This supplementary material has been developed to guide teachers in their approach to biomechanical principles as part of VCE Physical Education(2025)
This supplementary material has been developed to guide teachers in the approach taken to high intensity interval training (HIIT) as part of VCE Physical Education (2025)
This supplementary material has been developed to guide teachers as to the approach to Lactate Inflection Point (LIP) as part of VCE Physical Education (2025).
This supplementary material has been developed to guide teachers as to the approach to Resistance Training protocols as part of VCE Physical Education (2025).
This supplementary material has been developed to guide teachers as to the approach to Functional Movement Assessment as part of VCE Physical Education (2025).
Outcome 1:
On completion of this unit, the student should participate in and analyse information from a variety of practical activities to explain how the muscular and skeletal systems function and interact to produce movement, and evaluate the use of performance enhancement substances and methods.
Examples of learning activities
Detailed example
TO STRETCH OR NOT TO STRETCH, THAT IS THE QUESTION
Task
Students research the perceived and actual benefits of including a stretching routine in a warm up to prevent musculoskeletal injuries.
Practical activity
Students perform, in order:
- a traditional warm up (jogging around the oval/gym followed by stretching the major muscles of the body)
- a 20-minute continuous run
- a 20-minute resistance circuit (sit-ups, lunges, push-ups, triceps dips, squats, plank, suicide sprints and Turkish get ups)
- a cool down (5-minute walk, followed by a stretch of the major muscles of the body).
Reflection
Students record how they feel in terms of muscle soreness over the following one and two days after the exercise. Discuss as a class what factors may contribute to different people feeling different degrees of muscular soreness.
Research task
Students investigate the causes of muscular soreness post exercise and the perceived benefits of including stretching as part of a warm up prior to undertaking physical activity.
Using a cause-and-effect graphic organiser such as a fishbone graphic or flow chart, students summarise the causes of muscular soreness post exercise and the impact of a warm up and stretching on muscular soreness.
Conclusion
Students use the information collected through the practical activity and reflection, in conjunction with the information obtained through the research task to determine if a stretch should or should not be part of a pre-exercise or pre-game warm up.
Outcome 2:
On completion of this unit, the student should be able to participate in and analyse information from a variety of practical activities to explain how the cardiovascular and respiratory systems function and interact, and evaluate the use of performance enhancement substances and methods.
- Explore the structure of the heart through a dissection of a sheep’s heart (if appropriate in the individual school context)
- Describe the process of how deoxygenated blood becomes oxygenated in the body use an organisational tool such as a mind map or flow chart
- Create a video to show the movement of a blood cell through the body using a variety of physical education equipment; e.g. red bibs for oxygenated blood and blue bibs for deoxygenated blood, hula hoops to move through to represent the lungs where bibs are changed
- Research the function of the components of the blood (red blood cells, white blood cells, platelets and plasma) and describe if and how that role changes during exercise compared to being at rest
- Investigate increases in heart rates, stroke volume and cardiac output by using two tubs, one empty and one full of water, and various sized cups to try and keep up with how much blood is pumped by the heart as exercise intensity increases
- Investigate the changes in heart rate from rest to sub-maximal to maximal exercise through participation in a game (e.g. European handball, netball, soccer or badminton); use heart rate monitors, and/or an app and/or a manual recording of the heart rate; compare and analyse the data collected
- Print a variety of pictures of different sporting activities at different intensities (e.g. someone playing lawn bowls, jogger and basketballer mid drive,) and place on a graph to show the relationship between heart rate and exercise intensity, and therefore blood flow
- Create a short video demonstrating the effects of exercising in the heat and thermoregulation in action
- Examine
Sports Medicine Australia's heat policy
- Investigate the similarities and differences between vasodilation and vasoconstriction when exercising in the heat versus acute body response to exercise commencing
- Use an organisational tool such as a mindmap to show the pathway of an oxygen molecule from entering the nasal cavity to the muscles
- Create a video to demonstrate and describe how and why gaseous exchange occurs
- Hypothesise what would happen if breathing was not an involuntary muscular contraction
- Participate in a practical activity and measure resting heart rate and respiratory rates throughout the game and at the end; divide into small groups, each use a different task word to create a question about the activity and then group the class’ questions together to answer the overarching question of how the cardiovascular and respiratory systems interact to assist the body during exercise
- Participate in 20 minutes of cycling on stationary bike to collect heart rate and respiratory rate data to then predict changes to these and other cardiac and respiratory parameters after regular aerobic exercise
-
Investigate one performance enhancing substance or method that impacts the cardiorespiratory system; research the substance or method and its physiological effect on the body, the potential benefits and harms, and the social, cultural and ethical issues with using this particular substance or method
- Discuss, debate, decide, debrief task: discuss the historical and current use of doping in sport; debate the issue of doping in sport; decide if you agree or disagree with the arguments presented; debrief by identifying the ethical and sociocultural considerations associated with doping in sport
Detailed example
ANALYSIS ON PERFORMANCE ENHANCEMENT: IS IT WORTH IT?
