This fully-resourced lesson describes the roles of the SAN, AVN, bundle of His and Purkyne fibres in the neural control of the cardiac cycle. The engaging PowerPoint and accompanying resources have been designed to cover the second part of point B3 in UNIT 2 of the Pearson BTEC Level 3 National Diploma in Sport and Exercise Science The lesson begins with the introduction of the SAN as the natural pacemaker and then time is given to study each step of the conduction of the impulse as it spreads away from this node in a wave of excitation. The lesson has been written to make clear links to the cardiac cycle (which was covered in the previous lesson) and to the structure of the heart and students are challenged on their knowledge of this system. Moving forwards, students are encouraged to consider why a delay would occur at the AVN and then they will learn that the impulse is conducted along the Bundle of His to the apex before being conducted on the Purkyne fibres so that the contraction of the ventricles can happen from the bottom upwards. The final task of the lesson challenges the students to describe the conducting tissue, with an emphasis on the use of key terminology

This detailed lesson explains how five different sources are used in the energy production for sport and exercise. The engaging PowerPoint has been written to cover the first part of point A7 in UNIT 1 of the Pearson BTEC Level 3 National Diploma in Sport and Exercise Science specification which states that students should know how stored ATP, phosphocreatine, blood glucose, glycogen and fatty acids are energy sources. Time is taken to go through each of the five energy sources and to explain how they are used to produce or re-synthesise ATP. Students will understand how the different sources are used during different parts of exercise. A series of 5 quiz rounds is used to introduce important words and values in a memorable way to try to increase the likelihood of them being recalled.

This fully-resourced lesson describes the roles of the SAN, AVN, bundle of His and Purkyne fibres in the neural control of the cardiac cycle. The engaging PowerPoint and accompanying resources have been designed to cover the third point of section A9 as detailed in the CIE International A-level PE specification The lesson begins with the introduction of the SAN as the natural pacemaker and then time is given to study each step of the conduction of the impulse as it spreads away from this node in a wave of excitation. The lesson has been written to make clear links to the cardiac cycle (which will be covered in the next lesson) and to the structure of the heart and students are challenged on their knowledge of this system. Moving forwards, students are encouraged to consider why a delay would occur at the AVN and then they will learn that the impulse is conducted along the Bundle of His to the apex before being conducted on the Purkyne fibres so that the contraction of the ventricles can happen from the bottom upwards. The final task of the lesson challenges the students to describe the conducting tissue, with an emphasis on the use of key terminology

This fully-resourced lesson looks at the regulation of the heart rate by the cardiovascular centre in the medulla oblongata. The engaging and detailed PowerPoint and accompanying resources have been designed to cover the sixth point of SECTION A9 of Applied Anatomy and Physiology as detailed in the CIE International A-level PE specification. This lesson focuses on the neural and hormonal factors involved. This lesson begins with a prior knowledge check where students have to identify and correct any errors in a passage about the conduction system of the heart which was covered in an earlier lesson in A9. This allows the SAN to be recalled as this structure plays an important role as the effector in this regulatory system. Moving forwards, the three key parts of a regulatory system are introduced as the next part of the lesson will specifically look at the range of sensory receptors, the regulatory centre and the effector. Students are introduced to chemoreceptors and baroreceptors, as well as receptors in the muscles, and time is taken to ensure that the understanding of the stimuli detected by these receptors is complete and that they recognise the result is the conduction of an impulse along a neurone to the brain. A quick quiz is used to introduce the medulla oblongata as the location of the cardiovascular centre. The communication between this centre and the SAN through the autonomic nervous system can be poorly understood so detailed explanations are provided and the sympathetic and parasympathetic divisions compared. The final task challenges the students to demonstrate and apply their understanding by writing a detailed description of the regulation and this task has been differentiated three ways to allow differing abilities to access the work

