BTEC L EVEL 2 S PORT U NIT 4 – T HE S PORTS P ERFORMER I N A CTION Aerobic and Anaerobic Energy Systems D Nicholls.

Slides:



Advertisements
Similar presentations
Energy Systems ©Subject Support
Advertisements

Energy systems.
Project 2 Topic 2 Chronic Adaptations to Training.
Respiration 1 Respiration.
Short and long term effects of exercise
ENERGY SYSTEMS OR PATHWAYS
Energy Systems Here we go again.
Sprinting is based on muscle strength Long distance running requires endurance Strength is the ability to do something that uses a lot of energy for a.
Energy in the human body come from the breakdown of nutrients like carbohydrates, proteins and fats Food = Energy (ATP) The end result of this breakdown.
Background info… muscular contractions other functions digestion of foodscirculationrepairing tissues  The body needs a steady supply of energy to produce.
Physical Activity as part of your healthy active lifestyle
In order to participate in activity we are required to move. How does this movement occur? This movement is the result of muscle contractions. For these.
INTERPLAY OF ENERGY SYSTEMS
Long term effects of training.
Aerobic and Anaerobic Energy Systems
As soon as you begin to exercise your muscle cells increase their demands for oxygen (O 2 ). As exercise continues there is also an increased need to remove.
Chapter 5 1 Energy for Muscular Activity. Where do we get Energy for our working muscles?
G.C.S.E PHYSICAL EDUCATION
Energy Production for Activity
ATP of Skeletal Muscles
Energy Systems Aerobic System.
Respiration 1 Respiration.
KEY KNOWLEDGEKEY SKILLS  The characteristics of the two anaerobic (without oxygen) and aerobic (with oxygen) energy pathways.  The energy pathways used.
GCSE PE Respiratory System.
Anaerobic Power & Capacity Anaerobic Training
Physiology of Fitness Energy systems and their role in sport and exercise.
Energy Systems Lesson 5.1. Where do we get Energy for our working muscles?
ENERGY SYSTEMS YEAR 13 Physical Education. By the end of today you will Be able to:  Understand and explain how ATP is used to create energy  Explain.
ENERGY SYSTEMS OR PATHWAYS. EATING FOR ENERGY Energy for Exercise  The food is broken down into soluble chemicals (e.g. glucose) by digestion in the.
Energy Systems. Muscles require energy to work The energy required by muscles comes from a chemical compound called adenosine triophosphate (ATP) ATP.
Energy Systems and Muscle Fibre Types. In groups of 2 answer the following… Why do we eat? Why do we eat? Answer- Nutrients and Energy needed for daily.
Energy systems Learning outcomes:
Energy Systems 3 Systems 3 groups of energy nutrients Muscle fibre types.
Energy Systems and Muscle Fibre Types. Three Key Energy Nutrients The food that we eat is broken down into three nutrients during digestion: Protein Fats.
Aerobic & Anaerobic Metabolism in Muscles. Objectives Recognize the importance of ATP as energy source in skeletal muscle. Understand how skeletal muscles.
INTRO TO ENERGY SYSTEMS. 4 MAJOR STEPS TO PRODUCE ENERGY STEP 1 – Breakdown a fuel STEP 2 – Produce ATP via energy systems STEP 3 - Breakdown ATP to release.
Energy Systems. Fuel for Muscle Contraction Carbohydrates, fats and protein are broken down to form an energy rich molecule called Adenosine Triphosphate.
The human body is made to move in many ways Quick and powerful Graceful & coordinated Sustained for many hours Quick movements-lasts a few seconds Reduced.
* How the body uses nutrients, fat, carbohydrates, and proteins, to supply the body with the needed energy to perform. * Nutrients are converted to energy.
Energy systems in muscle cells.. During strenuous muscle activity the cell rapidly breaks down its reserves of ATP to release energy. Muscle cells have.
A summary of the energy systems and how they relate to sport and training – Year 10 HPE © Cengage Learning Australia 2011.
Energy Systems All movement requires energy. The methods by which the body generates energy are determined by the intensity and duration of the activity.
Food is eaten and  converted to fuel/waste  fuel is transported in the blood and can be used direct from the blood (glucose, free fatty acids) or stored.
Sources of Energy for Exercise Kevin Browne The human body is made to move in many ways: Quick and powerful Graceful & coordinated Sustained for many.
Respiration is not breathing! Respiration is a chemical reaction that creates energy at the working muscles making use of the oxygen. (mixing it with glucose)
Exercise Physiology APL2/L3. Exercise: What do you use/how does it happen?  1. When you exercise or exert yourself, where does the energy come from?
I am the start You are the process used to get air into the body I am breathing You are the cavities used to get air into the body I am the mouth and nose.
Unit 1 – Anatomy & Physiology
Year 11Achievement Standard 1.2. The Respiratory System The lungs, mouth, throat and nose make up the respiratory system One of the major functions of.
ENERGY SYSTEMS What is ATP? ATP is a chemical compound responsible for producing energy for work. ATP = adenosine triphosphate ATPADP P ENERGY.
ENERGY SYSTEM INTERPLAY. Aerobic Provides energy for long duration events. Uses oxygen and glycogen. Efficient producer of energy.
PHYSIOLOGY. FUNCTIONING OF THE HEART Blood is pumped around the body from the heart via the aorta. The blood is pumped out under pressure and this varies.
 You are going to take notes on the following principles of training.  YOU will decide what is important and what is not.
Chapter 5 Foods, fuels and energy systems VCE Physical Education - Unit 3 Text Sources 1.Nelson Physical Education VCE Units 3&4: 5 th Edition – Malpeli,
Energy Systems for Exercise. The human body is made to move in many ways: Quick and powerful Graceful & coordinated Sustained for many hours And is dependent.
Exercise Physiology APL2/L3. Our Body’s “gasoline”  Adenosine Triphosphate  Energy storing molecule  “usable energy”
Exercise physiology.
The triathlon is an athletic event that involves performers undertaking a long distance swim, immediately followed by a cycle race and then finally a run.
Exercise and the respiratory system
Unit 1:principles of Anatomy and Physiology
Muscle Metabolism.
The Respiratory System
Energy systems Year 9 Active health.
What is ATP? ATP is a chemical compound responsible for producing energy for work, which is provided by our diet. When ATP is broken down, energy is released.
Factors Affecting Performance
EXERCISE: The Effect On The Body
Energy systems and their role in sport and exercise
Energy Systems for Exercise
Presentation transcript:

