1/115
Looks like no tags are added yet.
Name | Mastery | Learn | Test | Matching | Spaced |
---|
No study sessions yet.
flexibility
‘the ability of a joint to move through its full
range of motion’
procedure for 20m shuttle run (informally known as the beep test) (indirect test of aerobic power)
Participants run between two sets of cones spaces 20m apart
-As levels progress, beeps gradually become closer together
-Test ends when participant misses two beeps in a row
-Result is then recorded
what are the four testing protocols?
validity
reliability
accuracy
informed consent
procedure for phosphate recovery test (direct test for anaerobic capacity)
Choose a partner to work with (one person performs the test, the other records the results) and a timekeeper.
The performers line up at the left. After giving a 5‑second warning, the timekeeper blows a whistle and starts two stopwatches. The performer sprints to the right, at maximal effort. Each performer’s score is the number of the cone in the top right‑hand section of the course reached at the 7‑second mark.
The performers jog to the start/finish line at the right and line up ready to sprint to the left when the second stopwatch reaches 30 seconds. For this sprint, the cones in the bottom left‑hand part of the course are used for scoring.
The process is repeated 8 times
procedure for repco peak power test
Requires a Repco front access cycle ergometer
Participant maximally cycles for 10 seconds
Test conducted by trained professionals with access to computer data
Results recorded
Handgrip dynamometer strength test procedure (direct test for muscular strength)
1. Subject should stand upright with arm parallel to their side
2. They squeeze as hard as they can without moving their arm
3. After three attempts, highest score is recorded
procedure for 1 repetition maximum (1RM) bench press, back squat and leg press tests (direct test for muscular strength)
The subject should warm up by completing several repetitions at a lower weight.
2. Begin the test with a weight/resistance of about 50–70 percent of the subject’s capacity.
3. Progressively increase the weight/resistance by increments of between 2.5 and 20 kilograms until the subject cannot complete the selected repetition. All repetitions should be performed at the same speed of movement and range of motion to ensure consistency between trials.
4. Complete four trials, with rest periods of 3–5 minutes between trials.
5. The final weight lifted successfully is recorded as the absolute 1RM. Results are based on dividing the weight lifted by actual body weight for both the bench press and leg press.
30 second sit-up test procedure
Subjects start on their back with their legs at a 90 degree angle
The must keep their arms and fingers straight
They sit up and touch their partners forearm which sits on top of their knees
The number of sit ups completed in 30 seconds is recorded
60 second pushup procedure
he person being tested assumes the standard push-up position: legs together and hands pointing forward, shoulder-width apart, positioned directly under the shoulders (see photos, page 267).
A partner places a fist on the floor directly under the person’s chest.
The performer lowers themselves until their chest touches the fist, keeping their body straight and rigid, and then pushes themselves back up to the starting position. This counts as one repetition. The toes are the pivotal point. Rest is allowed in the up position only.
The score is the total number of push-ups completed in 60 seconds.
sit and reach test procedure
Sit on the floor with legs straight in front, no shoes.
Position the measuring tape so "0 cm" aligns with your feet (or use the table's built-in scale).
Place soles of feet, shoulder-width apart, firmly against the box/table.
Keep knees flat on the floor.
Reach gently toward feet with hands stacked (palms down), avoiding any bouncing.
After three practice reaches, hold the fourth reach for at least 2 seconds.
Measure the distance reached by the fingertips—if you don't reach your toes, it's a negative score.
Compare your result to national averages.
shoulder and wrist elevation test procedure
Lying prone on the floor with arms fully extended overhead, grasp the wooden rod with your hands shoulder-width apart.
Raise the rod as high as possible while keeping your chin on the floor.
Your partner should read the score from underside of the wooden rod (against the metre ruler taped to the wall).
Measure your arm length from acromial process to fingertips and subtract your best trial score from your arm length. Table 10.20 provides the norms.
vertical jump test procedure
Athlete stands next to a wall and extends one arm and marks the highest point on the wall
They then jump as high as they can from a standstill position and mark the highest point on the wall with the chalk
Measurement between the marks is recorded
seated basketball throw test procedure
Participants sit with their back against a wall.
Hoop is placed on participants feet to ensure consistent throwing angle
Participant uses a chest pass technique to explosively throw ball
Distance of throw is the participants score
20m, 35m and 50m sprint test procedure
Sprint tests can be measured across any distance, however, the shorter the distance the harder it is to achieve accuracy e.g 10m
At an elite level, short distances are fine as timing gates are usually available
20m, 35m and 50m sprints are a good distance for accuracy and norms are available
Ilinois agility test procedure
Using the cones, mark out the course according to the illustration below.
Begin by lying behind the start line, with your hands near your shoulders and your head behind the line.
On the command “go”, jump up and run through the course. You must touch the end lines with your foot.
