How to optimise training and prevent injury — AQA GCSE Physical Education
Teaching note checked against the official specification.
Test yourself on How to optimise training and prevent injury with AQA GCSE practice questions.
A week of Premium from your first lesson · Then the free plan continues · No card, no charge
How to optimise training and prevent injury explained
How to optimise training and prevent injury covers 35 specification points, including Calculating intensities to optimise training… and Calculate the aerobic/anaerobic training zone:.
Read the full explanation
Open a point below for its explanation and revision guidance.
Calculating intensities to optimise training effectiveness Definition of training threshold.
This criterion covers two linked ideas: calculating training intensities so a session is effective, and defining the training threshold. The training threshold is the minimum intensity of exercise needed to produce a training effect, so working below it brings little or no improvement. Intensity is often set using a percentage of maximum heart rate, where maximum heart rate is estimated as 220 minus age. A 16-year-old has an estimated maximum of 204 beats per minute, and 70% of that is about 143 beats per minute. Intensity can also be expressed as a percentage of one-repetition maximum in resistance training. The aerobic training zone sits at a lower percentage of maximum heart rate and the anaerobic zone at a higher percentage, so the chosen percentage must match the fitness goal.
Calculate the aerobic/anaerobic training zone:
Training zones are set as percentages of maximum heart rate, and the specification defines the aerobic zone as 60–80% and the anaerobic zone as 80–90% of maximum heart rate. To calculate a zone, first work out maximum heart rate, commonly estimated as 220 minus age, then multiply by the relevant percentage. For a 20-year-old, maximum heart rate is 220 − 20 = 200 beats per minute; the aerobic zone runs from 0.60 × 200 = 120 to 0.80 × 200 = 160 beats per minute, and the anaerobic zone runs from 0.80 × 200 = 160 to 0.90 × 200 = 180 beats per minute. In a multiple-choice question, compute both boundaries and check which option falls inside the stated zone.
calculate maximum heart rate (220 minus age)
Maximum heart rate is the highest number of beats per minute a performer's heart can reach during maximal effort. A simple estimate used in training is 220 minus age, so a 16-year-old has an estimated maximum of 204 beats per minute and a 40-year-old has 180 beats per minute. This figure is an estimate for setting training intensities, not a measured physiological limit, and it anchors the aerobic and anaerobic zones because those zones are percentages of it. In a multiple-choice question, subtract the given age from 220 and select the matching value; distractors often come from adding the age to 220 or from subtracting the wrong way round.
calculate aerobic training zone (60–80% of maximal heart rate)
The aerobic training zone is the band of heart rates between 60% and 80% of a performer's maximal heart rate, and training within it develops aerobic endurance. To calculate it, first find maximal heart rate by subtracting age from 220, then multiply that figure by 0.60 and by 0.80 to give the lower and upper limits. For a 20-year-old, maximal heart rate is 220 − 20 = 200 beats per minute; 60% is 200 × 0.60 = 120 bpm and 80% is 200 × 0.80 = 160 bpm, so the aerobic zone runs from 120 to 160 bpm. A multiple-choice question may ask for a limit, a percentage or the whole range, so read which value is requested and check the arithmetic before choosing.
calculate anaerobic training zone (80– 90% of maximal heart rate).
The anaerobic training zone is the band of heart rates between 80% and 90% of a performer's maximal heart rate, and training within it develops anaerobic fitness such as speed and muscular endurance. To calculate it, first find maximal heart rate by subtracting age from 220, then multiply that figure by 0.80 and by 0.90 to give the lower and upper limits. For a 30-year-old, maximal heart rate is 220 − 30 = 190 beats per minute; 80% is 190 × 0.80 = 152 bpm and 90% is 190 × 0.90 = 171 bpm, so the anaerobic zone runs from 152 to 171 bpm. A multiple-choice question may ask for a limit, a percentage or the whole range, so read which value is requested and check the arithmetic before choosing.
For circuit training, altering the time/rest/content of the circuit will determine the fitness aim.
Circuit training moves a performer around a series of stations, each working a different muscle group or component of fitness. The fitness aim is not fixed by the label 'circuit'; it is set by how the circuit is built. Short work intervals with short rest and a high number of repetitions build muscular endurance and aerobic fitness, because the heart rate stays elevated and muscles resist fatigue. Longer rest between stations allows heavier loads or maximal efforts, shifting the aim towards muscular strength or power. Changing the content, for example replacing bodyweight squats with loaded lifts or plyometric jumps, changes which component is trained. Changing total time and the number of laps alters the balance between aerobic and anaerobic demand.
How to calculate one repetition maximum (one rep max) as part of weight training and how to make use of one rep max, with reference to:
One repetition maximum, or one rep max, is the heaviest load a performer can lift once with correct technique. It is found by warming up thoroughly, then progressively increasing the load over several attempts with adequate rest between them until only a single correct repetition can be completed. The last successful lift is the one rep max. This value is then used to set training loads as percentages of that maximum: a high percentage with low repetitions develops muscular strength, while a lower percentage with higher repetitions develops muscular endurance. Using percentages keeps training progressive and safe, and the one rep max should be retested periodically as strength improves. Learners should describe the calculation procedure, the safety points such as warm-up, spotting and correct technique, and how the value is applied to set loads for a chosen aim.
strength/power training (high weight/low reps – above 70% of one rep max, approximately three sets of 4–8 reps)
Strength and power training loads the muscle heavily and moves it few times, so the emphasis falls on force production rather than on lasting effort. The load sits above 70% of a one rep max, meaning the heaviest weight the performer can lift once for a given exercise; anything above that threshold is a high weight. Repetitions stay low, roughly 4–8 per set, and the performer completes approximately three sets, resting between them so technique holds. A shot putter or a rugby forward might use this method: choose a weight near the top of the range, complete 4–8 controlled repetitions, rest, then repeat for about three sets. The high load and low repetition count recruit fast-twitch fibres and build the force a powerful action needs.
muscular endurance (low weight/high reps – below 70% of one rep max, approximately three sets of 12–15 reps).
Muscular endurance training keeps the load light and repeats the movement many times, so the muscle works for longer rather than producing maximum force. The weight sits below 70% of a one rep max, the heaviest weight the performer can lift once for that exercise, which makes it a low weight. Repetitions are high, approximately 12–15 per set, and the performer completes approximately three sets, resting between them to keep form. A rower or a cyclist building sustained effort might use this method: select a lighter weight, complete 12–15 controlled repetitions, rest, then repeat for about three sets. The lighter load and higher repetition count develop the ability to keep contracting over time.
Considerations to prevent injury The training type/intensity should match the training purpose (eg aerobic or anaerobic).
Injury risk falls when the training a performer does is chosen to serve the purpose it is meant to achieve. Aerobic work, such as steady continuous running or cycling at a sustainable pace, develops cardiovascular endurance and needs a duration and intensity the body can tolerate repeatedly. Anaerobic work, such as short repeated sprints or heavy resistance sets, develops speed, power or muscular endurance and demands high intensity over short bursts with recovery. A mismatch creates problems: using sprint intervals to build endurance overloads muscles and joints before fitness adapts, while using long slow work to prepare for explosive sprinting leaves the specific energy system undertrained. Match the type and the intensity to the goal, then progress gradually and allow recovery so the body adapts rather than breaks down.