Task
Students investigate one performance enhancing substance or method that impacts the cardiorespiratory system.
Identify the issue
Students select a permitted or prohibited substance or method that enhances the cardiorespiratory system (for example, altitude training, EPO, beta blockers, gene doping or blood doping).
Analyse the problem
Students research physiological effects of the substance or method on the body. They analyse data relating to common uses, misuses, potential benefits and harms.
Evaluate past outcomes
Students research previous outcomes of athletes who have consumed the substance or method and discuss the social, cultural and ethical issues with using this particular substance or method.
Determine future uses – a strengths based approach
Students outline possible future uses of using the substance or method and alternative pathways that may help overcomes the associated social, cultural and ethical issues.
Outcome 1:
On completion of this unit, the student should be able to collect and analyse data related to individual and population levels of participation in physical activity and sedentary behaviour and conduct an FMA to create, undertake and evaluate a personalised plan that promotes adherence to the relevant physical activity and sedentary behaviour guidelines.
Examples of learning activities
Detailed example
TO STRETCH OR NOT TO STRETCH, THAT IS THE QUESTION
Task
Students research the perceived and actual benefits of including a stretching routine in a warm up to prevent musculoskeletal injuries.
Practical activity
Students perform, in order:
- a traditional warm up (jogging around the oval/gym followed by stretching the major muscles of the body)
- a 20-minute continuous run
- a 20-minute resistance circuit (sit-ups, lunges, push-ups, triceps dips, squats, plank, suicide sprints and Turkish get ups)
- a cool down (5-minute walk, followed by a stretch of the major muscles of the body).
Reflection
Students record how they feel in terms of muscle soreness over the following one and two days after the exercise. Discuss as a class what factors may contribute to different people feeling different degrees of muscular soreness.
Research task
Students investigate the causes of muscular soreness post exercise and the perceived benefits of including stretching as part of a warm up prior to undertaking physical activity.
Using a cause-and-effect graphic organiser such as a fishbone graphic or flow chart, students summarise the causes of muscular soreness post exercise and the impact of a warm up and stretching on muscular soreness.
Conclusion
Students use the information collected through the practical activity and reflection, in conjunction with the information obtained through the research task to determine if a stretch should or should not be part of a pre-exercise or pre-game warm up.
Outcome 2:
On completion of this unit, the student should be able to explain a range of intrapersonal and interpersonal contemporary issues that influence access to, and inclusion, participation and performance in, physical activity and sport at the local, national and global levels.
Detailed example
THE INFLUENCE OF GENDER ON PHYSICAL ACTIVITY OPPORTUNITIES AND PARTICIPATION
Task
Students critique the #Thisgirlcan, ‘Love our game and ‘Change our game’ campaigns to determine and analyse the issues depicted.
Instructions:
1. Students select a permitted or prohibited substance or method that enhances the cardiorespiratory system (for example, altitude training, EPO, beta blockers, gene doping or blood doping).
This girl can:
This girl can –
case study:
Love our game:
Change our game:
On the first viewing students watch and listen.
2. On the second viewing students complete a ‘Y’ chart with the following question stems:
- I think...
- I feel…
- I wonder…
3. Students watch the videos again and this time consider the following:
- What are the campaigns trying to do? What is their purpose?
- Do they succeed? Justify your answer.
- Are the issues portrayed similar for other groups in society?