The time taken should be recorded as soon as you cross the finish line.
SEMO agility test procedure
Place the cones in each corner of the area, as shown on the following page.
Line up at ‘A’ with your back to the square.
At the signals “ready, go”, sidestep from A to B and pass outside the corner cone; then
run backwards, or backpedal, from B to D and pass to the inside of the corner cone; then sprint forwards from D to A and pass outside the corner cone; then backpedal from A to C and pass to the inside of the corner cone; then sprint from C to B and pass outside the corner cone; and finally sidestep from B to the finish line at A. Two trials are allowed.
yo-yo intermittent recovery test procedure
Participants run between two sets of cones spaces 20m apart
-Participants then have a timed 5m recovery jog after each effort (10 seconds)
-As levels progress, beeps gradually become closer together and test ends when participant misses two beeps in a row.
what is a PAR-Q
a PAR-Q is a screening tool to help identify any existing health risks or conditions an athlete may have.
fitness tests for muscular power
Seated basketball toss, standing vertical jump
fitness test for muscular strength
1RM bench press, 1RM squat etc
Fitness test for agility
illinoi agility test
fitness test for flexibility
sit and reach test
fitness test for muscular endurance
60 second pushups, 30 second situps
Pre fitness testing considerations
-Physiological factors
-Psychological factors
-Sociocultural factors
Physiological factors affecting fitness testing:
-Existing injuries: does the participant have any injuries which could affect their participation?
e.g. a back injury that prevents them from bending over.
-Physical health conditions: does the participant have any physical health conditions which could affect their participation?
e.g. high blood pressure which prevents them exercising maximally
-Physical disabilities: does the participant have any disabilities which could affect their participation?
e.g. paraplegia which restricts their lower body movement
Physical Activity Readiness Questionnaire (PAR-Q)
used to determine an individuals readiness for fitness testing or an exercise program. Helps ensure there are no health risks for the participant.
Psychological factors:
-Mental health: does the participant have any mental health issues which could affect
their participation?
e.g. social anxiety relating to completing fitness tests around others, low scores could effect
self-esteem
-Learning disabilities: does the participant have any learning disabilities which could
affect their participation?
e.g. auditory processing issues which means they cannot listen to test instructions
-Motivation: could the testing act as motivation for the participants?
e.g. participants may be eager to improve pre to post testing scores
Sociocultural factors:
-Cultural beliefs: does the participants cultural beliefs influence their participation?
e.g. in some cultures it may be inappropriate for males and females to do the tests together
Socioeconomic status: does the participant’s financial situation affect their participation?
e.g. may not be able to afford laboratory tests such as VO2 max
Peers: does the participants peers affect their willingness or motivation to participate in testing?
e.g. if peers don’t participate then the individual may choose not too also
Fitness assessment protocols
the rules or procedures associated with fitness testing.
Validity
Reliability
Accuracy
Informed consent
Validity
ensuring that a selected fitness test is suitable for the fitness component we are measuring
E.g. a test such as standing vertical jump is a valid way to measure muscular power, but NOT muscular strength or endurance.
Accuracy
ensuring that fitness tests are delivering results which are
truly reflective of the participants fitness levels.
strategies to increase testing accuracy
-Carefully measuring distances
-Maintaining and servicing equipment
-Ensuring test guidelines are closely adhered to
-Having well-trained test facilitators
Reliability
ensuring that fitness tests will produce consistent and repeatable results, even when carried out in different contexts.
Tests must be able to be performed repeatedly (anywhere) and the same results obtained.
This is particularly important for the completion of pre and post testing, which ideally need to be done in very similar circumstances.
ways to ensure reliability in a test
Conducted at the same time of day
Completed in the same order
Same/similar environmental conditions for both tests
Same equipment/clothing/shoes used for both tests
Done when athlete has had the same preparation ( e.g. same
warm-up, nutrition, hydration levels, activity)
Informed consent
an agreement by the participant to continue with testing after being made aware of what is involved.
As part of informed consent, all athletes should have been explained:
Safeguards for the testing (what will be done if things go wrong)
Description/aims of the test
Methods of testing
Potential risks of the testing
Parental consent (if under 18)
VO2 max test
involves exercising to exhaustion while breathing into a tube connected to a machine (usually in a laboratory). It measures the maximum amount of oxygen a person can take in and use.
Absolute VO2 max
measured as litres of O2 uptake per minute (e.g. 3.8L/min). It does not take into account body weight.
Direct tests (Laboratory Tests)
carried out by sport scientists under laboratory conditions to achieve highly accurate results. Generally only used on elite athletes.
Example of a ‘direct test’ is the Vo2 max test which is considered the gold standard for measuring an athletes aerobic power
The advantage of direct testing is that they are highly accurate, the disadvantages is that they are usually expensive, can be invasive, and require trained professionals to facilitate.