Where applicable, the following factors should be taken into account in order to prevent injury:
This heading introduces a list of injury-prevention factors that you apply to training and performance situations. Read it as a checklist to work through rather than a single fact to memorise. For each factor, ask what it means in practice and how ignoring it could cause harm. The phrase 'where applicable' matters: not every factor applies to every activity, so you judge which ones are relevant to the scenario given. Typical factors include matching training type and intensity to purpose, warming up and cooling down, using correct technique, wearing appropriate protective equipment, following rules and safety guidelines, and allowing recovery. When you meet a question, identify the relevant factors, explain how each reduces injury risk, and apply them to the specific sport or performer described.
a warm up should be completed
A warm up is the preparatory phase a performer completes before the main part of a training session or competition. It raises body temperature and heart rate, increases blood flow to the working muscles and gradually mobilises the joints, so the body is physically ready for the demands that follow. A typical warm up moves from general, whole-body activity such as jogging, into dynamic mobility and sport-specific movements such as passing drills or short sprints. Completing a warm up reduces the risk of injury and can improve performance in the first minutes of activity, when a cold body is less efficient. In an MCQ, select the option that describes a warm up being carried out before exercise and preparing the body, and reject options that place it after the session or that confuse it with a cool down.
over training should be avoided, eg appropriate weight
Over training means training beyond what the body can recover from, for example by lifting weights that are too heavy, training too many days without rest or increasing load too quickly. It should be avoided because it leads to fatigue, poor performance, soreness and a higher risk of injury. The statement's example, appropriate weight, points to choosing a resistance that matches the performer's current strength and the number of repetitions planned, rather than a weight that forces poor technique. In practice, a performer selects a load they can control through the full range of movement, progresses gradually and builds rest days into the programme. In an MCQ, choose the option that describes training within the body's capacity to recover, and reject options that reward training through pain or ignoring rest.
appropriate clothing and footwear should be worn
This statement sits within the injury-prevention part of the specification. It teaches that a performer reduces the risk of injury by choosing clothing and footwear suited to the activity, the environment and the individual. Appropriate clothing is loose enough to allow a full range of movement yet not so loose that it catches on equipment or a partner, and it manages temperature and sweat. Appropriate footwear gives grip, cushioning and support matched to the surface: studded boots on grass, cushioned trainers for running, and shoes with lateral support for court games. The learner should be able to pick the correct reason from options, such as improved grip, support or freedom of movement, and reject answers that describe unrelated training principles.
taping/bracing should be used as necessary
This statement sits within the injury-prevention part of the specification. It teaches that taping and bracing are used as necessary, meaning they support a joint or area that is vulnerable, previously injured or returning to activity, rather than being applied to every performer at all times. Tape and braces can limit unwanted movement, add stability and give confidence, which lowers the chance of re-injury. The phrase as necessary signals judgement: the performer or a qualified professional decides when support is needed, for example during rehabilitation or for a joint with a history of injury. The learner should select the option that correctly explains this purpose and reject answers claiming taping strengthens muscles or replaces a warm-up.
hydration should be maintained
Hydration means replacing the water the body loses through sweat during exercise, and it belongs to the wider topic of optimising training and preventing injury. Sweating cools the body, but fluid loss reduces blood volume, so the heart must work harder and performance can fall. A performer should start exercise already hydrated, drink at intervals during long or hot sessions, and rehydrate afterwards. Water suits most sessions; longer or very sweaty activity may call for drinks containing electrolytes to replace salts lost in sweat. Learners should link hydration to thermoregulation and to avoiding heat-related problems, and should recognise that dehydration impairs concentration and increases strain on the body.
stretches should not be overstretched or bounce
Stretching prepares muscles and joints for activity and supports injury prevention, but it must be performed safely. Overstretching pushes a muscle or joint beyond its comfortable range, which can tear muscle fibres or strain ligaments. Bouncing, sometimes called ballistic stretching, uses fast jerky movements that trigger the stretch reflex, causing the muscle to tighten rather than lengthen and raising the risk of injury. A safe stretch moves slowly into the position, holds it steadily without pain, and breathes normally. Learners should connect these rules to the wider topic of optimising training and preventing injury, recognising that controlled static stretching is the safer choice for most performers.
technique used should be correct, eg lifting technique
Correct technique means performing each movement in the way that keeps the body aligned and loads the right muscles, so training gains are made without unnecessary strain. In a resistance session, a learner who lifts with a straight, neutral back, braced trunk, feet planted and a controlled lift-and-lower phase protects the lower back; a rounded back under load transfers stress to the spine. The same principle applies across the body: keep joints tracking correctly in a squat, land softly with bent knees in a jump, and keep the head neutral. Technique often deteriorates as fatigue builds, so a learner should reduce load or stop rather than force poor repetitions. In an exam question, identify the specific technique fault and explain the injury risk it creates, rather than writing only that technique must be good.
appropriate rest in between sessions to allow for recovery.
Rest between sessions gives the body time to repair and adapt after training, so the next session is performed at a useful quality. During hard exercise, muscle fibres suffer small amounts of damage and energy stores are used up; recovery allows repair, replenishment and adaptation, which is when fitness gains actually occur. A learner should space sessions so that the same muscle groups are not loaded hard on consecutive days, and should include easier or different activity in between. Overtraining, with too little rest, leads to persistent fatigue, poorer performance and higher injury risk. In an exam answer, explain the purpose of rest and give a practical example of spacing sessions, rather than stating only that rest is needed.
Specific training techniques – high altitude training as a form of aerobic training How high altitude training is carried out:
High altitude training is an aerobic training technique in which a performer trains where the air is thinner, so the partial pressure of oxygen is lower than at sea level. The performer travels to altitude, typically around 2,000–2,500 m, and completes aerobic sessions such as steady running or cycling there for several weeks. The body responds by increasing red blood cell production and haemoglobin, improving oxygen transport when the athlete later competes nearer sea level. A common method is live high, train low: the athlete lives at altitude to gain the blood adaptations but travels down to train at lower altitude so intensity and pace are not lost.
train at high altitude
Training at high altitude means completing aerobic work where the air is thinner and the partial pressure of oxygen is lower than at sea level. The performer travels to altitude, often around 2,000–2,500 m, and trains there for several weeks, for example by running or cycling steadily. With less oxygen available, the body adapts by producing more red blood cells and haemoglobin, which improves oxygen transport. Many athletes use live high, train low: they live at altitude to gain these blood adaptations but travel to lower ground to train, so they keep their pace and intensity high rather than slowing down in thin air.
there is less oxygen in the air and oxygen carrying capacity is reduced
At altitude the partial pressure of oxygen in the air is lower, so each breath delivers fewer oxygen molecules to the lungs and less oxygen diffuses into the blood. This is described as there being less oxygen in the air. As a result, the oxygen-carrying capacity of the blood is reduced: haemoglobin is less saturated with oxygen, so the volume of oxygen carried per litre of blood falls. A performer training at altitude therefore becomes breathless sooner at a given pace and cannot sustain the same intensity as at sea level. The body responds over time, but the immediate effect is a drop in oxygen delivery to working muscles, which shifts the performer towards anaerobic respiration earlier.
the body compensates by making more red blood cells to carry oxygen.