Students research previous outcomes of athletes who have consumed the substance or method and discuss the social, cultural and ethical issues with using this particular substance or method.
4. There are a number of contemporary issues portrayed in the videos relating to physical activity and sport. For this section of the task, students discuss as a class those issues that were apparent to them. The issues students might identify include, but are not limited to, gender stereotypes in sport and physical activity, cultural norms, declining physical activity levels, media coverage of female sport, access to physical activity opportunities for women, girls and people with diversity in ability. From this discussion, students will need to select one of the issues for analysis.
Students analyse the issue identified by:
- identifying the barriers and enablers for participation in physical activity and sport in this context
- outlining the factors that influence participation in physical activity and sport in this context
- evaluating the effectiveness of the campaigns in addressing the issue selected
- sourcing and describing another strategy or initiative designed to increase participation in physical activity and sport in this context.
6. Students summarise their findings and draw informed conclusions about the overall effectiveness of the campaigns in addressing the issues associated with physical activity and sport.
Further resources
This girl can:
Love our game:
Change our game:
Outcome 1:
On completion of this unit, the student should be able to analyse primary data collected from participation in physical activity, sport and exercise to develop and refine movement skills from an individual and coaching perspective, by applying biomechanical and skill-acquisition principles.
- Participate in a range of fundamental movement skills (FMS): running, jumping, leaping, dodging, catching, throwing, kicking, bouncing and striking; select a sport and, using a visual/graphic organiser, demonstrate how FMS form the basis for the sport specific skills required in the sport selected
- Participate in a game of soccer or netball; from the game, identify the movement skills required to play; classify each of the skills as discrete, serial or continuous; include annotations about each skill
- Debate the following statement: ‘A tennis serve is a closed skill and, as such, professional players should be able to consistently serve at a very high percentage of first serves in’
- Research and report on the current understanding of the effect of physical training on growth, development and maturation
- Appraise and evaluate both sides of the ‘sport specialisation’ argument; from the findings, deduce the impact of early exposure to multiple vs single sports on motor skill development
- Analyse a child targeted sports program (e.g. NetSetGo, Hot Shots, Aussie Hoops, Milo Cricket, Auskick) and report on the modifications put in place in comparison to adults undertaking these sports, how these modifications impact motor skill development, participation and performance
- Research sporting families within Australia and internationally and investigate ‘familial advantage’, whereby parents and siblings influence skill development; identify the factors that may contribute to sporting expertise within families
Family support.
- Analyse secondary data on participation rates of both males and females in a range of different activities suggest reasons for the difference in participation rates in physical activity for both males and females across the lifespan.
- Conduct an audit of the sports offered at your school for males and females; discuss the influences on skill development from a sociocultural perspective; consider family and peers and cultural norms and traditions
- Participate in a modified (small-sided) version of Australian rules football, soccer or hockey; identify the task constraints that have been modified and provide a justification for the use of constraints-based coaching for junior athletes
- Participate in ‘line drills’ of kicking a football and then change to a small sided 3 on 3 game with changing dimensions, opponents; discuss strengths and limitations of direct versus constraints-based approaches and develop coaching strategies that would adapt these approaches to suit different learners
- Observe a junior PE class and note the differences between teacher-led and student-led activities, stages of learning the students are at, environment variability and the lesson’s cognitive load on the learner
- Plan, conduct and report on a practical laboratory task investigating the psychological skills that affect performance; include the application of at least one psychological strategy designed to enhance the performance of the individual
- Role-play a scenario whereby the coach is trying to motivate players in a team sport to reach an optimal arousal level; discuss the strategies used and the different approaches a coach may take, based on the age, experience and skill level of the players
- Consider a range of different discrete, serial and continuous skills in terms of whether they would be best learnt through part or whole practice
- As a class, participate in and reflect on the strengths and limitations of different forms of practice for a single movement skill
- Investigate the benefit of feedback through the development of a laboratory task that aims to investigate the hypothesis: ‘If the number of successful shots on goal (basketball, netball, football, soccer, hockey, lacrosse etc.) is affected by the amount of feedback, then the number of successful shots will increase when feedback is increased’
- Throw and catch water balloons or eggs at varied distances with and investigate effective catching technique how this impacts impulse
- Investigate the relationship between force, mass and acceleration by kicking various balls (soccer ball, football, gator ball on a flat surface, dry grass and wet grass
-
Participate in and digitally record various athletics events (shot put, discus, high jump, long jump); use the video footage to perform a qualitative analysis of technique including; concepts of summation of momentum, the use of a third-class lever and application of concepts related to projectile motion (release height, angle and speed) for each of the projectiles
- Practice the different
sprint starts standing, crouch (4 point and 3 point variation) and block; record a time for each start for the same distance; contrast the three starts by identifying the differences in the height of the centre of gravity, the position of the line of gravity, the impulse generated and the acceleration of the individual.
