66
Using “Fatigue” Science to Reevaluate “Traditional” Training Methods Matt Gittermann University of Maryland, Baltimore County Head Cross Country Coach Assistant Track & Field Coach

Re-evaluating Traditional Training Using Contemporary Fatigue Research

Embed Size (px)

DESCRIPTION

Gittermann - Presentation Harborview

Citation preview

Page 1: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Using “Fatigue” Science to Reevaluate “Traditional” Training

Methods

Matt Gittermann

University of Maryland, Baltimore County

Head Cross Country Coach

Assistant Track & Field Coach

Page 2: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Purpose of Training

Page 3: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Goal in Endurance Training:

• Create a precise amount of damage to the body such that the body not only heals, but creates adaptations to the circulatory, muscular, nervous, skeletal, cardiovascular, digestive, excretory and endocrine systems

Page 4: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Supercompensation

• The ability of the body to not only heal damage but build to a higher level of homeostasis

Current Level of Homeostasis

Damage Causing Stimulus Body recovering to beyond original homeostasis

New Level of Homeostasis

Page 5: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Keys to Training Design:

• Causing the correct magnitude of damage (stimulus), at the correct timing, in the correct volume, in order to create a specific adaptation that allows the body to resist fatigue longer and longer at a desired pace

• Switch thinking from trying to “run faster” to “not slowing down as fast”

• How many people ever broke 60s in the 400m?

• How many people ever broke 4 in the mile?

Page 6: Re-evaluating Traditional Training Using Contemporary Fatigue Research

The Holy Trinity of Endurance Training

Page 7: Re-evaluating Traditional Training Using Contemporary Fatigue Research

“Too much lactic acid build-up”

• Traditional view of fatigue since 1907!5

• Still used plum pudding model of the atom (uncharged electrons and no nucleus, protons, or neutrons), Continents always where they currently are (No Theory of Continental Drift), the Milky Way was the only galaxy, the universe has always been here (no Big Bang Theory), Polio running rampant

• “Lactic acid does not accumulate so long as the oxygen supply remains adequate”6

• Principle: As you run faster you shift from aerobic energy production to anaerobic energy production of which a by product is lactic acid which builds up, slows you down, and makes you sore and tired the next day

• Not entirely wrong but also not entirely correct7

Page 8: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Actuality

• Lactic acid is constantly being produced

• But it is immediately broken down into lactate (used for further energy production) and hydrogen ions (H+, essentially acid)

• At rest and at exercises that predominately use aerobic energy systems (note: anaerobic systems always working) the body can recycle the lactate and H+ ions such that there is negligible build-up

• As speed and energy needs increase the body begins to rely more and more on anaerobic pathways which produce more H+ ions per energy unit (anaerobic threshold), eventually reaching a point where it cannot process/buffer H+ ions fast enough (lactic threshold)

Page 9: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Lactic Threshold Training

• Goal is to push back (both in longer duration and at higher speeds) this threshold

• The next logical train of thought is to process more oxygen in order to stay aerobic longer (VO2 Max)

Duration

Speed

Old LT

New LT

Page 10: Re-evaluating Traditional Training Using Contemporary Fatigue Research

VO2 Max

• Ability of the body to extract and process as much oxygen as possible before it leaves the body

Person A Person B

15 O2 In

2 O2 Out

15 O2 In

5 O2 Out

Who has the bigger VO2

max?

Who wins the race?

Page 11: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Dirty Secrets of VO2 Max

• Largely genetic in regards to final maximal levels

• Very trainable in less experienced athletes; maxed out in experienced athletes

• Not always a great indicator of success (Bill Rodgers had a VO2 Max 8% higher than Frank Shorter8); in fact 20-30m sprints and plyos are better predictors of potential abilities in a 10,000 meter race

• There are studies on athletes given a specific training stimulus in which their VO2 Max remained the same but they markedly improved and the opposite in which their VO2 Max improved but their performance did not

• So maybe then we need to improve how economically they run and use that oxygen

Page 12: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Running Economy

• The ability to run at a submaximal pace using less energy and/or oxygen (run the same pace with less energy or run faster using the same energy)

• Helps explains the variations in performance in VO2 Max

• Attributed to: increase in mitochondria numbers, increase in metabolic enzymes, muscular abilities to store and release elastic energy (stretch reflex), more efficient bio-mechanics (running form)9

Saunders, et al. p. 470

Page 13: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Holy Trinity of Traditional Training

• Lactic Threshold Training (very trainable)

• VO2 Max Training (initially trainable, but genetic limit to improvement)

• Running Economy Development (a lot of variables; very trainable but in small doses using a lot of different methods)

Page 14: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Where does that leave us?