When a performer spends time at altitude, the lower oxygen availability is detected and the body responds by stimulating the production of more red blood cells. Red blood cells contain haemoglobin, which binds oxygen, so a greater number of red blood cells raises the oxygen-carrying capacity of the blood. This is a compensation: the body adapts to the shortage of oxygen by increasing its capacity to transport it. The adaptation develops over weeks rather than instantly, which is why altitude training camps last for a period of time. More red blood cells allow more oxygen to be delivered to working muscles, which can improve endurance performance once the performer returns to sea level.
Students should be taught to evaluate the benefits and the limitations of altitude training for different sports performers.
Altitude training means training at high altitude, where the partial pressure of oxygen in the air is lower, so less oxygen is carried per breath. The body responds by increasing red blood cell and haemoglobin production, improving oxygen transport. A performer can then return to sea level with a greater oxygen-carrying capacity, which may benefit endurance events such as long-distance running, cycling or swimming. Limitations include the cost and time of travelling and living at altitude, possible altitude sickness, disrupted sleep, dehydration and a temporary loss of training intensity because the performer cannot work as hard. Fitness gains may fade quickly on return to sea level. Evaluation means weighing these benefits against limitations for a named performer and sport, then reaching a supported judgement rather than listing points.
Seasonal aspects Names of the three training seasons:
Training is often organised into three seasons across a year so that a performer peaks at the right time. The three seasons are the preparation period (pre-season), the competition period (in-season) and the transition period (off-season). In the preparation period the performer builds general and then specific fitness before competition. In the competition period training maintains fitness and sharpens performance while the performer competes. In the transition period the performer rests and recovers, allowing the body to repair before the cycle begins again. A multiple-choice question may ask you to name the seasons, identify which season a described activity belongs to, or match a training aim to the correct season. Read each option carefully and eliminate those that name the wrong season or place an activity in the wrong period.
pre-season/preparation
Pre-season preparation is the training phase before competitive fixtures begin. Its purpose is to build the fitness base needed for the sport, so a performer arrives at the first match able to cope with its demands. A typical programme raises aerobic and muscular endurance gradually, adds sport-specific drills and skills practice, and includes flexibility work to protect joints. Training volume and intensity climb steadily rather than jumping, which lowers injury risk and lets the body adapt. Coaches also use this phase to test fitness, set goals and rehearse tactics. In an MCQ, match the phase to its defining features: it happens before competition, it develops general and specific fitness, and it prepares the body and mind for the season ahead.
competition/peak/playing season
The competition, peak or playing season is the phase when fixtures are played and performance matters most. Training shifts from building a broad base to maintaining fitness while keeping the performer fresh for matches. Volume usually falls and intensity of sport-specific work stays high, with recovery sessions, tapering before key events and careful monitoring of fatigue. Peaking means timing top form for a target competition, so load is reduced shortly beforehand while sharpness is retained. Injury prevention continues through warm-ups, cool-downs and managing playing time. In an MCQ, link this phase to competing, maintaining fitness, tapering and peaking rather than to building a base from scratch.
post-season/transition.
The post-season (transition) phase is the period after the competitive season ends and before the next training year begins. Its aim is to let the performer recover both physically and mentally from the demands of competition, so training volume and intensity drop markedly. Rest, light active recovery such as swimming or walking, and treatment of minor injuries are typical. The phase is not total inactivity for months: some gentle activity maintains a base of fitness while allowing full recovery. A performer should also review the season, set goals for the next cycle and address weaknesses. Transition usually lasts a few weeks before pre-season begins.
An understanding of what each of the seasons entails (aims):
A training year is divided into seasons, each with a distinct aim. Pre-season prepares the body for competition: general fitness is built and then sport-specific fitness and skills are developed, with training volume high and intensity rising. The competitive season aims to maintain fitness, peak performance and compete, with training tailored to fixtures and recovery. The post-season/transition aims to allow physical and mental recovery, with reduced volume and intensity and light active rest. Understanding each aim helps a performer plan training so that fitness peaks at the right time and injury risk is managed.
pre-season/preparation – general/aerobic fitness, specific fitness needs
The pre-season, also called the preparation period, is the phase before competitive fixtures begin. Its purpose is to build a fitness base and then sharpen the qualities a performer's sport demands. General or aerobic fitness work raises cardiovascular endurance and muscular endurance through continuous running, cycling or swimming, so the performer can cope with sustained effort. Specific fitness needs are then targeted: a footballer adds sprint intervals, agility drills and ball work; a netball player adds jumping and change-of-direction work. Training volume is typically high and intensity builds gradually, which lowers injury risk from sudden overload. A warm-up, correct technique and progressive increases in load support this aim.
competition/peak/playing season – maintain fitness levels, work on specific skills
The competition, peak or playing season is the phase when fixtures are played and performance matters most. Its two jobs are to maintain the fitness levels built in pre-season and to keep refining the specific skills the sport requires. Maintenance means training enough to hold cardiovascular endurance, strength, speed and flexibility without causing fatigue before matches, so volume usually falls while intensity stays high and short. Specific skills work means practising the techniques and tactics used in competition, such as passing patterns, set plays or serving. Recovery, tapering before key fixtures and avoiding overtraining help the performer peak at the right time and reduce injury risk.
post-season/transition – rest and light aerobic training to maintain a level of general fitness.
The post-season, also called the transition period, is the phase after the competitive season ends. Its two jobs are rest and light aerobic training. Rest lets the body recover from the accumulated fatigue, minor injuries and mental strain of competition, so the performer returns fresher. Light aerobic training keeps a level of general fitness rather than building high performance: easy continuous work such as jogging, cycling or swimming at low intensity, for short sessions, maintains aerobic capacity and helps recovery through gentle blood flow. It is deliberately not intense or sport-specific conditioning, because hard training in this phase risks overtraining and injury. A performer might take two to four weeks of reduced activity, with a couple of easy aerobic sessions each week, before pre-season begins.
An understanding of the benefits of each season to the performer.
Training is organised into seasons, and each season brings distinct benefits to the performer. Pre-season builds fitness, sharpens skills and prepares the body for competition, reducing injury risk. The competitive season lets the performer apply training in matches, develop tactics and reach peak performance when it matters. The post-season, or transition period, provides rest and light aerobic training so the body recovers and general fitness is maintained. Understanding these benefits helps a performer see why training is periodised rather than constant: each phase does a different job, and together they balance performance gains with recovery. A performer who skips rest risks overtraining, while one who skips pre-season arrives underprepared.
Students should be taught to apply and justify the characteristics of the seasonal aspects to different sporting activities.
The seasonal aspects are the three phases of a training year: pre-season, the competition (playing) season and post-season (transition). Pre-season builds fitness, with general conditioning early and more sport-specific work nearer competition, so a footballer adds aerobic running and strength work before progressing to small-sided games and sprint drills. The competition season maintains fitness and sharpens tactics while managing fatigue and injury risk, for example reducing heavy gym volume during a busy fixture list. Post-season allows recovery and rest before gradual rebuilding, such as a cricketer resting after the summer before light conditioning. To apply and justify, name the phase, describe suitable training characteristics and explain why they suit that sport's demands, calendar and recovery needs.