- Throw a ball overhand, then utilise a range of different implements (bat tennis bat, tennis racquet, lacrosse stick) to discuss 3rd class levers and the relationship between length of the lever, mechanical advantage and distance achieved
- Hit a tennis ball as far as possible with a child’s small plastic cricket bat and then repeat with a large adult wooden bat; record results and discuss the relationship between angular momentum, angular velocity and moment of inertia
- Ask a friend to video you performing a skill with your non-dominant hand or foot, then undertake a qualitative analysis of the movement, including practise time, and then re-record a video in two weeks to show potential improvements and discuss why these may or may not have occurred
- Coach a junior sports team; determine the stages of learning of the members of the team; through correct application of both biomechanical and skill acquisition principles, develop the movement skills of the students in the team
Detailed example
IT’S A BIRD, IT’S A PLANE, IT’S A PROJECTILE! INVESTIGATING FACTORS AFFECTING PROJECTILE MOTION IN ATHLETICS
Task
Participate in and digitally record various athletics events (shot put, discus, high jump, long jump). Use the video footage to perform a qualitative analysis of the height, angle and speed of release for each of the projectiles.
Instructions
Data collection
To ensure that all students work through each activity, divide the class into four groups and give each group a recording device (smart phone, tablet, digital camera, video camera).
Students participate in each of the four events, ensuring that at least one attempt in each event is recorded.
The recoding of distances thrown and/or jumped is not specifically required for the analysis; however, this data might provide further information for students to use in their evaluation.
Analysis
Students should have access to their own footage so they can analyse their own performance. This analysis can be done with the assistance of an app or software such as Dartfish, Hudl Technique or Coaches eye, if available.
For each activity, students use annotated diagrams to:
- determine and show on the diagram the height of release for each event
- determine and show on the diagram the angle of release for each event
- track and draw on the diagram the flight path of the object (shot, discus, body)
- describe the speed of release for each of the four projectiles.
Evaluation
From the data, students complete the following:
- How does the angle of release differ between each event? Explain why, for optimal performance, the angle of release is different for each of the events performed.
- Discuss how a coach could use the information from the analysis to improve the performance of young athletes in athletics.
- Explain the importance of a straight arm at release by applying the concept of third-class levers
- Describe how the principle of impulse, summation of momentum and Newton’s second law of motion are applied to maximise release velocity. In the answer, make reference to the glide technique in shot put and the one and three-quarter turn discus throw technique.
- Explain how the height of release and the landing height affect the optimal angle of release.
- Discuss the following statement: ‘Release velocity is the most important determinant of flight distance of a projectile’.
Conclusion
Students watch the video footage of their performance in each event again. From their analysis and evaluation, and based on the principles investigated, they provide written feedback on how the movement skill can be refined or improved.
For example: ‘From the analysis of the long jump, it is evident that the angle of release was too great, resulting in excess vertical speed and not enough horizontal speed, therefore decreasing the overall distance jumped. To improve long jump performance, the angle of release must be much lower than 45 degrees.’
Outcome 2:
On completion of this unit, the student should be able to use data collected in practical activities to analyse how the major body and energy systems work together to enable movements to occur; explain the factors causing fatigue; and recommend suitable recovery strategies.