• The Holy Trinity of Training is only the tip of the iceberg

Improve Running Economy

Increase VO2 MaxDelay Lactic Threshold

WHAT DO WE NEEDTO ADDRESS DOWN

HERE!!!!!!

Page 15: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Fatigue Science

Page 16: Re-evaluating Traditional Training Using Contemporary Fatigue Research

“Fatigue”

• Inability to continue running at the desired pace (though you could continue at a slower pace)

• “aerobic exercise stops at the point commonly called exhaustion because fatigued subjects are no longer able to generate the power output required by the task despite their maximal voluntary effort”14

• A feeling that your brain sends to your body that you are in need of repair and rejuvenation

• Fatigue is a continuum, not an absolute

• “Emotion?”

• “Task disengagement”

Page 17: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Models of Fatigue:

• Build up of by-products due to energy production (H+ production)

• Exercise/performance limited by the over abundance of waste products that inhibit further metabolism (energy production)1

• Depletion of fuel sources (ATP, glycogen, etc.)• Exercise/performance limited by the lack of energy sources to continue

metabolism (energy production) at the current pace1

• Central Governor Theory• Exercise/performance is regulated such that catastrophic failure does

not occur

• Peripheral Governor Theory11

• Exercise/performance is regulated at the motor units to prevent failure

• Psychobiological Model 14 & 15

• The body’s Rating of Perceived Effort will limit exercise tolerance

“Classic Peripheral

Fatigue Models”

“Cardiovascular/Anaerobic

Model”

“Catastrophe Model”

“Anticipatory Regulation

Model”2

“Anticipatory Peripheral RegulatIon

Model”

Page 18: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Traditional/Peripheral/Catastrophic Models

• The models upon which traditional training methods are built upon

• The idea that fatigue is caused by the build-up of metabolites and the depletion of energy resources

• Pace will begin to decrease as metabolites exist in higher concentration and available energy decreases

• Should result in ‘catastrophic’ failure (i.e. rigor)

Page 19: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Central Governor Theory (Tim Noakes)

• Your brain is trying to prevent you from doing harm to your body in an anticipatory way not in real time (i.e. your brain is slowing you down before you have even begun to approach exhaustion based on current mental and physical state, experience, environmental conditions duration of exercise, and feedback received during exercise)

• Your brain is constantly measuring deviations from homeostasis via information/feedback from physiological systems

• Will signal “fatigue” in increasingly incremental amounts in order to prevent catastrophic damage to the body

• Brain regulates the ability to run fast by unconsciously slowing you down by reducing the efficiency and abilities of physiological systems before you need to

• Wants to prevent you from building up by products, depleting energy resources, increasing core temperature, etc.

• Fatigue is “illusionary” or an “emotion” and therefore can be worked through or ignored3

Page 20: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Deeper into the Rabbit Hole . . .

• “The brain uses the symptoms of fatigue as key regulators to insure that the exercise is completed before harm develops.”3

• “The model predicts that attempts to understand fatigue and to explain superior human athletic performance purely on the basis of the body’s known physiological and metabolic responses to exercise must fail since sub-conscious and conscious mental decisions made by winners and losers, in both training and competition, are the ultimate determinants of both fatigue and athlete performance.”3

• “Fatigue is not a physical event but rather an emotion that is used by the brain to regulate the exercise performance”3

Page 21: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Anticipatory Feedback Loop

• A system at homeostasis experiences a stimulus that causes a change to the system

• Change is sensed by brain/control center of the system

• Brain/control center signals a response that returns system to homeostasis

• Think a thermostat in your house

• Anticipatory because the brain is trying to prevent changes to homeostasis before they occur, thus the response is happening as a prediction of the stimulus (sometimes referred to as teleoanticipatory due to taking into account mental aspects)

Versus a positive feedback loop in which a stimulus creates a response that further enhances that responses (i.e. oxytocin release during childbirth increases contractions and the release of more oxytocin)

Basic Negative Feedback

Loop

Page 22: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Evidence of Central Governor Theory

Scientific Research:

• Cyclists worked to exhaustion still able to increase power output at end of workout session of surges where power output decreased on every prior surge

