Exercise physiology, training and performance — Eduqas A-Level Physical Education

Exercise physiology, training and performance explores the body's acute and chronic responses to exercise, including energy systems, cardiovascular and respiratory adaptations, and the principles of training. It explains how physiological systems work together to produce movement and how training programmes can be designed to improve performance.

Exercise physiology is the study of how the body responds and adapts to physical activity. It covers the acute responses that occur during a single bout of exercise, such as increased heart rate and breathing, and the chronic adaptations that result from regular training, such as increased muscle size and improved oxygen utilisation. Understanding these processes is essential for designing effective training programmes and optimising athletic performance.

This topic is central to A-Level Physical Education because it links the theoretical knowledge of anatomy and physiology to practical application. Students learn about the three energy systems (ATP-PC, anaerobic glycolysis, and aerobic), the cardiovascular and respiratory systems, and the principles of training (FITT, specificity, overload, reversibility). This knowledge allows students to analyse sporting performance and prescribe training that meets the demands of different activities.

Mastery of this topic is crucial for exam success as it appears in multiple sections of the WJEC A-Level paper, including short-answer questions, data analysis, and extended essays. It also provides a foundation for other topics such as sports psychology and biomechanics, as physiological factors influence motivation and movement efficiency.

• →Energy systems: ATP-PC (immediate, anaerobic), anaerobic glycolysis (short-term, anaerobic), aerobic (long-term, with oxygen).
• →Cardiovascular responses: heart rate, stroke volume, cardiac output, blood pressure, and redistribution of blood flow.
• →Respiratory responses: increased ventilation rate, tidal volume, and oxygen diffusion.
• →Principles of training: specificity, overload, progression, reversibility, and FITT (frequency, intensity, time, type).
• →Chronic adaptations: bradycardia, increased stroke volume, capillarisation, increased mitochondrial density, and improved lactate threshold.

• Application of personality theories (trait, interactionist, social learning) to sport
• Use of the triadic model of attitudes and methods for attitude change
• Application of SMART goal setting
• Understanding theories of arousal (drive theory, inverted-U, catastrophe theory)
• Distinction between intrinsic and extrinsic motivation
• Understanding achievement motivation (NAch vs NAF)
• Distinction between aggression and assertion
• Application of social facilitation theories
• Understanding group dynamics (forming, storming, norming, performing) and cohesion
• Application of leadership theories and styles
• Understanding attribution theory (Weiner's model) and attributional retraining
• Understanding the derivation and impact of self-efficacy

• 💡Use specific sporting examples to illustrate psychological theories
• 💡Ensure technical terminology is used accurately when describing theories
• 💡Be prepared to interpret graphical representations of psychological theories
• 💡Link psychological concepts to performance improvement strategies
• 💡When discussing goal setting, ensure the SMART approach is explicitly referenced
• 💡Always use correct terminology and units (e.g., bpm, ml/kg/min).
• 💡When explaining adaptations, use the 'what, how, why' structure: what the adaptation is, how it occurs, and why it benefits performance.
• 💡Practice interpreting graphs and data on heart rate, oxygen consumption, and lactate levels, as these are common in exams.

• Confusing aggression with assertion
• Misapplying the different theories of arousal to specific sporting contexts
• Failing to link personality profiling methods to their specific benefits and limitations
• Confusing trait and state anxiety
• Misunderstanding the difference between social loafing and the Ringlemann effect
• Incorrectly applying attribution theory to explain outcomes
• Misconception: The ATP-PC system can last for up to 30 seconds. Correction: It lasts only about 10 seconds; after that, anaerobic glycolysis becomes the primary source.
• Misconception: Stroke volume continues to increase linearly with exercise intensity. Correction: Stroke volume plateaus at around 40-60% of VO2 max in trained individuals.
• Misconception: Training at high intensity is always best for improving aerobic fitness. Correction: Aerobic fitness is best improved with continuous, moderate-intensity training that targets the aerobic energy system.

1. 1Week 1: Focus on energy systems. Create a table comparing the three systems (duration, intensity, fuel, by-products). Use flashcards to memorise key facts.
2. 2Week 2: Study cardiovascular and respiratory responses to exercise. Draw diagrams of the heart and trace blood flow. Practice calculating cardiac output.
3. 3Week 3: Learn the principles of training and how to apply them. Design a training programme for a specific sport.
4. 4Week 4: Revise chronic adaptations. Use past paper questions to test your knowledge and identify weak areas.
5. 5Week 5: Consolidate with active recall and practice exam questions under timed conditions.

• 📋Short-answer questions: e.g., 'Define stroke volume' (1 mark).
• 📋Data analysis: e.g., 'Using the graph, describe the changes in heart rate during exercise' (4 marks).
• 📋Extended response: e.g., 'Evaluate the importance of the aerobic energy system for a marathon runner' (8 marks).
• 📋Practical application: e.g., 'Design a training session to improve anaerobic fitness' (6 marks).