- Using a generic ‘oxygen consumption during and after exercise’ graph, draw new graphs for a 50m sprint, 400m run and 5km run; discuss the changes in the graph and why oxygen demand changes
-
Wear a heart rate monitor while participating in a continuous activity, such as running, swimming or cycling, for a minimum of 20 minutes; graph the heart rate data collected to analyse the changes in exercise intensity and heart rate; use this data to investigate changes in oxygen uptake from rest and during exercise and recovery, and the relative contribution from the energy systems
- Analyse and collect data on acute responses to exercise: after lying down for five minutes, record resting heart rate, respiratory rate, blood pressure (if available) and temperature; perform one minute of continuous star jumps and repeat each of the measurements and observe any muscular changes; rest for five minutes and then perform a wall sit (squat) for one minute; record heart rate, respiratory rate, blood pressure, temperature and muscular changes; refer to the three energy systems to explain why these changes occur
- Undertake a 100m sprint and an end-zone game (such as touch football) to compare the acute muscular responses to each activity and discuss which responses positively affected performance and which may have negatively affected performance
- Individually create a poster to show the characteristics of one of the fuels required for ATP production; students working on the same fuel source share what they have learnt and update their posters; these are the expert groups; create groups with one ‘expert’ on each of the fuel sources and share what they have learnt with the rest of the group; place the posters around the room for future reference
- Use lego/duplo/contruction blocks to demonstrate the breakdown of ATP to release energy and the resynthesis of ADP and Pi
- Determine the food fuels contained in a number of different snack foods that students may consume before, during or after participation in physical activity
- Participate in a number of short duration, high intensity activities that demonstrate the utilisation of the ATP-CP system such as a 20m sprint, a vertical jump test, burpees, box jumps, half-court basketball shot
- Create a flow chart using
SmartDraw,
Prezi,
MindManager,
Mind42 or similar to depict the process of aerobic and anaerobic glycolysis
- Collect heart rate data while participating in a continuous activity such as running, rowing or cycling for a minimum of 20 minutes with bursts of speed throughout to discuss the aerobic system and anaerobic glycolysis contributions
- Participate in an active recovery and a passive recovery post participation in the same selected exercise or sport; determine the most appropriate form of recovery based on energy system usage during the selected exercise or sport
- Perform a phosphate recovery test to investigate the fatigue/limiting factors of the anaerobic energy systems
- Participate in a team sport; record data and information about the activity’s duration and intensity, the rest periods and the types of movement skills performed; use the information collected and examples from the data to discuss energy system interplay
- Watch a short video of participants during a 100m sprint, basketball game and an Ironman; explain each fatiguing factor(s) that may be impacting the participants and how this would impact their performance
- Investigate nutritional strategies used by athletes to fuel performance during their activity, determine the perceived benefits of the strategy and the physiological response to ingestion of carbohydrate and protein after exercise
- Research hydration strategies used by tennis players during the Australian Open and describe how these might assist with performance, fatigue and recovery
Detailed example
BREATHE IN, BREATHE OUT, REPEAT! OXYGEN UPTAKE: AT REST, DURING PHYSICAL ACTIVITY AND DURING RECOVERY
Task – laboratory activity
Students investigate changes in oxygen uptake from rest, and during exercise and recovery, and the relative contribution from the energy systems at each of these stages.
Instructions
Data collection
Students wear a heart rate monitor while participating in a continuous, sub-maximal activity such as running, swimming or cycling, for a minimum of 20 minutes.
Heart rate data is collected at one-minute intervals while at rest (5 minutes sitting), during the activity (20 minutes continuous) and during recovery (five minutes active recovery followed by five minutes passive recovery).
Tabulate data or download the file from the device.
From five other people in your class, collect the time taken to reach steady state and the time taken for heart rate to return to resting levels.
Analysis
Students analyse their own heart rate data, if available. If the student is unable to participate in the activity, data analysis can be performed using another student’s data. To analyse the data, students:
- Graph heart rate versus time.
- Shade the periods of rest, exercise and recovery.
- Label periods of oxygen deficit, steady state and excess post-exercise oxygen consumption (EPOC).
- Determine resting heart rate, steady state heart rate and the percentage of HR max at which this occurred.
Evaluation
From the data, students complete the following:
- Discuss the acute physiological responses to exercise.
- Identify periods of ‘oxygen deficit’, ‘steady state’ and ‘EPOC’.
- Compare the production of ATP during oxygen deficit and during steady state.
- Explain the role of the aerobic energy system during recovery.
- Explain the relationship between oxygen availability and relative contribution from each of the energy systems.
