace a less reactive halogen. Students will now assess their knowledge of this topic by completing a set of word equations, this work can the be self-assessed using the mark scheme provided.
The plenary activity requires students to ‘Pick a Plenary’ - either summarise what they have learned in three sentences or write a definition for a set of key words which were learned this lesson.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, for more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
This lesson begins with a description of an exothermic reaction, including examples such as the thermite reaction and the screaming jelly baby reaction. This includes link to videos to demonstrate the energy transfers which are taking place during these exothermic reactions.
Pupils are then asked to think>pair>share ideas about what an endothermic reaction might be and to come up with any examples if they can. Once students have had chance to discuss in groups, they can feedback to the class for a brief class discussion before the answer and examples are revealed using the PowerPoint presentation.
The next part of the lesson requires pupils to undertake an investigation into different reactions, they will identify whether three different chemical reactions are either endothermic or exothermic bu measuring the temperature change for each of them. Students should follow the instructions included and record their results in the table provided.
Students are now introduced to energy level diagrams to explain what is happening during an endothermic and exothermic reaction, they can sketch an example of each in their books for future lessons on energy profiles. The next part of the lesson will be a progress check, students should answer in their books and the work can be self-assessed using the answers provided.
The last part of the lesson is on uses of endothermic and exothermic reactions in products, students will each be given a card of information. They will need to share their information with others to complete a table in their books to describe each of the products, identify if it is an endothermic or exothermic reaction and evaluate the advantages and disadvantages.
The plenary task is for pupils to come up with their own product which uses either an endothermic or exothermic reaction.
Thank you, leave any questions in the comment section :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Rates of Reaction’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
This lesson begins with an introduction to reversible reactions, including the example of thermal decomposition of ammonium chloride.
Pupils will then conduct an investigation into the energy changes which occur during a reversible reaction, using the practical sheet provided students will carry out the experiment and record their results in the table provided. The reversible reaction from this investigation is then shown on the board, with an explanation of the energy changes that are taking place as the reaction moves in either the forward or reverse direction.
Pupils will now watch a video on energy changes which take place during a reversible reaction, using this they will need to answer a set of questions. This work can be self-assessed using the answers provided on the PowerPoint presentation.
Pupils will now need to complete a ‘Quick Check’ task which includes questions within the module of ‘Rates of Reaction’, students can then self-assess or peer-assess their work using the mark scheme provided.
Finally, pupils can complete a crossword which summarizes definitions used within the ‘Rates of Reaction’ module, the answers for this are provided for self/peer assessment.
The plenary task required pupils to complete an exit card listing 3 things they have learnt today, 5 key words and 1 question to test their peers knowledge of a subject.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Chemical calculations’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
The lesson begins with an introduction to relative atomic mass, including an explanation of how we can use the periodic table to find the atomic masses of different elements. In order to assess their understanding of this topic pupils will then complete a table identifying the atomic number, mass number and the number of electrons/protons/neutrons found within atoms of specific elements. This task can then be assessed using the answers provided in the PowerPoint presentation.
Pupils will now think about what the formula of a chemical compound tells us about the elements found in that compound. Using examples pupils will be taught about formulae, they will then be given a list of formulae for various different chemical compounds and will need to list the different elements found in that compound as well as the number of atoms of each of the elements. This task can then be assessed using the answers provided.
The next part of the lesson will focus on relative formula mass, pupils will be taught, using a worked example, how to calculate the relative formula mass for a chemical compound. They will then need to complete tasks involving the calculations of relative formula mass, once complete pupils can self-assess their work using the answers provided.
The last part of the lesson focuses on moles, the definition is first introduced to pupils which can be explained further using the link the video included in the PowerPoint. Pupils are then shown how to calculate the number of moles of a substance using the relative formula mass and actual mass of a substance. Pupils will be then need to complete a set of calculations to work out the moles of different substances, this task can be assessed using the answers provided. Pupils are lastly shown how to rearrange this calculation where needed, they can then apply this skill to a new set of problems. The answers to which are included in the PowerPoint presentation, pupils can use this to assess their work.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the 'Earth’s Atmosphere’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
The first part of the lesson asks students to think > pair > share some of their answers to questions about pollution - where does it come from? How may we monitor it? Once pupils have gathered together their ideas as groups, a class discussion can highlight some of the important ideas & the next slide details the answers.
The next task focuses on sulfur dioxide pollution and it’s contribution to the formation of acid rain. Pupils will be given some information in pairs about this pollutant and will be required to answer questions about this information in their books. Once completed pupils are able to self-assess their work using the answers provided in the PowerPoint.
