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Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

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Page 1: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy
Page 2: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training for Performance

Page 3: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training Principles

• Overload– Increased capacity in response to training overload

• Specificity– Specific muscle involved

– Energy systems that provide ATP

• Reversibility– When training is stopped, the training effect is quickly

lost

Page 4: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Influence of Gender, Initial Fitness Level, and Genetics

• Men and women respond similarly to training programs

• Training improvement is always greater in individuals with lower initial fitness

• Genetics plays an important role in how an individual responds to training

Page 5: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Components of a Workout Session

• Warm-up– Increases cardiac output, blood flow to skeletal

muscle, and muscle temperature– Believed to reduce risk of injury

• Workout• Cool-down

– Return blood “pooled” in muscles to central circulation

Page 6: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training to Improve Aerobic Power

• Three methods– Interval training– Long, slow distance– High-intensity, continuous exercise

• Intensity appears to be the most important factor in improving VO2max

Page 7: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Interval Training

• Repeated exercise bouts – Separated by rest periods

• Work interval– Intensity: 85-100% HRmax

– Should last longer than 60 seconds to improve VO2max

• Rest interval– Light activity such as walking

– Should be as long as the work interval

Page 8: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Long, Slow Distance

• Low-intensity exercise– 57% VO2max or 70% HRmax

• Duration greater than would be expected in competition

• Based on the idea that training improvements are based on volume of training

Page 9: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

High-Intensity, Continuous Exercise

• Appears to be the best method of increasing VO2max and lactate threshold

• High-intensity exercise– 80-90% HRmax

– At or slightly above lactate threshold

• Duration of 25-50 min– Depending on individual fitness level

Page 10: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training Intensity and Improvement in VO2max

Page 11: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Injuries in Endurance Training

• Most injuries are a result of overtraining– Short-term, high-intensity exercise– Prolonged, low-intensity exercise

• The “ten percent rule” for safely increasing training load– Intensity or duration should not be increased by

more than 10% per week

Page 12: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training for Improved Anaerobic Power

• ATP-PC system– Short (5-10 seconds), high-intensity work

intervals– 30-60 second rest intervals

• Glycolytic system– Short (20-60 seconds), high-intensity work

intervals

Page 13: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training to Improve Muscular Strength

• Strength-training exercises– Isometric or static– Dynamic or isotonic

• Includes variable resistance exercise

– Isokinetic

• Increase in muscle size– Due to hypertrophy ( fiber diameter)– Due to hyperplasia? ( fiber number)

Page 14: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Progressive Resistance Exercise

• Improvements in strength via progressive overload– Periodically increasing resistance (weight

lifted) to continue to overload the muscle

• Basis for most weight-training programs

Page 15: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Principles of Strength Training

• Muscles must be exercised near peak tension for increases in strength

• There is no “optimum” training program– 3-4 days per week with rest days in between is

recommended

• Strength training should involve the same muscles as competition– Movement pattern, speed of shortening

Page 16: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Free Weights vs. Machines

• Strength gains are similar following training using free weights and machines

• Argument for free weights:– Data exist showing that free weights produce

greater strength gains– Free weights produce greater movement

variability and specificity– Free weights force control of balance and

stabilization

Page 17: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Combining Strength and Endurance Training

• Combined strength and endurance training may result in lower gains in strength than strength training alone

• Recommended that strength and endurance training be performed on alternate days for optimal strength gains

Page 18: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Gender Differences in Response to Strength Training

• Untrained males have greater absolute strength than untrained females– Strength related to cross-sectional area of

muscle

• There does not appear to be a gender differences in response to strength training

Page 19: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Strength as a Function of Muscle Cross-Sectional Area

Page 20: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training-Induced Strength Changes in Men and Women

Page 21: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Muscle Soreness

• Delayed onset muscle soreness (DOMS)– Appears 24-48 hours

after strenuous exercise

– Due to microscopic tears in muscle fibers resulting in inflammatory response

Page 22: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Training for Improved Flexibility

• Static stretching– Continuously holding a stretch position

– Preferred technique• Less chance of injury or soreness

• Less muscle spindle activity

– Proprioceptive neuromuscular facilitation (PNF)• Isometric contraction of muscle being stretched

• Dynamic stretching– Ballistic stretching movements

Page 23: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Year-Round Conditioning for Athletes

• Off-season conditioning– Prevent excessive weight (fat) gain– Maintain muscular strength or endurance – Maintain bone and ligament strength– Maintain skill level

• Preseason conditioning– Increase to maximum the energy systems used in

particular sport

• In-season conditioning– Maintenance of fitness level

Page 24: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Year-Round Conditioning for Athletes

Page 25: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Common Training Mistakes

• Overtraining

• Undertraining

• Performing non-specific exercises

• Failure to schedule a long-term training plan

• Failure to taper before a performance

Page 26: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Symptoms of Overtraining

Page 27: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy

Tapering

• Short-term reduction in training load prior to competition

• Allows muscles to resynthesize glycogen and heal from training-induced damage

• Improves performance in both strength and endurance events

Page 28: Training for Performance Training Principles Overload –Increased capacity in response to training overload Specificity –Specific muscle involved –Energy