This fully-resourced lesson describes the roles of the sinoatrial node (SAN) and the atrioventricular node (AVN) in the control of blood flow through the heart. The engaging PowerPoint and accompanying resources have been designed to cover the second part of point 1.2.5 as detailed in the Edexcel A-level PE specification and also includes the roles of the bundle of His and Purkyne fibres to enable students to get a full understanding. The lesson begins with the introduction of the SAN as the natural pacemaker and then time is given to study each step of the conduction of the impulse as it spreads away from this node in a wave of excitation. The lesson has been written to make clear links to the cardiac cycle (which is covered in an upcoming lesson) and to the structure of the heart and students are challenged on their knowledge of this system. Moving forwards, students are encouraged to consider why a delay would occur at the AVN and then they will learn that the impulse is conducted along the bundle of His to the apex before being conducted on the Purkyne fibres so that the contraction of the ventricles can happen from the bottom upwards. The final task of the lesson challenges the students to describe the conducting tissue, with an emphasis on the use of key terminology

This detailed lesson describes the characteristics and physiology of the aerobic energy pathway and has been designed for the Edexcel A-level PE course. In line with specification point 1.4.4 & 1.4.5, the content of the lesson covers the ease and speed of ATP production and the intensity and duration of exercise which will be supported by the aerobic pathway when it is the dominant energy provider. The lesson begins by introducing the aerobic pathway as the pathway that becomes the dominant energy provider after the ATP-PC and glycolytic pathways. Students are challenged to recognise that this pathway supports lower intensity exercise but that it will support exercise for a much longer duration than the others, suggesting that it produces a high yield of ATP. The main part of the lesson looks at how this high yield of ATP is produced during glycolysis, the Krebs cycle and the electron transport chain and students will learn the location of each of these stages in the cell. Questions, discussion points and quiz competitions are included throughout the lesson and act as understanding checks to ensure that any misconceptions are addressed immediately. The final tasks of the lesson are a series of multiple choice questions and a quiz round called “UNLOCK THE AEROBIC PATHWAY SAFE” where the teams of students compete to recall the quantitative values associated with this topic.

This detailed lesson introduces ATP as the body’s energy store and explains how PC, glycogen and fat are sources for its re-synthesis during exercise. The engaging PowerPoint has been designed to cover the second part of point 1.4.3 as detailed in the Edexcel A-level PE specification. The lesson begins by challenging the students to recognise that the link between muscle contraction, active transport and the conduction of electrical impulses is the need for energy. A number of quick quiz competitions are used throughout the lesson to maintain engagement and to introduce key terms and values and the first quiz round will result in the students meeting adenosine tri-phosphate (ATP). Time is taken to describe the structure of this energy store and to explain how it will be broken down into ADP and a phosphate and that this mechanism results in the release of energy for muscle contraction. Importantly, students will learn that the ATP stored in muscles will only allow for the first few seconds of contraction and therefore if exercise and contraction are to continue, the ATP will need to be re-synthesised. The main part of the lesson explores how phosphocreatine, glycogen and fats are sources for this re-synthesis. Key details about each of these sources are provided and explained and links are made to upcoming lessons on the energy pathways as well as to topics already covered such as the different types of muscle fibres. The final round of the quiz, which is called “What’s your SOURCE?” acts a final understanding check as the teams of students have to recognise one of the 4 energy sources based on a description. This lesson has been specifically written to tie in with the next lessons on the ATP-PC, glycolytic and aerobic pathways.