Your focus
- Define the training threshold accurately
- Calculate a target training intensity from age and a percentage
- Match a chosen intensity to an aerobic or anaerobic fitness goal
Show all 103 objectives
- Calculate maximum heart rate from age.
- Compute the beats-per-minute boundaries of the aerobic and anaerobic zones.
- Identify which heart rate value lies within a named training zone.
- Calculate maximum heart rate by subtracting age from 220
- State the unit beats per minute with a calculated maximum heart rate
- Explain that the figure is an estimate used to set training zones
- Calculate maximal heart rate using 220 minus age
- Apply 60% and 80% to maximal heart rate to find the aerobic zone limits
- Identify the correct aerobic zone value from a set of options
- Calculate maximal heart rate using 220 minus age
- Apply 80% and 90% to maximal heart rate to find the anaerobic zone limits
- Identify the correct anaerobic zone value from a set of options
- State which component of fitness a described circuit would develop
- Explain how altering time, rest or content changes the fitness aim
- Apply the principle to modify a circuit for a stated fitness goal
- Define one repetition maximum accurately
- Describe how to calculate a one rep max safely
- Explain how a one rep max is used to set training loads for a chosen aim
- State the load threshold of above 70% of one rep max for strength and power training
- Recall the repetition range of approximately 4–8 and the set number of approximately three
- Explain why a high load with low repetitions develops strength and power
- State the load threshold of below 70% of one rep max for muscular endurance training
- Recall the repetition range of approximately 12–15 and the set number of approximately three
- Explain why a lighter load with higher repetitions develops muscular endurance
- Select the training type that matches a stated fitness goal
- Distinguish aerobic from anaerobic intensity and purpose
- Explain how a mismatch between intensity and purpose increases injury risk
- Identify injury-prevention factors relevant to a given activity
- Explain how each selected factor reduces injury risk
- Apply the factors to a specific sport or performer scenario
- Identify when a warm up is completed in relation to the main activity.
- Describe two physiological changes a warm up produces in the body.
- Explain how completing a warm up helps prevent injury.
- Define over training and state why it should be avoided.
- Explain how choosing an appropriate weight helps prevent over training.
- Select the option that best describes safe progression in a training programme.
- State why appropriate clothing reduces injury risk during physical activity.
- Match footwear features such as grip, cushioning and support to a named activity or surface.
- Explain how suitable kit supports safe movement and temperature control.
- State the purpose of taping and bracing in preventing injury.
- Explain when taping or bracing is used as necessary for a performer.
- Distinguish taping and bracing from other injury-prevention methods such as warming up.
- State why the body needs to replace water lost through sweating during exercise
- Describe when a performer should drink to maintain hydration
- Explain how dehydration can affect performance and the heart
- State why overstretching and bouncing increase the risk of injury
- Describe how a safe stretch should be performed
- Explain the effect of bouncing on the stretch reflex
- Identify a specific technique fault in a named exercise and state the injury risk it creates.
- Explain how correct lifting technique protects the lower back during a resistance session.
- Describe how a learner should respond when technique deteriorates through fatigue.
- Explain why rest between sessions allows muscle repair and adaptation.
- Describe a practical way of spacing training sessions to support recovery.
- Identify consequences of insufficient rest, such as fatigue and increased injury risk.
- Describe how a performer carries out high altitude training as an aerobic method
- Explain the physiological purpose of training at altitude
- Outline the live high, train low approach and its rationale
- Explain what training at high altitude involves
- Describe the aerobic adaptations gained from altitude training
- Justify the live high, train low method
- Describe why less oxygen is available in the air at altitude.
- Explain how reduced oxygen availability lowers oxygen-carrying capacity.
- Relate reduced oxygen-carrying capacity to a performer's exercise performance.
- Explain how the body compensates for lower oxygen availability.
- Describe the role of red blood cells and haemoglobin in carrying oxygen.
- Relate increased red blood cell production to improved endurance performance.
- Explain how training at altitude produces physiological adaptations that can aid endurance performance.
- Describe at least two limitations of altitude training and their effect on a performer.
- Reach a supported judgement on the value of altitude training for a named performer in a named sport.
- Students do not need to be taught how to calculate intensities for altitude training.
- Recall the names of the three training seasons.
- Identify which season matches a described training aim or activity.
- Distinguish the purpose of each season within a training year.
- Describe the purpose of pre-season preparation
- Explain how training load is built up before competition
- Distinguish pre-season from the competitive phase
- Describe the purpose of the competition or playing season
- Explain how tapering and peaking are used before key events
- Explain how fitness is maintained and injury risk managed during fixtures
- Describe the purpose of the post-season/transition phase.
- Explain how training is adjusted during transition.
- Give an example of activity suitable for the transition phase.
- State the aim of each season in the training year.
- Explain how training differs between seasons.
- Link each season's aim to preparation, competition or recovery.
- State the purpose of the pre-season (preparation) phase.
- Distinguish general aerobic fitness work from specific fitness needs.
- Explain how progressive pre-season loading helps prevent injury.
- State the purpose of the competition (peak or playing) season.
- Explain how fitness levels are maintained during competition.
- Describe how specific skills are developed and how recovery supports peak performance.
- Describe the purpose of the post-season/transition period.
- Explain how rest and light aerobic training maintain general fitness.
- Apply the phase to a realistic performer example.
- Identify the benefits of pre-season, competitive season and post-season.
- Explain how each season contributes to performance and recovery.
- Apply periodisation to a performer's annual training plan.
- Identify the three seasonal aspects of a training year.
- Describe the characteristics of training in each seasonal aspect.
- Apply and justify seasonal characteristics to a named sporting activity.
How to optimise training and prevent injury exam tips
Marking Points
- Defines the training threshold as the minimum intensity needed to produce a training effect
- Calculates maximum heart rate using 220 minus age and applies a percentage to find a target heart rate
- Identifies that intensity can be expressed as a percentage of maximum heart rate or of one-repetition maximum
- Matches the chosen intensity zone to the fitness goal, such as a lower percentage for aerobic work and a higher percentage for anaerobic work
- Recognises that training below the threshold produces little or no improvement
- Calculates maximum heart rate using 220 minus age before applying a zone percentage.
- Applies the aerobic zone boundaries of 60% and 80% of maximum heart rate.
- Applies the anaerobic zone boundaries of 80% and 90% of maximum heart rate.
- Selects the option whose beats-per-minute value falls within the required zone.