BTEC L EVEL 2 S PORT U NIT 4 – T HE S PORTS P ERFORMER I N A CTION Aerobic and Anaerobic Energy Systems D Nicholls

O BJECTIVES To identify what we mean by the aerobic and the anaerobic energy systems. To consider specific sports that use each system.

IMPORTANT All tasks on this PPT should be completed on your website unless otherwise stated. Make sure you put appropriate information on appropriate pages as and where required – this means you may have to create more pages!

T ASK 1: K EY T ERMS First off – some definitions! You need to demonstrate an understanding of the following terms: Alactic Acid Glycolysis Lactic Acid Creatine Phosphate

T ASK 2: W HAT IS MEANT BY … Next up – following on from our first task, EXPLAIN what is meant by: The Aerobic Energy System The Anaerobic Energy System Remember – Explain means IN YOUR OWN WORDS!

A EROBIC V S A NAEROBIC

T ASK 3: T HE E NERGY S YSTEMS IN A CTION So – now that we’ve explained what we mean by each of the key terms, you now need to find out when we use these energy systems. Task: Using YouTube, find 2 videos that demonstrate the Aerobic Energy System being used in a sport, and 2 videos that demonstrate the Anaerobic Energy System being used. Embed the videos onto your website. For each video, explain WHY they are using that energy system.

S O …A NAEROBIC …ATP-CP What this means is: Reliance on stored adenosine triphosphate (ATP) (the molecule that produces the energy in all living things), energy supplied by ATP (up to four seconds) Another stored molecule, creatine phosphate (CP) helps restore ATP CP is restored aerobically (with oxygen) Energy is supplied by ATP and CP (four to 20 seconds) When this system runs out of ATP-PC stores, glycolysis takes place.