• Skeletal muscle recruitment maxes out at around 60% during maximal exercise and potentially only 45% at the end of maximal effort

• Lower muscle activation/brain wave levels in heat, right from the beginning in order to prevent high core temperatures4

• Studies done when no duration or end point is provided before exercise and the resultant pacing

• Stimulation of the part of the brain responsible for homeostatic processes during exercises to failure10

• Trained athletes showing a dulling of brain activity during exercise compared against untrained athletes1

Anecdotal Evidence:

• There never is true catastrophic muscle failure at the end of maximal exercise

• The fact after the hardest workout/race you have ever run, you are still not medically dead

• Kicking at the end of a race

Page 23: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Peripheral Governor Theory11

• “In central governor model theory, it has been proposed that a central governor regulates pacing strategy and limits the muscular performance of elite athletes . . There is no consideration in this theory for the traditional concept of peripheral muscle fatigue, the possibility that muscles can diminish their contractile capability.”

• Peripheral Governor – a more localized control system that regulates the use of muscle fiber units

• In contrast to traditional fatigue models by associating that there is an anticipatory response rather than simple build-up or depletion

Page 24: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Evidence of Peripheral Governor Fatigue11

• Data from a Bicep flexing test showed fatigue starting before target failure was reached, (i.e. before homeostasis disturbed)

• Used an electric stimulation to take the central governor out of the equation

• Max force decreased starting with the second rep• Thus there is a regulation (distribution) or ATP use at a cellular level

• Studies of individual muscle groups in rats being electrically stimulated, settled into a fairly consistent force after the initial force, implying a regulation that allows sustainment of activity without feedback with the central nervous system

Page 25: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Psychobiological Model

• Current mental status will effect the rating of perceived exertion, thus how much fatigue one feels during exercise

• “propose that exhaustion is a form of task disengagement, not task failure, determined by perception of effort and potential motivation as postulated by the psychobiological model of exercise tolerance. In order words subjects consciously decide to “give up” (i.e. disengage from the task) when the effort required by intense aerobic exercise is perceived to be maximal or exceeding the maximal effort they are willing to exert in order to succeed in the task (potential motivation)”

• Different from Central Governor Theory because it implies a conscious brain

Page 26: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Using Principles of Fatigue Science, Specificity, and

Individualization to Design Training

Page 27: Re-evaluating Traditional Training Using Contemporary Fatigue Research

New Goals in Training:

• Identify the potential “causes” of fatigue and use that knowledge to create a training plan that specifically targets specific adaptations in a specific individual in order prevent physiological feedback of ‘fatigue’

• Develop training that ignores and dulls the ‘fatigue emotion’

• Develop mental training practices to reduce mental fatigue and decrease RPE

Traditional Training Methods (LT, VO2 Max, Running Economy)

Targeting Specific Adaptations and Fatigue Systems

Targeting Specific Parts of Races and

Strategies

Targeting Specific Physiology of an Individual Runner

HIGHER LEVELS OF

PERFORMANCE

Targeting the Central

Governor

GENERAL

SPECIFIC

Addressing the Psychobiologic

al

Page 28: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Specificity of Training Based on the Individual and Fatigue

Feedback of their Event

Page 29: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Contributions to “Fatigue” Feedback

Internal Variables

• Acidosis (Drop in blood pH)

• Hypoxia (Lack of oxygen)

• Concentration of carbon dioxide in blood

• Loss of Substrate for Energy Production

• Hyperthermia (Rise in Core Temperature)

• Inadequate ATP formation

• Inhibition of Enzyme Activity due to Acidosis

• Impairment of Neural Signaling Pathways

• Lack of ATP to release Myosin and Actin coupling

• Lack of buffers thus preventing Myosin and Actin coupling

• Mental Status (emotionally, psyche)1

External Variables1

• Paces/Splits

• Visual Feedback

• Competitors

• Auditory Feedback and Encouragement

Environmental Variables

• Temperature

• Altitude

• Dew Point/Humidity

• Surface/Grade of Surface

Page 30: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Body Response to “Fatigue” Feedback

• Reducing of muscle recruitment which leads to reductions in force and speed of muscle contractions

• Decrease of motivation via hormones (tryptophan, serotonin, etc.), thus “beware of the runner’s high”10

• Body’s natural ability to set/change a pace based on a set duration, current mental and emotional status, and incoming feedback