- Subtracts the performer's age from 220 to estimate maximum heart rate
- Selects the beats-per-minute value that matches the subtraction for the stated age
- Recognises that the result is an estimate used to set training intensity rather than a measured maximum
- Uses the calculated maximum heart rate as the base figure for any further zone calculation
- Calculates maximal heart rate as 220 minus age before applying any percentage
- Multiplies maximal heart rate by 0.60 to give the lower aerobic limit
- Multiplies maximal heart rate by 0.80 to give the upper aerobic limit
- States the aerobic zone as the range between the 60% and 80% values
- Selects the option that matches the correctly calculated value rather than a distractor
- Calculates maximal heart rate as 220 minus age before applying any percentage
- Multiplies maximal heart rate by 0.80 to give the lower anaerobic limit
- Multiplies maximal heart rate by 0.90 to give the upper anaerobic limit
- States the anaerobic zone as the range between the 80% and 90% values
- Selects the option that matches the correctly calculated value rather than a distractor
- Identifies that short work intervals with short rest target muscular endurance and aerobic fitness
- States that longer rest between stations supports higher intensity or heavier loads and so targets strength or power
- Explains that changing the content of stations changes the muscle groups and component of fitness trained
- Recognises that increasing total circuit time or laps raises aerobic demand while short explosive stations raise anaerobic demand
- Applies the principle to a described circuit by naming the component of fitness it would develop
- Defines one rep max as the maximum load lifted once with correct technique
- Describes progressive increases in load with rest between attempts until a single repetition is the limit
- States that the final successful lift is recorded as the one rep max
- Explains that loads are set as percentages of the one rep max to target strength or endurance
- Identifies safety measures such as warm-up, correct technique and a spotter during testing
- Applies the one rep max to design a training load for a stated fitness aim
- Identifies the load as above 70% of one rep max, which makes it a high-weight method
- States that repetitions are low, approximately 4–8 per set
- Gives approximately three sets as the typical volume
- Links the heavy load and low repetitions to developing strength and power rather than endurance
- Explains that one rep max is the heaviest weight lifted once, so the working load is a high percentage of it
- Identifies the load as below 70% of one rep max, which makes it a low-weight method
- States that repetitions are high, approximately 12–15 per set
- Gives approximately three sets as the typical volume
- Links the lighter load and higher repetitions to developing muscular endurance rather than maximum strength
- Explains that one rep max is the heaviest weight lifted once, so a load below 70% of it is comparatively light
- Identifies that the type of training must be selected to develop the fitness component the performer needs
- Explains that aerobic training uses moderate intensity over a sustained period to build cardiovascular endurance
- Explains that anaerobic training uses high intensity over short bursts to build speed, power or muscular endurance
- States that a mismatch between training intensity and training purpose raises the risk of overuse or acute injury
- Recognises that gradual progression and adequate recovery support adaptation and reduce injury risk
- Identifies a warm up as preparation completed before the main activity or training session.
- States that a warm up raises body temperature, heart rate and blood flow to the working muscles.
- Recognises that a warm up prepares the joints and muscles for the movements to follow.
- Links completing a warm up to reducing the risk of injury during activity.
- Rejects options that describe a warm up as recovery work performed after exercise.
- Defines over training as training beyond the body's ability to recover.
- Explains that over training causes fatigue, soreness and reduced performance.
- Links over training to an increased risk of injury.
- Identifies selecting an appropriate weight as a way of avoiding over training.
- Rejects options that encourage training through pain or skipping rest days.
- Selects the option that links suitable clothing or footwear to a reduced risk of injury.
- Identifies footwear grip or cushioning as a way of improving safety on a given surface.
- Recognises that clothing allowing a full range of movement helps prevent strains and catching on equipment.
- Rejects options that describe unrelated training principles such as progressive overload or reversibility.
- Selects the option that explains taping or bracing as support that reduces the risk of injury to a joint or area.
- Recognises that support is used as necessary, for example for a vulnerable or previously injured joint.
- Identifies that taping or bracing can limit unwanted movement and add stability.
- Rejects options that claim taping builds muscle strength or replaces a warm-up.
- Identifies that sweating during exercise causes the body to lose water that must be replaced
- States that dehydration reduces blood volume and makes the heart work harder during exercise
- Explains that drinking water before, during and after exercise helps maintain hydration
- Recognises that longer or very sweaty sessions may need drinks containing electrolytes to replace lost salts
- Links maintaining hydration to temperature regulation and to reducing the risk of heat-related problems
- States that overstretching takes a muscle or joint beyond its safe range and can cause injury
- Explains that bouncing during a stretch triggers the stretch reflex and makes the muscle tighten
- Identifies that a safe stretch is held slowly and steadily without pain
- Links controlled stretching to reducing the risk of muscle and ligament injury
- Identifies a specific technique fault, such as a rounded back during a lift, and links it to the injury risk it creates.
- Explains that correct lifting technique keeps the spine neutral and the load controlled, reducing strain on the lower back.
- States that technique deteriorates with fatigue, so load should be reduced or the set stopped to maintain form.
- Applies the principle of correct technique to a named activity, such as landing with bent knees in a jump to absorb force.
- Distinguishes correct technique from simply training harder, recognising that poor form raises injury risk rather than improving performance.
- Explains that rest allows muscle repair and adaptation, which is when fitness gains occur after training.
- States that energy stores are replenished during recovery so the next session can be performed at good quality.
- Describes a practical arrangement, such as avoiding hard loading of the same muscle groups on consecutive days.
- Links insufficient rest to overtraining symptoms, such as persistent fatigue and increased injury risk.
- Distinguishes rest between sessions from rest within a session, recognising that both support recovery.
- Identifies high altitude training as an aerobic training method performed where oxygen partial pressure is lower than at sea level
- States that the performer travels to and trains at altitude, commonly around 2,000–2,500 m, for a period of weeks
- Describes the physiological aim of increasing red blood cell and haemoglobin production to improve oxygen transport
- Explains the live high, train low method, in which the athlete lives at altitude but trains lower to preserve training intensity
- Defines training at high altitude as aerobic work carried out where oxygen partial pressure is lower than at sea level
- States that the performer travels to altitude, commonly around 2,000–2,500 m, and trains there over a number of weeks
- Explains that the body adapts by increasing red blood cells and haemoglobin to improve oxygen transport
- Describes live high, train low, where the athlete lives at altitude but trains lower to maintain intensity
- States that at altitude the air contains less oxygen, so less oxygen is available to diffuse into the blood.
- Explains that reduced oxygen availability lowers the oxygen-carrying capacity of the blood.
- Links the reduced oxygen-carrying capacity to earlier breathlessness or an earlier shift to anaerobic respiration.
- Identifies that the performer cannot sustain the same exercise intensity at altitude as at sea level.
- States that the body produces more red blood cells in response to lower oxygen availability.
- Explains that red blood cells contain haemoglobin, which carries oxygen.
- Links more red blood cells to an increased oxygen-carrying capacity of the blood.
- Identifies that the adaptation improves oxygen delivery to working muscles and can benefit endurance performance.
- Explains that at altitude the partial pressure of oxygen is lower, so the body adapts by producing more red blood cells and haemoglobin to improve oxygen transport.
- Identifies a benefit for an endurance performer, such as a long-distance runner gaining greater oxygen-carrying capacity for competition at sea level.
- Identifies a limitation such as the cost and time of travel and accommodation at altitude, or disruption to work and school.
- Explains that altitude sickness, dehydration or poor sleep can reduce training quality and increase fatigue.
- Explains that a performer cannot train at the same intensity at altitude, so fitness may temporarily decline.
- Weighs benefits against limitations for a named performer and sport to reach a supported overall judgement.
- Names the preparation period (pre-season) as the season for building fitness before competition.
