Eduqas A-Level Physical Education A550QS
Health, Fitness and an Active Lifestyle
Short-Term Responses to Exercise
Long-Term Adaptations to Exercise
Fitness Testing and Components of Fitness
Training Methods, Principles and Periodisation
Energy Systems
Fatigue and Recovery
Diet, Nutrition and Supplements
Injury Prevention and Rehabilitation
Joints and the Musculo-Skeletal System
Planes, Axes and Movement Patterns
Biomechanical Principles and Levers
Linear and Angular Motion
Projectile Motion and Fluid Mechanics
Performance Analysis
Technology in Sport
Personality
Attitudes
Goal Setting
Stress, Arousal and Anxiety
Motivation
Aggression
Social Facilitation
Group Dynamics and Leadership
Attribution Theory
Self-Efficacy and Confidence
Skill, Ability and Skill Classification
Learning Curves, Theories and Stages
Transfer, Practice and Guidance
Information Processing, Memory and Feedback
Sport, Culture and Society
The Emergence of Modern Sport
Ethics, Deviance and Doping
Social Differentiation in Sport
Sport and the Mass Media
Commercialisation and Globalisation
Long-Term Adaptations to Exercise
- 3 subtopics
- 9 things to know
- Components 1 and 2
What Long-Term Adaptations to Exercise covers
Long-Term Adaptations to Exercise is examined in both papers, since Component 1 and Component 2 can each examine any of the content. It covers bone, connective tissue and muscle adaptations, bradycardia, cardiac hypertrophy and ejection fraction and lung volumes, pulmonary diffusion and aerobic capacity.
Where it is assessed
Components 1 and 2
Either 2 hour written paper, each worth 35% of the A level, can examine this.
Check the Eduqas specification ↗The 3 subtopics
Each one has its own page.
- Bone, connective tissue and muscle adaptationsBone density in gymnasts and swimmers, articular cartilage, ligaments and tendons, muscular hypertrophy and neural gains, fibre type changes, myoglobin, capillaries, glycogen, mitochondria, ATP and phosphocreatine stores, and the sprinter and marathon runner.Open →
- Bradycardia, cardiac hypertrophy and ejection fractionCardiac hypertrophy after endurance and strength training, bradycardia, worked stroke volume and ejection fraction calculations, resting and maximal cardiac output, maximum heart rate, the blood, heart rate recovery and the athlete's heart.Open →
- Lung volumes, pulmonary diffusion and aerobic capacityRespiratory muscles, vital capacity, residual volume, tidal volume and total lung capacity, maximal minute ventilation, pulmonary diffusion, the arterio-venous oxygen difference, a worked VO₂ max rise, and heart rate and lactate data after training.Open →
What you need to know
Answer each one before you reveal it.
Why is an athlete's enlarged heart healthy, and how does capillarisation of the heart muscle help?
How does training widen the a-vO₂ difference and raise VO₂ max?
How does regular weight-bearing training increase bone density?
What is cardiac hypertrophy?
How do the respiratory muscles adapt to training?
Why does a gymnast gain more bone density from training than a swimmer?
How does endurance training change the heart differently from strength training?
Define vital capacity and state how training affects it.
Take Long-Term Adaptations to Exercise further
The same content, four other ways.
Commonly confused
Pairs that lose marks when they are blurred together.
Myoglobin vs Haemoglobin
Myoglobin: the oxygen store inside muscle fibres. Haemoglobin: the oxygen carrier inside red blood cells.
Vital capacity vs Residual volume
Vital capacity: the most air that can be forced out after the deepest breath in. Residual volume: the air that stays in the lungs after the hardest breath out.
Bradycardia vs Cardiac hypertrophy
Bradycardia: a resting heart rate below 60 beats per minute. Cardiac hypertrophy: enlargement and thickening of the heart muscle.
Questions from this topic
Each one with the model answer underneath.
- 1
How does regular weight-bearing training increase bone density?
Model answer
The stress of weight-bearing training stimulates osteoblasts to lay down more calcium. Bone density rises, so bones become stronger and more resistant to fracture.
- 2
Why does a gymnast gain more bone density from training than a swimmer?
Model answer
Gymnastics involves repeated impacts and weight-bearing landings that stress bone. Water supports a swimmer's body weight, so the bones receive little loading.
- 3
How does regular exercise affect articular cartilage?
Model answer
Articular cartilage becomes thicker with regular exercise. Thicker cartilage cushions the ends of bones better and reduces wear at the joint.
- 4
How do ligaments adapt to training, and how is this linked to mobility training?
Model answer
Ligaments become stronger and slightly more elastic. Mobility training increases the range of movement at a joint while the stronger ligaments keep it stable.
- 5
How do tendons adapt to regular training?
Model answer
Tendons thicken and become stronger. Thicker tendons withstand the greater forces produced by stronger muscles.
- 6
What is muscular hypertrophy?
Model answer
Muscular hypertrophy is an increase in the cross-sectional area of a muscle. Heavy resistance training produces the greatest hypertrophy, mainly in fast twitch fibres.
What is inside Levo
Six ways to work the same material.
Long-Term Adaptations to Exercise revision questions
- What does Long-Term Adaptations to Exercise cover in Eduqas A-Level Physical Education?
- 3 subtopics: bone, connective tissue and muscle adaptations, bradycardia, cardiac hypertrophy and ejection fraction and lung volumes, pulmonary diffusion and aerobic capacity. Each one has its own page with questions and model answers.
- How is Long-Term Adaptations to Exercise organised?
- By the Eduqas A550QS specification, subtopic by subtopic, so it matches the order you are taught it in.
Every question in Long-Term Adaptations to Exercise, on a schedule.
Attempt a question from memory, write the correct version, then attempt it again. Levo records the jump between your first attempt and your last, and brings each question back on the day you are due to forget it.
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