This concise lesson describes the function of the cerebellum. The PowerPoint and accompanying resources are part of the 3rd lesson in a series of 17 lessons that cover the details of the brain and neuropsychology topic of the AQA GCSE Psychology specification. In the previous lesson, the students were introduced to the function of the lobes of the cerebral cortex and so the initial task challenges them to use that knowledge to learn the name of the cerebellum. The students will be able to locate this structure on a diagram. Moving forwards, the function of this brain structure as controlling balance, posture and fine movement is introduced and real life examples are given. As this is the last lesson on brain structure, the final part of the lesson uses a BLOCKBUSTERS quiz to challenge their understanding of the content of the first 3 lessons of this topic. This topic of the brain and neuropsychology has proved particularly difficult for the students in recent years, so I have taken time to analyse the lesson sequencing. There’s a lot of content to absorb and to understand before moving onto the next part, so I’ve tried to ensure that cross topics links and prior knowledge checks run throughout the lessons. I have organised the lessons to run through the biology content first before moving onto the psychology parts as shown by the 17 lessons below: #1 Organisation of the nervous system #2 The structure and function of the cerebral lobes #3 The cerebellum #4 The structure and function of the sensory and motor neurones #5 The relay neurones #6 Synaptic transmission #7 Excitation and inhibition at the synapse #8 The somatic nervous system #9 The autonomic nervous system #10 The fight or flight response #11 James-Lange theory of emotion #12 James-Lange theory of emotion part 2 #13 Penfield’s study of the interpretative index #14 Hebb’s theory of learning and neuronal growth #15 An introduction to neuropsychology #16 Brain scanning techniques #17 Tulving’s gold memory study

This concise lesson acts as an introduction to topic 5.3, Energy and Ecosystems, and describes how plant biomass is formed, measured and estimated. The engaging PowerPoint is the 1st in a series of 3 lessons which have been designed to cover the detailed content of topic 5.3 of the AQA A-level Biology specification. A quiz round called REVERSE Biology Bingo runs throughout the lesson and challenges students to recognise the following key terms from descriptions called out by the bingo caller: community ecosystem abiotic factor photosynthesis respiratory substrate biomass calorimetry The ultimate aim of this quiz format is to support the students to understand that any sugars produced by photosynthesis that are not used as respiratory substrates are used to form biological molecules that form the biomass of a plant and that this can be estimated using calorimetry. Due to the clear link to photosynthesis, a series of prior knowledge checks are used to challenge the students on their knowledge of this cellular reaction but as this is the first lesson in the topic, the final section of the lesson looks forwards and introduces the chemical energy store in the plant biomass as NPP and students will also meet GPP and R so they are partially prepared for the next lesson.

This engaging lesson looks at the structure of a muscle fibre, and focuses on the proteins, bands and zones that are found in the myofibril. The PowerPoint and acccompanying resource have been designed to cover the second part of points 1.3.5 & 1.3.6 of the Edexcel A-level PE specification. The lesson begins with an imaginary question from the quiz show POINTLESS, where students have to recognise a range of fields of study. This will reveal myology as the study of muscles so that key terms like myofibril and myosin can be introduced. Moving forwards, students will be shown the striated appearance of this muscle so they can recognise that some areas appear dark where both myofilaments are found and others as light as they only contain actin or myosin. A quiz competition is used to introduce the A band, I band and H zone and students then have to use the information given to label a diagram of the myofibril. The final task challenges the students to use their knowledge of the sliding filament theory to recognise which of these bands or zones narrow or stay the same length when muscle is contracted

This lesson describes the steps involved in the closure of the Venus flytrap as a response to touch by an insect or an arachnid. The PowerPoint and accompanying resources have been designed to cover the detail of point (1) of topic 15.2 of the CIE A-level biology specification (for assessment in 2025 - 27). The lesson begins with a recall of tropisms as directional growth responses in plants and a short amount of time is allocated to discuss the importance of phototropism and gravitropism. This leads into the introduction of thigmotropism as a directional response to touch, before the students will learn that the closure of the Venus flytrap is an example of a thigmonastic response, a response that’s independent of direction. The students are presented with a passage that describes the classification, and structure of the Venus flytrap, as well as the stimulus that results in the closure. They must answer 8 exam-style questions on the content of the passage, which challenges their understanding of the current topic and links to other topics such as organelles and biological molecules. All answers are embedded into the PowerPoint to allow students to assess their progress. The rest of the lesson focuses on the steps involved in the mechanism of closure, including the detection of touch by the sensors in the trigger hairs, the movement of ions, and the elongation of the cells in the lobes of the modified leaves.

