A KS3 introduction to the structure of the atom designed to challenge higher level students (However this lesson could be transferable to lower KS4 classes). Students are introduced to the large hadron collider and compare it to the particle accelerator Tony Stark creates in Iron man 2. Students use a range of materials to create their own atomic model of an atom using the rules learnt from the previous lesson. Students evaluate their own model in reference to its strengths and limitations. This introduction will allow students to further discuss ideas of compounds, bonding and reactivity in a far higher level in future lessons.

This resource contains two lessons used to begin the GCSE AQA course. Using the SPE as an example, the lessons cover the skills needed to describe and evaluate a study. Lesson 1: Focuses on reading academically. Students complete a comprehension task where meta-cognition skills are demonstrated by the teacher. Students watch a short video related to the SPE and write-up the main findings. Lesson 2: Introduces the value of evaluation. Students complete a range of tasks, including a living graph, in which students can practice verbalising the strengths and weaknesses of an experiment. This lesson follows the Psychology taster lesson.

Students are introduced to the difference between atoms and compounds through a comparison of a range of substances that include high levels of potassium. Student use this comparison to develop a definition for compounds. Students use their new knowledge to complete four mini- practical investigations to consolidate their learning.

Students are given a picture of biological systems and asked to consider the range of factors the body regulates e.g. pH of blood, sugar levels, temperature etc Students are re-introduced to homoeostasis and negative feedback before completing a diagram related to the negative feedback loop of hunger and satiation. Students use the cat book edition 4 to consider evaluative points and complete A3 summary sheet

Students are introduced to diets by watching the history of diets. After running through the three AO1 theories students research one evaluative point each to share to the class. Students use their understanding to complete the essay sheet.

-Students remind themselves of the indicators of a chemical reactions. -The powerpoint runs through the definitions of reactants, products, and the conservation of mass. -Teacher demos magnesium ribbon burning in oxygen to form magnesium oxide, using this to remind students of word equations. -Combustion is used as an example to explain balancing symbol equations. Students could use moli-mods at this point. -Teacher uses the risk assessment/instruction sheet to make a methane (below is a link to my twitter account demonstrated the rocket) rocket before students complete some more questions from the PowerPoint below is a link to my twitter account demonstrating the rocket in a science club https://quik.gopro.com/v/oxR1vLo0Dz/ https://twitter.com/neatguy_watson?lang=en

Students are introduced to the idea that moles are an amount of things similar to pairs and dozen. Using the PowerPoint student are introduced to Avogadro's constant and that a relative atomic mass in grams equals one mole of an atom. Students complete a experiment in which the rotate around the room to weigh different amounts of substances in beakers to calculate how many moles are present. Students use the mass of the beaker and the symbol formula (written on the side) to calculate the mass/mmr. Students practice rearranging the calculation.

Students rearrange the common equations into formula triangles and learn how to rearrange more complex formulae such as the kinetic energy calculation. Students use their sheet to find a range of treasure (questions...) around the room.

Students are introduced for the need of ratios in chemical reactions before running through a worked example on the PowerPoint. Students complete the famous magnesium oxide crucible experiment before completing a range of calculations.

Students complete a six mark question to remind themselves about ionic bonds, inter-molecular forces and molecules. Students are introduced to the common acids and base formulae. Students run through a range of word equation and formula equation tasks using the worksheet and sorting cards. The formula crib sheet supplements this resource.

Each lesson includes a ‘blast from the past quiz’, a range of activities and an AFL task that relates to their progress. This lesson is part of the Environmental Chemistry unit targeted at Year 8s. Students are introduced to an inquiry photograph regarding forest fires. Students use the scenario built up from a video clip that allow the students to investigate what causes combustion. Students are introduced to the evidence that oxygen is an reactant, carbon dioxide is a product. Students write a report to the firefighter with their findings and possible methods of putting the fire out.

Each lesson includes a ‘blast from the past quiz’, a range of activities and an AFL task that relates to their progress. This lesson is part of the Environmental Chemistry unit targeted at Year 8s. Students compete a discussion and inquiry question regarding tan oil. Students complete a range of tasks that introduces them to the mixture crude oil and links the theory of distillation to separation techniques (from Year 7).

Each lesson includes a ‘blast from the past quiz’, a range of activities and an AFL task that relates to their progress. This lesson is part of the Environmental Chemistry unit targeted at Year 8s. Students are introduced to how scientists investigate the Earth’s early atmosphere. They are introduced with the problem of not having empirical evidence (that cannot be directly observed). Students join Doctor who ona journey back to the beginning of the Earth’s early atmosphere. Students observe directly how the Earth’s atmosphere changes and plot the changes on a line graph that overlays oxygen, carbon dioxide and nitrogen changes. Students finish the lesson with an introduciton into the modern day atmosphere.

Two PowerPoints that run through the AO1 and AO3 aspects of the biological explanation of Anorexia. Students use the information and Cat textbook edition 4 to complete an evaluative table for the first lesson and follow the PowerPoint and complete the essay sheet for the second lesson.

students are reminded of the evolutionary approach and are asked to explain three odd behaviours or biological phenotypes e.g. why do peacocks have large tails? Why do we sneeze? Why do hostages develop strong positive feelings for their capturer? Students then take part in a class blind folded taste test: Sugar, honey, chilli, salt, PTC, crisps ensuring there are no allergies. this should provoke discussion. Students use their text book, carousel work sheets and the PowerPoint to fill in their evaluation sheet. The end of the lesson should be used to discuss what they have found out.

Students complete a treasure hunt activity to remind themselves of key terminology. This resource includes a mid term and end of term mini test of 24 marks.

Students recap their understanding of momentum using an example of a baseball player, and a person firing a gun. Students are introduced to the idea of increase the time taken to stop can decrease the amount of force. Students use this idea to discuss bicycle helmets and air bags. Students use their new understanding to complete a summary poster.

Students identify the adaptations of a magical reindeer and remind themselves of the GPE and Power equations to calculate how many calories each reindeer would need to fuel their journey on christmas eve. Students burn a range of food (including dried carrots) to see how much energy is stored in each and to extrapolate up how many carrots (in grams) would the reindeers need to eat. Ho Ho Ho.

Students complete a 6 mark question related to outlining the clinical symptoms of anorexia nervosa and compare it to a model answer. Divide an A3 piece of paper into three and pass it to three groups in the class. Students use the textbook to write brief descriptions about relative theories and studies. After running through the PowerPoint students complete an applied question related to the genetic factors and compare it to a model answer.

Students complete reminder questions related to the definition of acids by joining the lines to the correct definition. Students complete an experiment by dissolving magnesium ribbon in different concentrations of acid and timing the rate of reaction. This is related to the idea of concentration of hydrogen ions present.