• Anticipatory regulation of pacing due to heat

• Regulation of ATP use

Page 31: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Physiological Adaptations We Can Target with Training:

• Decrease in lactate/H+ production (increase LT)

• Increase processing abilities of lactate and H+ ions (increase LT)

• Increase amount and abilities of buffers

• Increase ability to absorb oxygen into bloodstream

• Increase in Red Blood Cells

• Increase in Blood Volume (RBC’s and Plasma)

• Decrease in Blood Viscosity

• Increase Stroke Volume and Frequency of heart (cardiac output)

• Increase in the number of capillaries

• Refinement of ST/FT muscle distribution

• Increases in metabolism and catabolism

• Increase muscle recruitment

• Improvement in neural pathways

• Shift from brain based (thinking) to spine based (reflexive) movements

• Increase enzyme production

• Increase hormone production

• Increase blood shunting abilities (moving blood to legs)

• Increase myoglobin (similar to hemoglobin)

• Increase the abilities or efficiency of the Glucose Alanine Cycle and the Cori Cycle (transports alanine and lactate to the liver in order to create glucose)

• Increase in the number/volume of mitochondria

• Increase in glycogen and fat storing in muscles

Page 32: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Adaptation Needed Stimulus Needed

Running Economy (General) Speed Endurance, lifting, sprinting, plyos, altitude and heat training

Cardiac Output >90% VO2 Max effort workouts (>50% in untrained individuals)

Increase # of Mitochondrial, Capillaries, Enzymes Long Runs

Increase Fat Use for Energy and Storage Capacity Long, long runs at <60% VO2 Max

Neuromuscular Patterns Long Runs

Neuromuscular Fatigue and Motor Unit Recruitment Sprints, hill sprints, heavy weight lifting (low rep), plyos

Lactate production and cycling, shuttling, buffer production Lactic Threshold work

Increase plasma volume, reducing blood viscosity, and RBC production thus improving oxygen delivery

Regular, intense training (either high VO2 Max percentages or high volume), altitude training

Reduce Neuromuscular Fatigue Lots of short sprints (flys, 15x100m, strides for ST runners)

Increase Carbohydrate Use for Energy +70% VO2 Max

Increase in Muscle Glycogen Levels Long term (months & years, not mins) endurance training

Increase in Maximum level of VO2 Max and Mitochondrial Energy Production

Get in DeLorean, get up to 88 miles per hour, convince your dad to go out with the fastest girl on XC team rather than your current mom (no offense, she’s a

great lady)

Page 33: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Application of Adaptations and Fatigue Models

• If we think we have discovered what causes fatigue, then we should target adaptations that would slow feedback

• We should also target specific adaptations for specific races run by specific people

• These specific adaptations are going to occur at paces around given race pace, overlapping each other and blending as the speed is increased and decreased from the goal pace

Page 34: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Framing Your Training

Page 35: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Training Continuum

Time0-7s 90sEnerg

y S

yst

em

U

se

Page 36: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Frame the Energy Continuum of the Event:800m Example

Function Training Range

Page 37: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Frame the Energy Continuum of the Event:1500m/1600m/Mile Example

Function Training Range

Page 38: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Frame the Energy Continuum of the Event:3,000m Example

Function Training Range

Page 39: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Frame the Energy Continuum of the Event:5,000m Example

Function Training Range

Page 40: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Frame the Energy Continuum of the Event:10,000m Example

Function Training Range

Page 41: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Emphasis within the Frame

• All paces/thresholds within the frame should be worked on throughout the year; however their emphasis should change

• Models of Frame Training:• Slow to fast• Outside In • Increasing Duration at Goal Pace• Increasing Percentages at Goal Pace

Page 42: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Slow to Fast Emphasis

• As the training progression, each macrocycle shifts the emphasis of the frame from slower zones/paces to faster paces/frames

• Gen. Prep: 10mi. AT & 4 mi. Tempo w/ strides

• Spec. Prep: 5x1 mile @ LT & 8x1km @ 10k DP w/ strides

• Pre-Comp: 5x800m @ 5k DP & 12x400m @ 3k DP

• Comp: 12x200m @ 1500m DP & 4x400m @ 3k DP, 2x400m @ 1500m DP, 1x400m @ 800m DP

• 5,000m Main Race

AT LT 10k 5k 3k 1500 800

High

LowEm

ph

asi

sGen. Prep

Spec. Prep

Pre-Comp

Comp

Page 43: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Slow to Fast Emphasis – Multi-Tier