- Establish whether the time to reach steady state and for heart rate to return to resting levels differed between students. Suggest possible reasons for any differences between students.
Conclusion
Students summarise and succinctly present the key findings of the investigation.
Outcome 1:
On completion of this unit, the student should be able to undertake an activity analysis to justify the physiological requirements of an activity that informs an appropriate assessment of fitness.
Detailed example
GAME ON! FITNESS REQUIREMENTS AT THE ELITE LEVEL
Task – written report analysing data
Students access and analyse secondary data to determine fitness components required for the selected sport. The types of data will vary depending on the sport selected. Students may access only skill frequency data or a combination of movement patterns, skill frequencies, heart rates etc., depending on the availability of the data. The analysis can then be structured according to the information available.
Instructions
Students access and analyse secondary data to determine fitness components required for the selected sport. The types of data will vary depending on the sport selected. Students may access only skill frequency data or a combination of movement patterns, skill frequencies, heart rates etc., depending on the availability of the data. The analysis can then be structured according to the information available.
Data
Example of secondary data:
Match statistics – Novak Djokovic Men’s singles final, Australian Open 2016 Total match time, 2 hours and 53 minutes (6–1, 7–5, 7–6)
Aces | 7 |
Double faults | 3 |
1st serves in | 73 of 111 (66%) |
Fastest serve | 199 km/h |
Average 1st serve speed | 185 km/h |
Net points won | 11 of 14 (79%) |
Break points won | 2 of 12 (42%) |
Winners | 31 |
Unforced errors | 41 |
Total points won | 123 |
Total distance covered | 3315.4m |
Distance covered per point | 14.9 m |
Source:
Australian Open
Analysis
- Consider the muscles and muscle groups required to perform the key skills and movement patterns.
- Consider the distances covered in each point and overall.
- Consider the total time taken to complete the match.
- Consider the physiological requirements needed to generate the recorded service speeds.
Evaluation
From the analysis of the data, students determine the fitness components that are required to perform successfully in tennis at the elite level and make informed decisions about the fitness requirements for tennis. Students will need to justify the decisions made, based on the information available.
Students will need to acknowledge the limitations of the analysis. For example, in this data set, skill frequencies are not recorded.
After determining the fitness components required, students select appropriate tests to assess each of the identified fitness components and suggest a suitable order for conducting the tests.
Conclusion
Students complete a written report that includes a summary of the results of the analysis and an appropriate battery of fitness tests for the sport. Students should also include suggestions for additional data which would complement their evaluation of the fitness requirements of the sport.
Extension/futher activity
Students may perform an activity analysis of tennis to collect primary data. An analysis of this data will allow students to make comparisons between the requirements of tennis at the elite level and at the recreational level. Similarities and differences can then be discussed.
Assessment of fitness
In Unit 4, Area of Study 1 students are required to undertake an activity analysis to justify the selection of a fitness test/s based on the physiological requirements of the activity.
It is expected that students will develop the understanding needed to justify the selection of standardised and recognised fitness tests for the specific physiological requirements of an activity through participation in and performance of an assessment of fitness.
The table below lists a number of suitable tests (both laboratory and field based) for each of the listed fitness components. Tests are encouraged to be undertaken in a school setting, with laboratory tests such as VO2 max and Wingate tests recommended to be either participated in as an incursion or viewed online.
Test administration and participation is important to develop student understanding of testing methodology (reliability, validity and accuracy) and their ability to justify test suitability from a physiological and psychological perspective. Students are not expected to memorise the protocols for an individual fitness test.
A selection of the following tests to form a fitness test battery, is recommended to be undertaken, this could be presented as stations or as a combine for students to make real world connections to fitness testing.
