1/179
Looks like no tags are added yet.
Proprioceptive feedback
Feeling where your body is in space e.g. feeling that you need to untuck
Visual feedback
Seeing what you are doing well and need to improve e.g. seeing the ball go over the net
Auditory feedback
hearing what you are doing well and need to improve e.g. hearing the ball make a good connection
Touch feedback
Feeling what you are doing well and need to improve
Augmented feedback
Feedback provided by an external source such as a coach
Knowledge of results
Outcome-based feedback e.g. knowing whether the ball was in or out or whether a goal was scored
Knowledge of performance
Feedback about how the skill was performed e.g. being told to have a bigger follow-through
Inertia
Resistance to a change in the state of motion
Overcoming inertia
The force applied must be greater than the inertia of the object for its state of motion to change
Summation of momentum
Correct sequencing and timing of as many body parts as possible while remaining stable to overcome inertia and maximise force production
Momentum maker
Increase force by using as many body parts as possible and apply the force for as long as possible through the backswing and follow-through to maximise impulse
Example of momentum maker
A discus thrower uses a backswing and follow-through to apply force for longer so the discus travels further
Lever
A rigid structure that rotates around an axis to move a resistance
Axis
The point around which a lever rotates
Force (in terms of levers)
The point where force is applied to move the resistance
Resistance
The object or force that the performer is trying to move
AFR
Axis then force then resistance
Resistance arm
The distance between the resistance and the axis
Force arm
The distance between the axis and the point where force is applied
Longer lever
Has a longer resistance arm and produces more speed so the ball or object can travel further
Shorter lever
Has a shorter resistance arm and produces less speed so the ball or object does not travel as far
Mechanical advantage
A measure of how much a lever amplifies force
Mechanical advantage formula
Force arm divided by resistance arm
Mechanical advantage of a speed lever
Usually less than 1 because the resistance arm is longer than the force arm
Effect of increasing resistance arm
Mechanical advantage becomes further below 1 and speed is amplified more
Longer resistance arm effect
Produces greater speed and allows the ball or object to travel further
Muscular system acute responses- fuel stores
As we exercise fuel stores in muscles decrease due to need for ATP, (be specific abt what fuel store), as exercise continues and we use fuels, they will decrease, slower rate
A-VO2 difference
The difference in oxygen concentration between arterial and venous blood which indicates how much oxygen the muscles extract
acute response A-VO2 difference
A-VO2 difference increases so more oxygen is extracted by the muscles and aerobic ATP resynthesis can occur faster
Motor unit recruitment
As exercise intensity increases more motor units are recruited allowing muscles to contract more forcefully
Effect of increased motor unit recruitment
contract muscles more forcefully
Muscle temperature
Muscle temperature increases during exercise which increases flexibility and can decrease injury risk
Enzyme activity
Exercise increases enzyme activity allowing fuels to be broken down faster for ATP resynthesis
H+ waste products
Prolonged or increased anaerobic glycolysis causes H+ ions to accumulate which contributes to fatigue and a slower rate of ATP resynthesis
Hydration
Water should be consumed before during and after exercise to help avoid dehydration
Purpose of activity analysis
To identify the most important muscle groups energy systems and fitness components specific to a sport, so you can develop a sport sepcific training program
SMEF
specific, muscles groups, energy systems and fitness components
w:r for aerobic
1:1, 2:1 etc.
1:2 to 1:4 work-to-rest ratio indicates the ______ system is major contributer
anaerobic glycolysis
w:r for ATPCP
1:5
Flexibility
The capacity of a joint to move through its full range of motion
Flexibility contributing facyors
sex-emales generally have greater flexibility than males
Flexibility generally decreases with age
Agility
The ability to change direction quickly while maintaining balance and control
what fitness componenst are these a contributing factor to:
age- generally peaks around 25 to 30 years of age
sex- Males generally have greater agility due to factors such as greater muscle mass and strength
fibre type- higher % slow twitch
aerobic power, muscular endurance
Fitness test
A standardised and recognised test that appropriately measures an identified physiological requirement
Examples of sociological training data
Training partner weather and training venue
Training monitoring strategies purpose
Methods used to track training and identify deviations in trends that may indicate overtraining
Purpose of monitoring training
To identify possible signs of overtraining early so intervention can occur and the risk of overtraining is reduced
Specificity
Training should mimic the movement patterns, w:r, just the demands of athletes sport the most
Individuality
Unique needs and responses to training that should be accounted for
Diminishing returns
the more trained you are, the smaller gains you will get as you are closer to your genetic potential
Variety
Changing something about the training environment approximately once every 6 weeks such as location
Maintenance
train x2 week
Tapering
Decreasing training volume while maintaining intensity before an important competition to optimise performance
Overtraining
A condition caused by insufficient recovery or excessive training that can negatively affect performance
increae risk of injury
causes of overtraining
dont leave enough rest time
progress too much
Detraining + main cause
The loss of fitness gains because training is reduced or stopped
usually due to injury
Continuous training intensity
70–85% MHR
training methods of aerobic power
continuous, fartlek, LIT, HIIT
SIT work-to-rest ratio
Usually 1:5 or greater
SIT work duration
Approximately 3–10 seconds
SIT rest duration
Approximately 15–50 seconds
SIT intensity
10 RPE
training methods for anaerobic capacity and speed
SIT
IIT
training methods for power
plyo
res
IIT work-to-rest ratio
1:2 1:3 or 1:4
IIT work duration
10–60 seconds
IIT intensity
85–90% maximum heart rate
trainimg methods for flexibility
PNF
strength and endurance traing method
resistance
LIT work-to-rest ratio
Approximately 1:1 to 5:1
LIT work duration
Approximately 1–5 minutes
LIT intensity
Approximately 80–85% maximum heart rate
HIIT
High-intensity interval training using very high-intensity work and recovery intervals
HIIT intensity
Approximately 90–100% maximum heart rate or 9–10 RPE
HIIT example
30 seconds work followed by 30 seconds rest
HIIT benefit
It does not need to last 20 minutes
chonic adaptations can occur quicker than 6 weeks
HIIT repetitions
Approximately 4–12 repetitions
HIIT work and rest duration
Approximately 30 seconds to 4 minutes
HIIT work-to-rest ratio
Usually 1:1 or 2:1
Fartlek intensitys
moderate- 70–75% maximum heart rate
high- 80-85%MHR
Circuit training
Training involving a series of exercises completed at different stations
Circuit training fitness component
Depends on the exercises and training variables selected
Circuit training advantage
Can improve motivation because it can be completed in large groups
can train multiple fitness comppnents in one session
easy to do in larger groups
Strength training intensity
80–100% 1RM
Strength training repetitions
1–6 repetitions
Strength training tempo
Slow
Strength training rest
2–3 minutes
Power training intensity
30–70% 1RM
Power training repetitions
3–10 repetitions
Power training tempo
Fast
Power training rest
2–3 minutes
Endurance training intensity
40–60% 1RM
Endurance training repetitions
15–25 repetitions
Endurance training tempo
Moderate
Endurance training rest
Approximately 1 minute
Static stretching
Stretching where the muscle is held in a lengthened position and is generally used during a cool-down
Dynamic stretching
Controlled movement through a range of motion and is generally used during a warm-up
PNF stretching
Proprioceptive neuromuscular facilitation stretching which is highly effective for improving flexibility
PNF method
Approximately 6–7 RPE with 10 seconds static stretch 10 seconds isometric contraction and 10 seconds static stretch