- Names the competition period (in-season) as the season for maintaining fitness and performing in competition.
- Names the transition period (off-season) as the season for rest and recovery.
- Matches a described training activity to the correct season rather than to an unrelated period.
- Identifies pre-season as the phase occurring before competitive fixtures begin
- States that pre-season builds a fitness base and develops sport-specific skills
- Recognises that training load increases gradually to allow adaptation and reduce injury risk
- Links pre-season to goal setting, fitness testing and tactical preparation
- Identifies the competition or playing season as the phase when fixtures are played
- States that training maintains fitness rather than building a new base
- Recognises tapering and reduced volume before a key event as peaking
- Links the phase to recovery, fatigue monitoring and injury prevention during matches
- Identifies the post-season/transition phase as the period after the competitive season and before the next training year.
- States that the aim is physical and mental recovery from competition.
- Explains that training volume and intensity are reduced during transition.
- Recognises that light active recovery and rest are used rather than complete inactivity.
- Links the phase to reviewing performance and setting goals for the next cycle.
- Identifies pre-season as preparation for competition, building general then sport-specific fitness.
- States that the competitive season aims to maintain fitness and peak for competition.
- Explains that the post-season/transition aims to allow recovery with reduced training.
- Matches each season to its aim rather than describing only one phase.
- Recognises that the seasons form a planned cycle across the training year.
- Identifies the pre-season (preparation) phase as the period before competition begins, when fitness is built.
- Explains that general or aerobic fitness develops cardiovascular and muscular endurance through continuous whole-body activity.
- Describes specific fitness needs as the qualities and skills a particular sport demands, such as sprint speed or agility.
- Recognises that gradually increasing training load in pre-season reduces the risk of injury from sudden overload.
- Identifies the competition (peak or playing) season as the phase when fixtures are played and performance is highest.
- Explains that fitness levels built earlier are maintained rather than greatly increased during this phase.
- Describes working on specific skills as practising the techniques and tactics needed in competition.
- Recognises that balancing training with recovery and tapering helps the performer peak and lowers injury risk.
- Identifies the post-season as the transition period after the competitive season ends.
- States that rest allows recovery from fatigue, minor injury and mental strain.
- Explains that light aerobic training maintains a level of general fitness.
- Gives an example of light aerobic work such as jogging, cycling or swimming at low intensity.
- Recognises that intense or sport-specific training is avoided in this phase to prevent overtraining and injury.
- States that pre-season builds fitness and prepares the performer for competition.
- Explains that the competitive season allows peak performance and application of skills and tactics.
- Describes the post-season as providing rest and maintaining general fitness through light aerobic training.
- Links the benefits of each season to reduced injury risk and avoidance of overtraining.
- Recognises that periodisation balances performance gains with recovery across the year.
- Names the three seasonal aspects as pre-season, competition season and post-season (transition) and uses them consistently.
- Describes pre-season characteristics such as general conditioning progressing to sport-specific fitness and explains why this prepares the performer for competition.
- Describes competition-season characteristics such as maintaining fitness, refining tactics and managing workload, and justifies them against the sport's fixture demands.
- Describes post-season characteristics such as rest and active recovery and justifies them as preparation for the next training year.
- Applies each phase to a named sporting activity and links the justification to that sport's specific demands, calendar or injury risks.
Examiner Tips
- 💡Learn the definition of the training threshold word for word so you can recognise it in a multiple-choice option
- 💡Practise the calculation 220 minus age, then multiply by the percentage, and check the answer is a sensible heart rate
- 💡Read every option carefully because distractors often swap 'minimum' for 'maximum' or reverse the subtraction
- 💡Link the percentage chosen to the energy system being trained before selecting your answer
- 💡Write out 220 minus age as a separate step before multiplying by a percentage.
- 💡Calculate both the lower and upper boundary so you can test each option against the range.
- 💡Convert each percentage to a decimal, such as 0.60 and 0.80, to multiply accurately.
- 💡Show the subtraction explicitly, for example 220 − 16 = 204 beats per minute
- 💡Check the answer is lower than 220, since maximum heart rate falls as age rises
- 💡Keep the unit beats per minute with the answer so the quantity is clear
- 💡Write out 220 − age as a separate step so the percentage is applied to the right number
- 💡Check whether the question asks for one limit or the full range before selecting an option
- 💡Estimate roughly first: 60% is a little over half and 80% is four-fifths, so a wildly different option is a distractor
- 💡Write out 220 − age as a separate step so the percentage is applied to the right number
- 💡Check whether the question asks for one limit or the full range before selecting an option
- 💡Estimate roughly first: 80% is four-fifths and 90% is nine-tenths, so a value near maximal heart rate is a distractor
- 💡Name the component of fitness first, then justify it using time, rest or content
- 💡Use the phrase 'this would develop...' to link each variable to an outcome
- 💡When asked to modify a circuit, state the change and the resulting fitness aim in the same sentence
- 💡Define one rep max precisely before describing how to find it
- 💡Link each percentage of one rep max to the component of fitness it develops
- 💡Include at least one safety point when describing the test
- 💡Quote the two figures the specification gives: above 70% of one rep max and approximately three sets of 4–8 reps
- 💡Contrast the method directly with muscular endurance so the examiner sees you know which is which
- 💡Name a sporting example such as a shot putter or rugby forward to show the method in context
- 💡Quote the two figures the specification gives: below 70% of one rep max and approximately three sets of 12–15 reps
- 💡Contrast the method directly with strength and power training so the examiner sees you know which is which
- 💡Name a sporting example such as a rower or cyclist to show the method in context
- 💡Name the fitness component the session is meant to develop before justifying the training type
- 💡Use a concrete example such as steady cycling for endurance or repeated short sprints for speed
- 💡Link the match between intensity and purpose explicitly to injury prevention in your answer
- 💡Read the scenario and select only the factors that genuinely apply to that sport or performer
- 💡For each factor you choose, state how it reduces the chance of injury rather than just naming it
- 💡Use the phrase 'where applicable' as a prompt to justify why a factor is relevant here
- 💡Read the stem carefully and underline the words before exercise so timing is clear.
- 💡Eliminate any option that describes recovery or lowering heart rate, because that belongs to a cool down.
- 💡Choose the option that names both preparation of the body and reduced injury risk.
- 💡Look for the option that mentions recovery, rest or a suitable load rather than maximum effort.
- 💡Use the example of appropriate weight to judge options about resistance training.
- 💡Reject any option that treats pain or exhaustion as a sign of good training.
- 💡Read the stem carefully to see whether it asks about clothing, footwear or both before choosing.
- 💡Link each option to a specific injury risk, such as slipping, tripping or muscle strain.
- 💡Eliminate options that describe training principles rather than equipment or kit.
- 💡Check the surface and activity named in the question, then match the footwear feature to it.
- 💡Focus on the words as necessary to judge when support is appropriate.
- 💡Link taping or bracing to a specific joint and a specific injury risk.
- 💡Eliminate options that describe strength gains or replace other prevention methods.
- 💡Use the idea of stability and confidence to justify the correct option.