• Multi Tiered Training is hitting 3-6 paces over the course of usually two weeks. Slide the frame down as you progress through your macrocycles

• Gen. Prep: Week 1 – AT, LT, 10kWeek 2 – 5k, 3k

• Spec. Prep: Week 1 – LT, 10k, 5k Week 2 – 3k, 1500m

• Pre-Comp: Week 1 – 10k, 5k, 3k Week 2 – 1500m, 800m

• Comp: Week 1 – 5k, 3k, 1500mWeek 2 – 5k, 800m

• 5,000m Main Race

AT LT 10k 5k 3k 1500 800

High

LowEm

ph

asi

sGen. Prep

Spec. Prep

Pre-Comp

Comp

Page 44: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Outside-In Emphasis

• As the training progresses, each macrocycle shifts the emphasis of the frame from the zones/paces furthest from race of emphasis to race goal pace

• Gen. Prep.: 10mi. AT & 100m strides @ 800m DP

• Spec. Prep: 5x1mi. @ LT & 200m intervals @ 1500m DP

• Pre-Comp: 8x1km @ 10k DP & 400m @ 3k DP

• Comp: 5x800m @ 5k GP

• 5,000m Main RaceAT LT 10k 5k 3k 1500 800

High

LowEm

ph

asi

s

Gen. Prep

Spec. Prep

Pre-Comp

Comp

Page 45: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Outside-In Emphasis – Multi-Tier

AT LT 10k 5k 3k 1500 800

High

LowEm

ph

asi

s

Gen. Prep

Spec. Prep

Pre-Comp

Comp

• Multi Tiered Training is hitting 3-6 paces over the course of usually two weeks. Shrink or focus your frame as you progress through your macrocycles toward the goal race pace

• Gen. Prep: Week 1 – AT, LT, 10kWeek 2 – 1500m, 800m

• Spec. Prep: Week 1 – LT, 10k, 5k Week 2 – 3k, 1500m

• Pre-Comp: Week 1 – 10k, 5k, 3k Week 2 – 10k, 3k

• Comp: Week 1 – 5k, 10k, 5kWeek 2 – 3k, 5k

• 5,000m Main Race

Page 46: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Increasing Duration at GP

• As the training progression, in each macrocycle the duration or length of rep at the goal race pace is increased

• Gen. Prep: 20x200m @ 5k GP• Spec. Prep: 10x400m @ 5k GP• Pre-Comp: 5x800m @ 5k GP• Comp.: 4x1000m @ 5k GP

• 5,000m Main Race

Gen Prep Spec Prep Pre-Comp Comp

High

LowD

ura

tion/L

ength

of

Inte

rval

Page 47: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Increasing Percentage of GP

• As the training progression, in each macrocycle the percentage of goal race pace is increased

• Gen. Prep: 5x1000m @ 85% 5k GP

• Spec. Prep: 5x1000m @ 90% 5k GP

• Pre-Comp: 5x1000m @ 95% 5k GP

• Comp.: 3-4x1000m @ 5k GP

• 5,000m Main RaceGen Prep Spec Prep Pre-Comp Comp

100%

0%Pe

rcen

tage o

f R

ace

Pa

ce

Page 48: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Slow Twitch vs. Fast Twitch Distribution Considerations

• Each athlete has a genetic distribution of slow twitch and a variety of fast twitch muscles and thus will ‘fatigue’ in a different fashion

• With enough time (think in the range of 5-10 years) or near catastrophic damage (probably not a good idea) you can change the make up of some of the distribution of muscle types1

• When planning your training, devise training that trains their strengths not their weaknesses

• Ex: a miler with high density of fast twitch muscles - by focusing solely on LT, AT, MP runs, you will get some improvement in those areas, but at a larger cost in their areas of strength (speed, anaerobic energy systems)

Anaerobic Abilities

Aerobic Abilities

Total Abilities

More Anaerobically FocusedMore Aerobically Focused

Page 49: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Practical Implications of ST/FT Distribution

• Need to plan workouts based on the relative distribution of your team’s individuals

• Potential ST/FT groupings at the high school level: • 400m/800m (not good at cross, long runs, LT stuff)• 1600m/800m FT (probably use on 4x4 as third leg)• 1600m/800m ST (runs 4x8 but probably not the 4x4)• 1600m ST/3200m FT (probably runs 4x8, but splits 2:00 60s/60s)• 3200m ST (400m PR is also mile DP; leaves you wishing there was a