Pupils will now watch a video on complete vs. incomplete combustion to think about the gases released into the atmosphere via these two processes. They will need to answer a set of questions whilst watching this video, they can then self-assess their work using the answers provided. Two further atmospheric pollutants are now introduced to the class - nitrogen oxides and also solid particulates released by diesel engines.
Pupils will now complete a fill-in-the-blank task to summarise what they have learned to far this lesson, this task can then be self-assessed using the answers provided. This is followed by a quick check ‘True or False’ activity, pupils will need to identify whether a list of statements are true or false.
The next part of the lesson focuses on how scientists can monitor pollution, pupils are given a set of results from particle collector pads which have been left in certain locations around the UK. Pupils need to record their results in a table, draw a graph to represent the results and write a conclusion about their results.
The plenary task is for pupils to either summarise what they have learned today in three sentences or write a definition of a list of key words from today’s lesson.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the Activate KS3 Science Course, specifically Year 7 C1.1 ’Particles & their Behaviour’
For more lessons designed for KS3 and KS4 please visit my shop at: https://www.tes.com/teaching-resources/shop/SWiftScience.
Students will firstly watch a video on the changes of state, this outlines processes students have covered in previous lessons as well as new processes such as evaporation, condensation and sublimation. Whilst watching the video, students will need to answer a set of questions, this work can then be self-assessed using the mark scheme provided.
Students will now need to copy and complete a diagram to demonstrate the changes of state which occur between solids, liquids and gases. This work can be assessed using the mark scheme provided once it is complete.
Students are now given an explanation of evaporation using the particle model, students can take notes on this process - including a particle diagram to depict the process. After this students are given a set of statements which either describe the process of boiling or the process of evaporation, students should sort these statements into the correct columns. The answers for this task are included on the PowerPoint for students to assess their work.
Students will now be asked to ‘Think > Pair > Share’ their ideas on the factors which could affect the rate of evaporation. Once students have had a chance to discuss their thoughts, they should feed back to the class before the answers are revealed.
Lastly is a ‘true or false’ assessment task, students need to read the statements and decide whether they are true or false. This work can be assessed using the mark scheme provided.
The plenary requires students to spend a minute talking to the person next to them about what they have learned this lesson.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Structure & Bonding’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
Students are firstly introduced to collision theory, outlining the conditions which need to be in place in order for a chemical reaction to occur. Next students are asked to ‘Think, Pair, Share’ factors which they think may affect the rate of a reaction, once students have had chance to discuss this they are introduced to the four main factors which they study within this topic.
Firstly, the lesson will focus on surface area, this factor is explained using apple slices turning brown as an example, students are then introduced to the relationship between surface area to volume ratio and the rate of reaction. Students will then need to complete a worksheet of surface area to volume ration calculations, this can then be self-assessed using the mark scheme available.
Students will now work through a set of levelled questions looking at data on the effect of surface area on the rate of reaction, this work can be self-assessed using the mark scheme provided in the PowerPoint presentation.
The next part of the lesson will focus on the effect of temperature on the rate of reaction, students will firstly need to answer questions whilst watching a video, this work can then be self-assessed using the mark scheme. Next, students will carry out an investigation into the effect of temperature on the rate of reaction between sodium thisulphate and hydrochloric acid. Students will need to collect data and use this to work out the rate of reaction at different temperatures, a worksheet is provided for this task.
The last task is for pupils to complete a ‘Quick Check’ set of questions in order to assess what they have learned this lesson, students can then either peer-assess or self-assess their work using the mark scheme provided.
The plenary task is for pupils to write a twitter message about what they have learned this lesson, included a hashtag of key words.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This bundle of resources contains 11 whole lessons, along with all additional resources, which meet all learning outcomes within the ‘Electricity’ unit for the NEW AQA Physics Specification.
Lessons include:
Electrical circuits
Electrical charges & fields
Current & charge
Electrical current & energy transfers
Electrical power & potential difference
6 Resistance & potential difference
7 Series & parallel circuits
8 Cables & plugs
9 Alternating current
Appliances & efficiency
Current-Potential difference Graphs
The lessons contain a mix of differentiated activities, progress checks, practical investigations, exam questions and more than two opportunities, per lesson, for self/peer red-pen assessment of tasks.