Indirect Tests (Field Tests)
carried out in a training or class setting. Easy to administer but less accurate as they rely on estimations.
A great example of an ‘indirect test’ is the 20m shuttle run or ‘beep test’. The level an athlete achieves can be used to estimate an athletes aerobic power.
The advantage of indirect testing is that they are usually cheap and can be facilitated by nearly anyone, the disadvantages is that they are less accurate than direct testing.
Maximal Tests
require an athlete to exercise until they are close to exhaustion.
Examples include VO2 max, beep test, 1RM and 50m sprint.
Submaximal Tests
do not require an athlete to exercise to exhaustion
An example is the PWC 170, where an athlete rides an exercise bike at increasing intensities until they reach a heart rate of 170 beats per minute
Relative VO2 max
measured as millilitres of O2 uptake per kg of body weight, per minute (e.g. 53ml/kg/min). It is more specific to the person being tested as it takes into account body weight.
types of fitness testing
Direct tests (laboratory tests)
V02 Max test
indirect tests (field tests)
Maximal tests
Submaximal tests
activity analysis
collecting data to identify physiological requirements for a sport or event. The first step in developing a training program.
why is an activity analysis important?
Conducting an activity analysis allows coaches or fitness staff member to determine which fitness components and energy systems are utilised in a particular sport, and design highly specific training programs to enhance these.
activity data is closely analysed following performances to determine
Energy system interplay and contribution to different aspects of performance
Fitness components required for major skills and muscle groups used.
Fatigue factors - how to avoid these next time (recovery during and after performances)
Individual & team playing styles and the effectiveness of “set plays
Aerobic fitness components
Aerobic power
Muscular endurance
Balance
Coordination
Flexibility
methods of data collection
Direct observation (with or without note-taking)
Digital recording
Direct observation/ viewing
Direct viewing/observation – involves live observations of a game/activity. E.g. a coach watching from a coaches box.
advantages of direct observation?
Immediate changes can be made to style of play in response to how the game is progressing (i.e. coaches box).
Player fatigue easily observed and counteracted with use of interchange or “bench” for recovery
disadvantages of direct observation?
Subjective or opinion based decisions (can be reduced with training and increased viewing experience)
No way of showing players how they performed
The pace of the game may be too fast to “take everything in”
Difficult to observe multiple players at the same team
statistical recording
when data collection sheets are completed during direct observation of play.
advantages of statistical recording (a form of direct observation)
Able to discuss performance of players with more objectivity.
Data can be “archived”/ stored and referred to in future Player/performance profiles
disadvantages of statistical recording (a form of direct observation)
Training for observers required prior to accurate recording
Difficult to view and record what is happening at the same time
Extremely labour intensive requiring lots of effort to arrive at game summaries
Players may become obstructed or distant in field of view and “guessing” may need to be used
anaerobic fitness components
speed
muscular power
muscular strength
anaerobic capacity
agility
types of digital recording
Heart rate monitor
Video recording
GPS
Ariel sports technology
Video recording
involves the recording and analysis of an athletes performance using recorded video.
video recording advantages
Can review performance after the activity has taken place
An objective measurement tool Allows performer to see themselves in action
disadvantages of video recording
May require expensive equipment
No objective info provided for intensity
Aerial sport analysis (eye in the sky)
a type of video recording in which the camera is positioned far above the athletes from an aerial view.
advantages of aerial sport analysis
Every player visible for duration of game
Vision in vision allows player to be monitored when “off the ball” and allows tactical decision making to be seen
Increases spectator understanding and following of games
Allows for “third umpire” decisions to be called for by field referee as required
disadvantages of aerial sport analysis
Expensive to set up and requires lots of operators to use the many cameras /recorders (this is increasingly becoming remote operated)
advantages of heart rate monitors
Relatively inexpensive
Generally unobtrusive and doesn’t interfere with performance
Accurate collection of playing intensities
disadvantages of heart rate monitors
Waterproof models are very expensive
Interference from nearby digital transmitters Delay in “real time” signals
Must be close to receiver to obtain immediate data, otherwise need to download after event is finished
heart rate zones (training zones)
Aerobic system – train at an intensity of 70-85% MHR.
Anaerobic glycolysis system – train at an intensity of 85-95% MHR.
ATP-PC system - train at an intensity of 95+% MHR.
to improve the average persons Lactate Inflection Point (LIP), it is recommended to train at 85-90% MHR.
Global positioning system (GPS)
Global positioning system (GPS) – a wearable device that utilises satellites to record: movement patterns, distance covered, speed and duration.
advantages of Global positioning system (GPS)
Measures many different things (movement patterns, distance, speed, duration).