10k/marathon at the high school level)

• As much as you can do while being practical due to numbers and organization, each group should train slightly different in regards to their training frame

More anaerobic

More aerobic

Page 50: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Practical Implications of ST/FT Distribution

Collegiate Level Groups at UMBC• Sub A’s: 400m/800m (do not run cross at all, less long runs, more workouts, train more similar to 400m runners than

milers, LT stuff only in fall; volume range: 25-45 miles) – Speed Training Group during XC

• A Group: 800m specialists (run cross as training only, handle more volume, moderately successful at mile, more long runs than Sub A’s, but more workouts than B Group, volume range: 30-70 miles) – Mids Training Group during XC

• B Group: 1500m/800m (can do LT, sometimes successfully, run cross sometimes with success and despite training, volume closer to higher groups, but more workouts than C and D groups, volume range: 40-90 miles ) – Men Mids Training Group during XC; Women Traditional XC Training Group during XC

• C Group: 1500m/3000m/5000m (big contributors in cross; can handle high volumes and decent amount of speed work, ideally steeplers come from this group, volume range: 50-90 miles) – Traditional XC Training Group during XC

• D Group: 5000m/10,000m (big contributors in cross; borderline worthless in indoor as 5,000m is bottom of range, lots of volume in both long runs and workouts, get sore very easily with speed work, volume range: 60-110 miles) – Traditional Training Group during XC

• 400m Hurdlers: oddities; female runs xc workouts with women in fall and races, trains B group during indoor aiming for 1,000m, drops to modified Sub A group (add hurdle workouts) in outdoors; male runs with mids group in fall, runs shorter 5k XC races for workouts, trains A group during indoor running 4x400m,800m, 1000m, trains modified Sub A group in spring

Page 51: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Date 16-Mar 17-Mar 18-Mar 19-Mar 20-Mar 21-Mar 22-Mar

Warm-Up

WO: 15 min / 2 laps tempo / 2 laps Ins & Outs

400mH: 800m jog, static stretch

Steeplers: 7 min jog/Hip Exercises/3 min/ 7 min barriers

Recovery Run: 800m jog, static stretch

400mH: 7 min jog/Hip Exercises/3 min/ 7 min barriers

Sub A: 15min/2 laps tempo/2 laps in and outs

Recovery Run: 800m jog, static stretch

400mH: 7 min jog/Hip Exercises/3 min/ 7 min barriers

WO: 15 min / 2 laps tempo / 2 laps Ins & Outs

400mH: 800m jog, static stretch

Steeplers: 7 min jog/Hip Exercises/3 min/ 7 min barriers

Recovery Run: 800m jog, static stretch

400mH: 7 min jog/Hip Exercises/3 min/ 7 min barriers

Sub A: 15min/2 laps tempo/2 laps in and outs

Recovery Run: 800m jog, static stretch

400mH: 7 min jog/Hip Exercises/3 min/ 7 min barriers

WO: 15 min / 2 laps tempo / 2 laps Ins & Outs

400mH: 800m jog, static stretch

Steeplers: 7 min jog/Hip Exercises/3 min/ 7 min barriers

StretchWO: Dynamic

Non-WO: StaticWO: Dynamic

Non-WO: StaticWO: Dynamic

Non-WO: StaticWO: Dynamic

Non-WO: StaticWO: Dynamic

Non-WO: StaticWO: Dynamic

Non-WO: StaticWO: Dynamic

Non-WO: Static

Sprint Drills X - WO only X - WO Only X - WO Only X - WO Only X - WO Only X - WO Only X - WO Only

StrengthWO: Hurdles

Non-WO: Duck WalksWO: Hurdles

Non-WO: Duck WalksWO: Hurdles

Non-WO: Hip MobilityWO: Hurdles

Non-WO: Duck WalksWO: Hurdles

Non-WO: Duck WalksWO: Hurdles

Non-WO: Hip MobilityWO: Hurdles

Non-WO: Duck Walks

Low er Leg Non-WO only Non-WO Only Non-WO Only Non-WO Only Non-WO Only Non-WO Only Non-WO Only