Fitness component | Test |
---|
Aerobic power | 20m multi-stage test or 20m shuttle run test Yo-Yo intermittent recovery test Cooper 12-minute run test VO2 max. Astrand-Rhyming cycle ergometer test VO2 max. treadmill test |
Anaerobic capacity | Phosphate recovery test 30-second Wingate test Repco peak power test |
Muscular strength | 1-RM (bench press, back squat, leg press)
Grip strength dynamometer Seven-stage abdominal strength test |
Muscular power | Seated basketball throw Vertical Jump or Standing long jump
|
Muscular endurance | 60-second push-up test 30-second sit-up test Flexed arm hang test
|
Flexibility | Trunk flexion (sit-and-reach) test Shoulder and wrist elevation test Ankle dorsiflexion test |
Speed | 20-metre sprint test 35-metre sprint test 50-meter sprint test |
Agility | Illinois agility test Semo agility test 5-0-5 agility test
|
Outcome 2:
On completion of this unit, the student should be able to participate in a variety of training methods; design and evaluate training programs; and explain performance improvements that occur due to chronic adaptations, depending on the type of training undertaken.
- Compare and contrast a variety of personal activity tracking devices (e.g. wearable technologies, smart phone apps, computer-based software); in the comparison, consider the ease of use and identify the type of information that is collected, cost and data output
- As a class, play a match-up game; have all individual data headings covering physiological, psychological and sociocultural data (e.g. heart rate, stress levels, peer pressure etc) written on individual cards and put them under their correct heading title in the shortest possible time
- Individually or in pairs, design and lead the class in an appropriate warm up for a selected sport or activity; identify the nature and repetitions and/or time for the activities in the warm up and provide a verbal justification of why it is an appropriate warm up for the sport or activity selected
- Source a range of training program prescription data (e.g. resistance training program) to identify examples of frequency, intensity, time, type, progression, specificity, individuality, diminishing returns, variety, maintenance, tapering, overtraining and detraining;
- Participate in a variety of interval training sessions and record the variables: distance, repetitions, sets, intensity and rest periods; discuss how the variables can be manipulated to change the focus of the training session
- Attend a local gym and participate in a high intensity interval training (HIIT) session; outline the activity and then compare the similarities and differences to a fartlek and/or long interval training session
- Research the benefits of
high intensity interval training (HIIT) and outline one exercise protocol that could be used in this type of training; conduct, participate in and reflect on the session outlined
-
Participate in a variety of training sessions and document a reflection of the structure of each session including warm up, conditioning phase and cool down, the method of training undertaken, the application of the relevant training principles and the desired outcome of the session
- Design a six-week training program that demonstrates the correct application of frequency, intensity, time, type, specificity and progression
- Compare personal fitness testing results with elite level or norm referenced fitness test data; explain the chronic adaptations that need to occur for improvements to be made
- Make a visual display such a mindmap of the chronic adaptations that occur in the cardiovascular, respiratory and muscular systems as a result of aerobic, anaerobic and resistance training and connect this to improvements in; VO2 max, lactate inflection point (LIP), speed and force of muscular contraction and lactate tolerance.
Detailed example
JUST DO IT! METHODS OF TRAINING FOR IMPROVED FITNESS
Task – data collection and reflection on training methods
Students participate in a variety of training sessions and document a reflection of the structure of each session including warm up, conditioning phase and cool down, the method of training undertaken, the application of the relevant training principles and the desired outcome of the session.
The training diary that encompasses the collection of at least five training sessions completed, can be an insert within a students’ VCE PE reflective folio, however, the training diary should be able to be separated from the rest of the reflective folio for authentication purposes when completing the associated school-assessed coursework task (case study).
Instructions
Students participate in a minimum of five training sessions that focus on the training methods listed:
- interval training
- short
- medium
- long
- high intensity (HIIT)
- continuous training
- fartlek training
- circuit training
- resistance training
- plyometrics
Each session should include an appropriate warm up, conditioning phase and cool down.
Data collection
A training diary template can be used to record details of the warm up, conditioning phase and cool down and record the relevant physiological, psychological and sociocultural data for each session undertaken.
Analysis
- Identify the method of training undertaken.
- Demonstrate using examples from the data how the relevant training principles were implemented.
- Determine the fitness components developed through the training method.
- Determine the contribution from each of the energy systems in the session.
- Explain the required frequency, intensity and time required for improvements to be made through this type of training.
Conclusion
Students write a personal reflection on their participation in the session, for example how they felt, what they enjoyed and what was difficult.
Teachers should conduct the training session and then have students complete the training diary and a at the end of the session before leaving class. The training reflection from each session can then be added to the student’s reflective folio for Unit 4 documentation, as well as used for the case study assessment task in Outcome 2.