Easily determines players who are “fatiguing” and efforts dropping in intensity (useful for player rotation on and off the bench)
disadvantages of global positioning system (GPS)
Expensive
Some models can be uncomfortable/invasive to wear
Limited contextual data
types of data that can be collected
Intensities/heart rate zones (looked at in previous slides)
Work-to-rest ratio (will look at in upcoming slides)
Skill frequency (will look at in upcoming slides)
Movement patterns (will look at in upcoming slides)
Muscle groups used (will look at in upcoming slides)
Speed/acceleration
Distance travelled
Work-to-rest ratios
Work-to-rest ratios - used to assess the time spent physically working compared to the time spent resting or recovering.
data for work-to-rest ratios
A work-to-rest ratio of 1:1 or higher work indicates aerobic system predominance.
A work-to-rest ratio of 1:2 – 1:4 indicates anaerobic glycolysis system predominance.
A work-to-rest ratio of 1:5 or lower work indicates ATP-PC system predominance.
Movement patterns
Data relating to how much time an athlete spends in different speed ranges, and where these occur within a playing area.
Muscle groups used
Muscle groups used – data related to which major muscle groups are used during an activity.
Skill frequency
Skill frequency – data on the amount of times a particular skill is used within a game. E.g. shot types in tennis.
Heart rate monitor
provides real-time data relating to an individuals heart rate (bpm). A very good indication of intensity
Factors affecting Aerobic power
Haemoglobin levels- –haemoglobin is the oxygen carrying component in red blood cells. Increased levels leads to increased oxygen delivery.
Fibre type- slow twitch muscle fibres have a better capacity to utilise oxygen
Efficiency of heart – higher stroke volume, increased cardiac output etc
Concentration of oxidative enzymes – leads to increased aerobic fuel metabolism
anaerobic fitness components
Aerobic power
ability of the body systems to supply and use oxygen for energy production
fitness component
‘the different aspects that make up a person’s fitness. Can be aerobic related or anaerobic related’
types of muscular contractions
isometric contractions, isoinertial contractions, isokinetic contractions.
static flexibility
‘range of motion
of joints while stationary.’
dynamic flexibility
‘range of motion of joints while moving’
factors affecting flexibility
Age- Flexibility tends to be greatest between the ages of 8-10, making children more flexible than adults.
Gender - Females tend to be more flexible than males.
Joint structure/range of motion – Some joint types allow more movement (i.e. shoulder compared to knee)
Muscle temperature – warming up a muscle will make it more flexible.
muscular strength
‘the maximal
amount of force a muscle can produce
in one contraction.’
factors affecting muscular strength
Age- Muscular strength will tend to peak between 25 -30 years of age and then decline by 1% per year.
Gender- Males have greater muscle mass than females so in absolute terms will be “stronger” by about 30%.
Type of contraction
Length/tension relationship
Fibre arrangement and type
isometric contractions
‘muscle length remains unchanged
(i.e. wall sit, plank hold)’
isoinertial contractions
‘muscle length changes. Can be concentric (muscle shortening) or eccentric (muscle lengthening).’ (i.e Pull ups, bicep curl)
Isokinetic contractions
muscle tension remains the same throughout range of motion. Requires specialised machines.’ (i.e. Treadmill/ exercise bike/ Ski erg).
Pennate muscle fibres
‘arranged on an angle allowing more forceful contractions. Can be unipennate, bipennate or multipennate.’
muscular contractions in order of strength generation
1.isonertial (eccentric)
2.isometric
3.isonertial (concentric)
(Isokinetic is irrelevant)
fusiform muscle fibres
‘arranged parallel to muscle which means faster but less forceful contractions.
order of muscle fiber contraction strength
Fusiform
unipennate
Bipennate
Multipennate
slow-twitch muscle fibres (type 1)
‘Slow-twitch muscle fibres (type 1) –
smaller, produce less force but don’t fatigue
as easily
fast-twitch muscle fibres (type 2)
Fast-twitch muscle fibres (type 2) –
larger, produce more force but fatigue more easily
muscular endurance
‘The ability of a muscle, or group of muscles, to perform sustained or repeated contractions’
Factors affecting Muscular endurance
Fibre type – this is the main factor affecting muscular endurance. Slow twitch fibres have greater endurance, and fatigue much less easily than fast twitch fibres.
anaerobic capacity
‘The ability of the body to produce energy without using oxygen.’
Factors affecting anaerobic capacity
Age – Anaerobic power tends to peak around 30 years of age and then decline by 1% per year.
Gender – Males have greater muscle mass than females so will also have greater stores of “anaerobic fuels” (carbs & PC).
Fibre type – Fast twitch muscle fibres can generate anaerobic power quicker than slow twitch fibres because they have greater anaerobic stores of fuels.
muscular power
‘The ability to perform explosive muscular contractions. A combination of strength and speed.’