This lesson explains how to calculate the mitotic index and then explores what a high value may indicate about the tissue that was sampled. The PowerPoint and accompanying resources are part of the 2nd lesson in a series of 3 which have been planned to cover the content of point 2.2 of the AQA A-level biology specification. As shown in the cover image, the lesson begins with a bit of fun, as the students are challenged to use three clues to identify three uses of the term index in biology. They’ll learn that the index of diversity is covered in a topic 4 lesson and that this lesson focuses on the mitotic index. The students are challenged on their knowledge of the mitotic cell cycle throughout the lesson and one of these questions is used to introduce the meaning of the index and the formula. A series of exam-style questions challenge them to apply their understanding, and the answers are embedded into the PowerPoint to enable the students to assess their progress. Moving forwards, the different meanings of high values are considered, including growing and repairing tissues, and then to explain how an elevated mitotic index can indicate that cell division has become uncontrolled. This prepares students for the next lesson where tumour formation and cancer will be covered.

This lesson describes how lipids and amino acids are used in respiration, as an alternative to glucose. The PowerPoint and accompanying resources have been designed to cover the content of topic 3 point (f) of A2 unit 3 as set out in the WJEC A-level biology specification. The lesson begins with a challenge, where the students have to recognise the key term substrate using either 1 or 2 descriptions. The definition of a respiratory substrate is provided and students will learn that although glucose is the chief respiratory substrate, lipids and amino acids can be metabolised to generate molecules of ATP. A quick quiz round is used to introduce the relative energy value per gram of carbohydrate and then this is used as a reference value for the remainder of the lesson. Students will learn that the energy value is higher for lipids and this is explained, making reference to the proton gradient in the final stage of aerobic respiration. The final part of the lesson considers amino acids and makes a link to deamination, and explores how the entry point into respiration depends upon the keto acid which was formed. The lesson contains multiple understanding checks and all answers are embedded into the PowerPoint to allow students to assess their progress.

This fully-resourced lesson looks at the blood circulation in a mammal and considers how the pulmonary circulation differs from the systemic circulation. The engaging PowerPoint and accompanying resources have been designed to cover the third part of point 3.4.1 of the AQA A-level Biology specification The lesson begins with a focus on the double circulatory system and checks that students are clear in the understanding that the blood passes through the heart twice per cycle of the body. Beginning with the pulmonary circulation, students will recall that the pulmonary artery carries the blood from the right ventricle to the lungs. An opportunity is taken at this point to check on their knowledge of inhalation and the respiratory system as well as the gas exchange between the alveoli and the capillary bed. A quick quiz is used to introduce arterioles and students will learn that these blood vessels play a crucial role in the changes in blood pressure that prevent the capillaries from damage. When looking at the systemic circulation, time is taken to look at the coronary arteries and renal artery as students have to be aware of these vessels in addition to the ones associated with the heart. In the final part of the lesson, students are challenged to explain how the structure of the heart generates a higher pressure in the systemic circulation and then to explain why the differing pressures are necessary. This lesson has been written to tie in with the other uploaded lessons from topic 3.4.1 (mass transport in animals)

A detailed lesson presentation (37 slides) and associated worksheets that looks at the different pieces of evidence that scientists use to support evolution and discusses how these support the theory. The lesson begins by challenging students to decide which piece of evidence is the key piece in supporting evolution (fossils). Students will then have to arrange a number of statements to describe how a fossil is formed. Students are introduced to the fossil record and questions are used to check that they understand where the oldest fossils would be found. Moving forwards, students are given three pieces of evidence that would be observed in the fossil record and they are challenged to explain how each of these supports the theory of evolution. Quick competitions are then used to get the students to see some extinct organisms in the Dodo and Woolly Mammoth and again they are questioned on how extinct animals support the theory of evolution. Further evidence in rapid changes in species and molecular comparison is discussed. There are regular progress checks throughout the lesson so that students can assess their understanding and there is a set homework included.