- 💡Read the stem carefully to see whether it asks about when to drink, what to drink or why hydration matters
- 💡Eliminate options that describe eating or carbohydrate loading when the question is about fluid
- 💡Link the correct option to sweating and temperature regulation to justify your choice
- 💡Look for the option that describes slow, controlled movement held without pain
- 💡Reject options that mention fast or jerky movements, since these describe bouncing
- 💡Connect the correct option to injury prevention to explain why the rule exists
- 💡Name the exact body position, such as a neutral spine, rather than writing a vague phrase about good form.
- 💡Link each technique point to a named injury risk, for example lower-back strain, so the answer shows cause and effect.
- 💡Use a concrete example from a familiar activity to show the principle in action rather than describing it in the abstract.
- 💡Explain the purpose of rest, such as muscle repair, rather than simply stating that rest is important.
- 💡Give a practical example of spacing sessions across a week to show how recovery is built into a programme.
- 💡Link too little rest to named consequences, such as fatigue and injury risk, to show cause and effect.
- 💡Link each stage of the method to the aerobic benefit so the answer explains why altitude is used, not just where
- 💡Use the term partial pressure of oxygen to show understanding of thinner air at altitude
- 💡Contrast living high with training low and state the reason for each part of the method
- 💡Name the altitude range and the duration so the method is described concretely
- 💡Explain the link between lower oxygen, red blood cell production and improved endurance
- 💡Use live high, train low to show how athletes avoid losing training intensity
- 💡Read the question stem carefully to check whether it asks about the air or about the blood.
- 💡Use the phrase oxygen-carrying capacity precisely rather than writing 'less blood'.
- 💡Link the effect to a measurable consequence such as earlier breathlessness or reduced endurance.
- 💡Name haemoglobin when explaining how red blood cells carry oxygen.
- 💡Use the word compensate to show you understand the body is responding to a shortage.
- 💡Link the adaptation to a performance benefit such as improved endurance.
- 💡Name a specific performer and sport in each evaluative point so the judgement is applied rather than generic.
- 💡Use connectives such as 'however' and 'therefore' to show you are weighing benefits against limitations.
- 💡Finish with a short overall judgement stating for which type of performer altitude training is most worthwhile and why.
- 💡Learn the three season names with their alternative labels (pre-season, in-season, off-season) so either wording is recognised.
- 💡Eliminate options that describe an activity belonging to a different season before choosing.
- 💡Check the question asks for the season name, not the training aim, before selecting your answer.
- 💡Read the stem for time clues such as 'before the first match' and match them to preparation
- 💡Eliminate options describing peaking for a specific competition, which belongs to the competition phase
- 💡Check that the chosen option mentions building fitness as well as skills
- 💡Look for words such as 'fixtures', 'matches' or 'target competition' to identify this phase
- 💡Reject options describing heavy base-building loads, which belong to preparation
- 💡Check that the option mentions maintaining performance and managing fatigue
- 💡Name the phase explicitly as post-season or transition before describing it.
- 💡Give the aim (recovery) and a method (rest, light activity) in the same answer.
- 💡Use a concrete example such as swimming or walking for active recovery.
- 💡Structure the answer season by season so each aim is clear.
- 💡Use the words aim or purpose to make the link explicit.
- 💡Keep each season's aim distinct rather than repeating the same description.
- 💡Read the stem to see whether it asks about general fitness or specific fitness needs before choosing.
- 💡Link each option to the phase named in the question, not to a different part of the season.
- 💡Reject options that describe maintaining skills during competition, because that belongs to the playing season.
- 💡Check whether the stem names the playing season before selecting an option about maintenance or skills.
- 💡Eliminate options describing large gains in aerobic fitness, which suit pre-season rather than competition.
- 💡Choose options that combine maintaining fitness with practising specific skills.
- 💡Link each activity named to its purpose: rest for recovery, light aerobic work for maintaining general fitness.
- 💡Use the term transition period alongside post-season to show precise vocabulary.
- 💡Give a concrete low-intensity example rather than a vague phrase such as 'keep fit'.
- 💡Structure the answer season by season so each benefit is clearly attributed.
- 💡Tie each benefit to the performer, for example readiness, peak performance or recovery.
- 💡Use periodisation as a linking concept to show why all seasons matter.
- 💡Structure the answer by phase, giving the characteristic, the sport and the justification for each.
- 💡Use a named sport throughout so the application is clear and specific.
- 💡Justify with the sport's demands, calendar or injury risk rather than listing activities alone.
Common Mistakes
- Defines the threshold as the maximum effort possible; correct it to the minimum intensity needed for a training effect
- Adds age to 220 instead of subtracting it; use 220 minus age to estimate maximum heart rate
- Applies a percentage to the wrong base value; take the percentage of the estimated maximum heart rate, not of resting heart rate
- Treats any intensity as effective; explain that work below the threshold gives little or no gain
- Applies the anaerobic percentages to an aerobic question; check which zone the stem names before multiplying.
- Forgets to calculate maximum heart rate first; subtract age from 220 before applying any percentage.
- Reverses the zone boundaries; keep aerobic at 60–80% and anaerobic at 80–90% of maximum heart rate.
- Adds the age to 220 instead of subtracting it; subtract age from 220
- Reverses the subtraction and takes 220 away from the age; keep 220 as the starting number
- Treats the estimate as an exact measured value; describe it as an estimate used to set training zones
- Applies the percentage to age instead of to maximal heart rate; subtract age from 220 first, then apply the percentage
- Uses 80% as the lower limit and 60% as the upper limit; keep 60% as the lower bound and 80% as the upper bound
- Forgets to subtract age and multiplies 220 directly by the percentage; always compute maximal heart rate first
- Applies the percentage to age instead of to maximal heart rate; subtract age from 220 first, then apply the percentage
- Uses 90% as the lower limit and 80% as the upper limit; keep 80% as the lower bound and 90% as the upper bound
- Confuses the anaerobic zone with the aerobic zone; the anaerobic band sits higher, from 80% to 90% of maximal heart rate
- Assumes any circuit trains the same component of fitness; correct this by linking the aim to the specific time, rest and content chosen
- Ignores rest periods when judging the aim; correct this by treating rest length as a key variable that controls intensity
- Confuses muscular endurance with muscular strength when stations use light loads and many repetitions; correct this by matching high repetitions and short rest to endurance
- Treats total circuit time as irrelevant; correct this by explaining how longer circuits increase aerobic demand
- Confuses one rep max with the number of repetitions performed in a set; correct this by defining it as the single heaviest lift
- Omits warm-up and technique checks when describing testing; correct this by including them as required safety steps
- Uses a fixed load rather than a percentage of the one rep max when setting training; correct this by linking load to the measured maximum
- Fails to explain how the value is used after calculation; correct this by stating how percentages set the training aim
- Confuses the method with muscular endurance; keep the load above 70% of one rep max and the repetitions low at 4–8
- Treats the repetition range as 12–15; use 4–8 repetitions for strength and power
- Omits the set number; state approximately three sets
- Describes the load as light; describe it as high, above 70% of one rep max
- Confuses the method with strength and power training; keep the load below 70% of one rep max and the repetitions high at 12–15
- Treats the repetition range as 4–8; use 12–15 repetitions for muscular endurance
- Omits the set number; state approximately three sets
- Describes the load as heavy; describe it as low, below 70% of one rep max
- Chooses high-intensity sprint intervals to build aerobic endurance; select sustained moderate work for that purpose
- Treats all training as equally safe regardless of intensity; match intensity to the energy system being developed
- Ignores recovery between hard sessions; build rest days so adaptation occurs before the next overload
- Treats every listed factor as compulsory in every sport; judge which factors apply to the activity described
- Lists factors without explaining how each prevents injury; add the mechanism that reduces risk
- Applies a generic answer to a named sport; link each factor to the specific demands of that activity
- Confuses a warm up with a cool down; place the warm up before the session and the cool down after it.