A: 800m15x100m

Pace: 200m DPRest: Walk Back

B: 800/1500

1000m @ 5k GPGp5/4/3: 8Gp2/1: 6

Rest: 400m jog*last 3k DP

C: 1500/5k

Miles @ 10k DPGp5/4/3: 5Gp3/2: 4Rest: 90s

*last one 3k DP

2k's @ 10k DP/ 400's @ 1500m DP

Gp5/4/3: 4x2k/4x400 Gp2/1: 3x2k/4x400

Rest: 2 mins

D: 5k/10k

AT Progression:Gp5/4/3: 8 miles AT 2 miles on

track timed; pace fastGp2/1: 6 miles AT, 2 miles on

track timed, pace fast

AT & 800m @ 3k DP:Gp5/4/3: 8 miles AT, 10 min rest, 4x800m @ 3k DP = time

restGp2/1: 6 miles AT, 10 min rest, 3x800m @ 3k DP = time rest

400mHSteeplers

400mH:Gp5: 91 minsGp4: 84 minsGp3: 77 minsGp2: 64 minsGp1: 56 mins

Steeplers:See Event Group

400H: 5x5 Hurdles at 23.9/26.5Rest: Walk around track

5x150m @ 18/21Rest: Walk back

Steeplers:See Volume Group

400H: 1st Hurdles/Open/Last 3

HurdlesReps: 4

Rest: Full RecoveryPace: 56/65

Steeplers:See Volume Group

400H:Gp5: 24/60Gp4: 21/42Gp3: 21/35Gp2: 21/35

Gp1: 3-6 miles

Steeplers:See above, 1k's over barriers

400m H:Shuffled Hurdles

8x200m, last 5 hurdlesFrom jog in

Hurdle distances shuffled each rep

Pace: FastRest: 130bpm/2mins

Steeple:See Event Group

400H: 8x 3 Hurdles in 15.1/16.5

Rest: Full Recovery6x100m @ 12/13 & 14/15

Steeplers:See Volume Group

400H:Split Run:

Gp5: 31/60Gp4: 30/54Gp3: 30/40Gp2: 21/42Gp1: 21/35

Steeplers:See Event Group

Core Drills Ab Ripper X Static Dynamic Ab Ripper X Static Dynamic Ab Ripper X

Lift x x - 400H X - ABCD X

Gp5: 91 minsGp4: 84 minsGp3: 77 minsGp2: 64 minsGp1: 56 mins

Strides

Sub A: 6x600m @ fast and smooth

Split Run:Gp5: 24/60Gp4: 21/42Gp3: 21/35Gp2: 21/35

Gp1: 3-6 miles single run

Strides

Gp5: 91 minsGp4: 84 minsGp3: 77 minsGp2: 64 minsGp1: 56 mins

Strides

Sub A: 8x1 min fartlek

Split Run:Gp5: 31/60Gp4: 30/54Gp3: 30/40Gp2: 21/42Gp1: 21/35

Strides

6x200m:Pace: 400m DP

Rest: Full

3k @ 10k DP2k @ 5k DP

1K's @ 3k dPGp5/4/3: 1x/1x/3xGp2/1: 1x/1x/1xRest: 400m jog

4x400mPace: 800m DP

Rest: Full Recovery

Page 52: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Focusing on ST/FT Distribution within a Single Event and its Effect on a Training Frame

Function Training Range of FT 800m

Function Training Range of ST

800m

Function Training Range of ST

3200m

Function Training Range of FT

3200m

Page 53: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Targeting Racing Specific Fatigue Adaptations:

• Develop workouts that target a specific strategy in order to make the body adapt to that situation.

• Example 1 - Kicking:• Ending every workout and long run with a pick-up (5x1000m @ LT,

2x1000m @ 5k GP, 200m jog, 600m fast or at desired pace)• Kicking workouts, put the athlete in debt then have them kick

(8x500m kicks w/ 400m @ Mile GP, 100m kick)• Strong pace up a long, gradual hill then sprint once you reach top• Designing multi-pace workouts such that they progress from fast to

slow (4x400m @ 3k DP, 2x400m @ 1500m DP, 2x200m @ 800m DP, 1x200m @ 400m DP)

Page 54: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Targeting Racing Specific Fatigue Adaptations:

• Example Two – Running Goal Pace in a Depleted State

• Use a supramaximal pace in training frame to put athlete in a depleted state, then attempt race pace intervals

• 10k Runner – 4x800m @ 3k DP (400m jog rest), 2x1000m @ 5k DP (400m jog rest), 2-4x800m @ 10k DP, (200m jog rest)