This lesson guides students through the calculation of mitotic indices and explores what a high value may indicate about the sampled tissue. The PowerPoint and accompanying resources have been planned to cover the content of point 3.16 of the Edexcel International A-level biology specification. The lesson begins with a bit of fun, as the students are challenged to use three clues to identify three uses of the term index in biology. They’ll learn that the index of diversity is covered in a topic 4 lesson and that this lesson focuses on the mitotic index. The students are challenged on their knowledge of the mitotic cell cycle throughout the lesson and one of these questions is used to introduce the meaning of the index and the formula. A series of exam-style questions challenge them to apply their understanding, and the answers are embedded into the PowerPoint to enable the students to assess their progress. Moving forwards, the different meanings of high values are considered, including growing and repairing tissues, and then to explain how an elevated mitotic index can indicate that cell division has become uncontrolled which can lead to tumour formation.

A detailed and engaging lesson presentation (43 slides) and accompanying worksheets that introduces students to the disease, Diabetes (mellitus), and focusses on the similarities and differences between types I and II. The lesson begins by challenging the students mathematically to get the answers 1 and 2 and then to see whether they can link these numbers to a disease. A variety of tasks, which includes competitions and progress checks, are used to get the students to recognise the differences and state which of the types they belong to. This lesson has been designed for GCSE students and can be used with higher level students. However, a lesson more appropriate for A-level Biology students is named “Diabetes Mellitus Type I and II” and is available in my resources

This lesson explains the relative energy values of the respiratory substrates, carbohydrates, lipids and proteins. The PowerPoint and accompanying resources have been planned to cover the content of point 12.1 (4) of the CIE A-level biology specification (for assessment in 2025 - 2027). The lesson begins with a challenge, where the students have to recognise the key term substrate using either 1 or 2 descriptions. The definition of a respiratory substrate is provided and students will learn that although glucose is the chief respiratory substrate, lipids and proteins can be metabolised to generate molecules of ATP. A quick quiz round is used to introduce the relative energy value per gram of carbohydrate and then this is used as a reference value for the remainder of the lesson. Students will learn that the energy value is higher for lipids and this is explained, making reference to the stages of respiration that will be covered in greater depth in the 12.2 lessons. The final part of the lesson considers proteins and makes a link to deamination, which again will be covered later in the course. The lesson contains multiple understanding checks and all answers are embedded into the PowerPoint to allow students to assess their progress.

This lesson describes the protective effect of a simple reflex, as exemplified by those which involve the sensory, relay and motor neurones. The PowerPoint and accompanying resources are part of the final lesson in a series of 3 lessons which have been planned to cover the content of point 6.1.1 of the AQA A-level biology specification, titled “Survival and response”. As shown on the cover image, the lesson begins with a challenge, where the students have to recognise the connection between key terms which have been grouped together. This will remind them of the names of three types of neurones, the three types of muscle tissue and some reflexes. Time is taken at the start to ensure that students understand that although the brain might be informed of a reflex, it isn’t involved in the processing to coordinate the movement. At the same time, the role of the other part of the CNS, the spinal cord in spinal reflexes, is emphasised. This lesson has been specifically planned to build on their knowledge of reflex actions from GCSE and to build in the detail that will support them in this lesson and as they move through the content of topic 6. Ultimately, students will understand how the rapid response of a simple reflex allows organisms to avoid damage and survive, due to the nervous pathway only consisting of three neurones, and therefore less synapses than other reactions. Understanding checks, in the form of exam-style questions are written into the lesson and the answers embedded into the PowerPoint to allow students to assess their progress against the current topic. The two other lessons in this series covering the detail of specification point 6.1.1 are named “responses in flowering plants” and “taxes and kineses”.

A concise lesson presentation (20 slides) and associated worksheet that guides students through phylogenetic trees and helps them to be able to interpret these diagrams. The lesson begins by stating three key points about the trees which will form the basis of their understanding. Moving forwards, a series of questions with explained answers are used to show how common ancestors in the past can be used to work out which present day organisms are the most closely related. Students are given lots of opportunities to assess their understanding and check that they can explain. This lesson has been written for GCSE but could be used as a recap for those students studying at A-level