- Treats a warm up as optional stretching only; include general activity that raises heart rate and body temperature.
- Assumes a warm up must be long and exhausting; keep it light and preparatory so it does not tire the performer.
- Equates more training with better results; recognise that recovery is needed for adaptation and progress.
- Chooses the heaviest weight available regardless of technique; select a load that can be controlled through the full movement.
- Ignores rest days in the programme; include recovery time so the body can adapt and repair.
- Chooses an option about warming up when the question asks specifically about clothing or footwear; read the stem to confirm which prevention method is being tested.
- Assumes any trainer suits any surface; match footwear features such as studs or cushioning to the activity and surface.
- Treats clothing as only about appearance; focus on movement, temperature control and safety.
- Ignores the individual performer; consider fit, comfort and any personal support needs.
- Assumes taping or bracing is needed for every session; recognise that it is used as necessary for a specific vulnerable area.
- Claims tape strengthens muscles; explain that it supports and stabilises a joint rather than building strength.
- Treats bracing as a substitute for warming up; keep warm-up and support as separate prevention methods.
- Applies support without reason; link its use to a history of injury, rehabilitation or a joint needing stability.
- Assumes any drink maintains hydration equally; recognise that water suits most sessions and electrolyte drinks help in long or very sweaty activity
- Treats hydration as relevant only after exercise; remember fluid should be taken before and during activity as well as afterwards
- Confuses hydration with nutrition or carbohydrate loading; keep the focus on replacing water lost through sweat
- Believes bouncing makes a stretch more effective; recognise that bouncing triggers the stretch reflex and raises injury risk
- Thinks pushing through pain shows a good stretch; understand that a stretch should be held at a comfortable point without pain
- Treats overstretching as harmless; remember it can tear muscle fibres or strain ligaments
- Writes only that technique should be good without naming a fault or the injury it prevents; specify the body position and the risk it reduces.
- Assumes heavier loads always improve performance; recognise that load lifted with poor form increases injury risk.
- Ignores fatigue as a cause of poor technique; state that form should be monitored and load reduced when it breaks down.
- States only that rest is needed without explaining repair or adaptation; give the physiological purpose of recovery.
- Treats rest as complete inactivity only; recognise that lighter or different activity can form part of recovery.
- Assumes more frequent hard sessions always bring faster gains; explain that overtraining reduces performance and raises injury risk.
- Confuses altitude training with heat acclimatisation; correct this by stating that altitude training targets low oxygen availability rather than high temperature
- Claims the athlete trains at altitude to increase muscle size; correct this by explaining the aerobic aim of improved oxygen transport through more red blood cells and haemoglobin
- Assumes the athlete must both live and train at altitude; correct this by describing live high, train low, where training occurs lower to keep intensity high
- Treats altitude training as identical to training in the heat; correct this by explaining that altitude reduces oxygen availability rather than raising temperature
- Believes the benefit comes from training harder in thin air; correct this by noting that intensity often falls at altitude, which is why live high, train low is used
- Omits the adaptation entirely; correct this by naming increased red blood cells and haemoglobin as the aerobic gain
- Confuses altitude with heat; keep the focus on lower oxygen availability in the air.
- Claims the air contains no oxygen at altitude; recognise that oxygen is present but at a lower partial pressure.
- States that oxygen-carrying capacity rises immediately at altitude; recognise that the immediate effect is a reduction.
- Claims the body makes more white blood cells; correct this to more red blood cells.
- States the adaptation happens instantly; recognise that it develops over a period of weeks.
- Says more red blood cells reduce oxygen transport; correct this to an increase in oxygen transport.
- Lists benefits and limitations without linking them to a named performer or sport; apply each point to a specific athlete and event.
- Claims altitude training guarantees improved performance for every sport; restrict the benefit to endurance-based activities and acknowledge individual variation.
- Confuses altitude training with heat acclimatisation; keep the focus on reduced oxygen availability at height.
- Describes altitude sickness as a benefit; classify it clearly as a limitation that affects training quality.
- Names only two seasons or invents a fourth; recall the three: preparation, competition and transition.
- Places rest and recovery in the competition period; assign recovery to the transition period.
- Treats pre-season as a time for maximum competition; recognise it as the period for building fitness before competing.
- Confuses pre-season with the competitive season; place preparation before the first fixture
- Assumes pre-season means maximal intensity immediately; describe a gradual build-up instead
- Treats pre-season as skill practice only; include fitness development as well
- Describes the competition phase as building a fitness base; reserve base building for pre-season
- Assumes volume should keep rising through the season; describe maintenance and tapering instead
- Ignores recovery and injury prevention; include warm-ups, cool-downs and managed playing time
- Treats transition as a period of complete inactivity; correct this by noting that light active recovery maintains a fitness base.
- Confuses transition with pre-season; correct this by placing transition after the season and before pre-season.
- Assumes training intensity stays high in transition; correct this by stating that volume and intensity are reduced.
- Describes only one season instead of matching each season to its aim; correct this by covering pre-season, competitive and transition.
- Assigns recovery as the aim of pre-season; correct this by linking recovery to post-season/transition.
- Treats the competitive season as a time to build new fitness from scratch; correct this by stating its aim is to maintain and peak.
- Confuses pre-season with the competition phase; place preparation before the first fixture.
- Treats general aerobic work as the only pre-season need; add specific fitness work for the chosen sport.
- Assumes pre-season means maximum intensity from day one; build load progressively to protect against injury.
- Treats the playing season as the time to build a new fitness base; maintain existing fitness instead.
- Ignores skill practice and focuses only on fitness; include sport-specific skill work.
- Assumes more training always improves performance; allow recovery and tapering to avoid overtraining.
- Treats the post-season as a time for hard, high-intensity conditioning; correct this by stating that the phase uses rest and light aerobic work only.
- Confuses the post-season with pre-season; correct this by placing the transition period after the competitive season ends.
- Assumes complete inactivity is required; correct this by noting that light aerobic training maintains general fitness.
- Describes only one season's benefit; correct this by covering pre-season, competitive season and post-season.
- Claims the competitive season is for building base fitness; correct this by assigning base fitness to pre-season and peak performance to competition.
- Ignores recovery; correct this by explaining that the post-season rest prevents overtraining and injury.
- Invents extra seasons such as a peak season or two separate transitions; use only pre-season, competition season and post-season.
- Treats post-season as hard training for the next year; explain that it is for recovery and rest before rebuilding.
- Describes a phase without naming a sport or justifying it; apply each characteristic to a named activity and explain why it fits.