A NAEROBIC …G LYCOLYSIS /L ACTIC A CID ATP is made from glucose stored in the liver and muscles Energy is supplied by ATP, CP and muscle glycogen (20 to 45 seconds) Energy is supplied by muscle glycogen (45 to 240 seconds) Waste product is lactic acid When this system is unable to maintain energy requirements, the aerobic system starts to produce energy Sports that use this system to provide energy are moderate to high intensity, i.e. short bursts of exercise lasting a few minutes, e.g. running 400 m, 800 m, and 1500 m distances.

S O … IF WE SUMMARISE … The anaerobic energy system relies on stored adenosine triphosphate (ATP) which is responsible for producing energy. Creatine Phosphate (CP) helps restore ATP. CP is restored AEROBICALLY The energy you use in the first 4-20 seconds is supplied through these – Glycolysis occurs when this energy is used up. ATP is made from glucose stored in both the liver and muscles, so the energy supplied by ATP, CP and muscle glycogen is responsible for seconds, then the muscle glycogen for 45 – 240 seconds. As a result, a waste product; Lactic Acid; is produced. When the body reaches the limit of the above – we shift over to Aerobic Energy.

T ASK 4: A NAEROBIC E NERGY You need to explain what we’ve just looked at IN YOUR OWN WORDS. This means you should explain it as if you were giving a talk to a class, or explaining it to a friend who doesn’t understand it. You can use diagrams to back up your information as and where required.

A EROBIC E NERGY For example during longer periods of exercise/activity; sustained energy relies on this system. Sports that mainly use this system to provide energy used for sustained activity are long- distance events such as marathon running, long-distance swimming, long-distance cycling. Energy supplied by muscle glycogen and fatty acids (240 to 600 seconds) Uses oxygen as a means of making energy (re-synthesising ATP) Low to moderate intensity (beyond 90 seconds).

S O WHAT DOES THIS MEAN ? Simply put – the following: Aerobic exercise, is submaximal exercise which gets your heart rate and breathing rate up, over a sustained period. For example, jogging, swimming, cycling. Aerobic exercise is excellent for the health of your heart and lungs.

T ASK 5: A EROBIC E XERCISE Explain what we mean by what we have just looked at – making sure you are clear about WHY we call it aerobic exercise and WHAT happens.

L ONG TERM A DAPTATIONS TO A EROBIC E XERCISE Make sure you note these down! Makes more red blood cells so more Oxygen can be transported in the blood Your arteries become wider and more elastic so that your blood pressure falls Your heart grows bigger ( hypertrophies ) and the walls become thicker so it can pump more blood with each beat. This means it doesn't have to beat so fast! More capillaries grow within your muscles so that more O2 can get there quicker Your heart rate returns to normal more quickly following exercise More capillaries also grow around the alveoli in your lungs so more O2 is taken into the blood and more CO2 is released Your diaphragm and intercostal muscles become stronger so they can make your chest cavity bigger meaning you can breathe in more air with each breathe

T ASK 6: A DAPTATIONS Explain how the body adapts to aerobic exercise over a long period of time, making sure you are specific and clear in your explanation.

T ASK 7: A HAND OUT. Your next task is to create a hand out that can be given to students who are investigating the energy systems and how they work. You should consult the help PPT on DJN’s website and summarise slides 1-10 in a hand out form. Make sure you include and EXPLAIN the graphs included. Make sure the information is in YOUR OWN WORDS. Make sure you use appropriate illustrations.

T ASK 8: C OMPARISON Now that you’ve found out all of the key information – you need to draw some comparisons between the sports that use the different energy systems. To do this, you should complete the following: DESCRIBE how the body uses the different energy systems – be VERY CLEAR! Compare how the different energy systems are used in sports with different demands: What is similar? What is different? Why is this? Make sure you use specific examples!

T ASK 9: 2 A THLETES Now then – you need to chose 2 athletes: 1 from a sport that uses the Aerobic Energy System 1 from a sport that uses the Anaerobic Energy System You should conduct some research into them, so research: Their training methods The demands of their sport A bit of history about their achievements Why their sport is Aerobic or Anaerobic You should make sure you embed video of them in action with your work by way of further evidence.