This lesson is designed for the NEW AQA Chemistry GCSE, particularly the 'Atomic Structure & Periodic Table' SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
This lesson begins with student discussing the differences between atoms, compounds & mixtures and writing their ideas down, this is knowledge they should be able to recall from KS3. This is then explored further using an animation with questions that pupils are required to answer. After self-assessment of this task pupils are introduced to the definitions of each: atoms, elements, compounds and mixtures and will need to complete a fill-in-the-blank task to summarise.
Pupils will then be given a selection of diagrams on the board, they will need to determine whether these diagrams are representing elements, compounds or mixtures. Once complete they can self-asses their work using the answers provided.
The next part of the lesson introduces students to the idea of the periodic table, pupils will need to stick in a copy of it and then will be given a task sheet which can be completed using the names and symbols of the elements.
The plenary task is a set of questions about what students have learnt that lesson.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the 'Earth’s Atmosphere’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
The lesson begins with an outline of why nitrogen so important to plants and how farming can disrupt the balance of nitrate ions in the soil, hence the need for efficient fertilisers.
Firstly, pupils will watch a video on the Haber process - a way of turning nitrogen in the air into ammonia, the ammonia can then be used to produce fertilisers. Whilst students are watching the video they should be answering a set of questions which will be provided to them, this work can then be self-assessed using the mark scheme provided.
Next, pupils are given a diagram of the Haber process as well as some jumbled up statements describing each step - they will need to arrange the statements in the correct order - assigned to the correct part of the diagram. This work can be self-assessed using the mark scheme provided.
The next part of the lesson focuses on the reaction that takes place and the controlled conditions of the reaction vessel which ensures that the optimum temperature and pressure are maintained for the optimum yield of ammonia - without expending more energy than needed!
The last part of the lesson is a set of exam-style questions, pupils will need to answer these in their books and they can then either peer or self-assess their work using the answers provided.
The plenary task is for pupils to write a list of key words from the lesson.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Trilogy Chemistry GCSE, particularly the ‘Structure & Bonding’ SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
This lesson begins with a recap on the differences between solids, liquids and gases in terms of the arrangement and movement of particles in each of these states of matter. Pupils complete a card sort activity to assess their knowledge on this topic and they can then self-assess their work using the answers provided.
The next part of the lesson focuses on the transitions between states of matter, pupils are firstly reminding of the definitions of melting point, boiling point and freezing point. They will then watch a video on the the transition between states of matter, they will need to answer a set of questions whilst watching the video. This work can be assessed using the answers provided in the PowerPoint presentation. Using the knowledge from this task pupils can then consider why different substances have different melting/boiling points and why adding impurities to a substance may affect the melting/boiling point of a substance.
The next part of the lesson focuses on energy transfers transfers between states of matter, pupils will firstly label a graph with statements to demonstrate what is happening to a substance as it is heated up over time. Pupils then consider, in depth, what is happening to the particles over this period of time, they can think > pair > share their ideas before the answers are revealed within the PowerPoint presentation using diagrams to illustrate the point. Pupils will then complete a set of questions on energy transfers between states of matter to assess their knowledge on the subject. This work can then be either self or peer assessed using the answers provided.
The last part of the lesson is a task where pupils need to consider the limitations of the particle model of matter, again pupils can discuss in their groups what ideas they have on limitations of the model before some examples are revealed at the end of the presentation.
The plenary task is for pupils to write a twitter message about what they have learnt today, including as many keywords as possible.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)
This lesson is designed for the NEW AQA Chemistry GCSE, particularly the 'Atomic Structure & Periodic Table' SoW.
For more lessons designed to meet specification points for the NEW AQA Trilogy specifications for Biology, Chemistry and Physics please see my shop: https://www.tes.com/teaching-resources/shop/SWiftScience
This lesson starts with a video about the developments in the atomic model starting from Greek philosophers to 20th Century scientists. Pupils are given a set of questions to answer whilst watching the video, this work can be self-assess using answers provided.
Next, pupils are given a set of cards with bits of information about different scientists involved in the development of the model of the atom. Pupils should put these cards in order and then use the information on the cards to formulate a timeline in their books, they should use the information on the cards to add labels describing the work of each of the scientists.
Once this work has been marked, pupils are then introduced to the idea of isotopes and ions. Pupils will then watch a video and will need to answer questions whilst watching and also complete a fill-in-the-blank summary sentence about what they have learnt. This work can be assessed using the answers provided.
All resources are included at the end of the presentation. Thanks for looking, if you have any questions please let me know in the comments section and any feedback would be appreciated :)