• Miler Peaking Workout – 4x400m @ GP, 15s rest• 400mH Workout – 4x 1st 4 hurdles at GP, 6-8 steep hill repeats, 4x

last 4 hurdles at GP• Marathon Workout – “Starvation Runs”, wake up, drink water, do a

long run

Page 55: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Andrew Smith NCAA Championship Prep

• We determined that it was taking around 27 second last 200m to advance to and at the NCAA Championships:

• Specific Workout #1: Progressive 600m’s – 1st 200m @ 33s, 2nd 200m @ 30s, 3rd 200m @ 27s; as conditioning improved during outdoor progression shifted to 31s/29s/27s

• Specific Workout #2: GP Range 150m’s – Run 150m with 50m steady run rest within 18.75s to 20.25s (GP range 1st lap to 4th lap) until he failed to meet 20.25s twice in a row then attempt a 200m at 27s

Page 56: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Central Governor Training Workout #1:The Value of a “Spiritual” Workout

• “Everyone has a plan until they get punched in the face” – Mike Tyson

• Workouts that really have no other goal but just to be hard

• Noakes quote revisited: “sub-conscious and conscious mental decisions made by winners and losers, in both training and competition, are the ultimate determinants of both fatigue and athlete performance.”

• “Callouses” the body with regards to discomfort, leads to better mental toughness in races

• Can not be done too often as it taxes the body and can be overdone really easily

• Gives athletes confidence that race days are the easy days

• Ex: 4x400m; Men @ 49-54s, Women @ 59-64s, Rest: 5-7 mins

Page 57: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Central Governor Training Workout #2:Take Away the Anticipatory Response

• Whistle Fartleks – no given duration for surges nor runner decided, in a big field or open area, coach blows whistle to begin and end surges

• Athlete Led Fartlek – team takes turns leading group at a pace and duration determined by leader

• Open Workouts – do not tell the athletes how many repeats/intervals they are running

Page 58: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Central Governor Training Workout #3:Hammer Intervals

• Base Workout: 8x400m @ 3200m GP, rest: 100m jog

• On the 6th or 7th interval let the athletes “hammer” or go all out

• Keep same recovery and have them hit GP on the remaining intervals

Page 59: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Brain Training Mental Prep:

• Don’t candy coat the racing process, have them understand that as the process continues, their Rating of Perceived Exertion (RPE), i.e. pain, is going to increase the whole time even if they don’t increase pace

• Teach them about Central Governor Theory to give them confidence in the later parts of the race, such that they know if they can get to the kick they still have the physiological capabilities no matter how tired

RPE

Comfort

Pain

Even Pace

Page 60: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Psychobiological Model Training

• Review: Strong correlation between mental fatigue and rating of perceived exertion

• Track the moods of athletes (Borg Scale) prior to workouts and races using simple survey

• Track the resultant RPE after the workouts and races and see if there is correlation

• Incorporate mental rehearsal training and other modes of sports psychology into program

• Periodization of Mental Training (by season and within week)

Page 61: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Develop Self Talk Initiatives:

• Positive self-talk – using mantra/phrases, mental rehearsal/imagery, goal affirmations on a daily basis both during and outside of workouts

• Marcora and Staiano found that a group of endurance athletes who went through a structured self-talk program showed lower RPE’s in the final tests and thus higher performances15

• “exercise tolerance in highly motivated subjects is ultimately limited by perception of effort”14

Page 62: Re-evaluating Traditional Training Using Contemporary Fatigue Research

An Integrated/Redundant Fatigue Model

Page 63: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Conclusions: Items to be Addressed in Training Design

• Give homage to the Holy Trinity of Training but do not make it the only part of your training and be a slave to zones and percentages

• Train your athletes specifically to the energy demands and ‘fatigue’ feedback of their specific event by framing their training

• Determine the relative ST/FT make-up of your athletes and frame their training around both their event and muscle type distribution

• Play to their strengths not weaknesses of athletes• Plan workouts that address specific strategies, goals,

and weaknesses within a race in order to build ‘familiarity’

• Train the brain to ignore ‘fatigue’ and use self-talk to lower RPE

Traditional Training Methods (LT, VO2 Max, Running Economy)

Targeting Specific Adaptations and Fatigue Systems

Targeting Specific Parts of Races and Strategies

Targeting Specific

Physiology of an Individual

Runner

HIGHER LEVELS OF

PERFORMANCE

Targeting the Central

Governor

Page 64: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Lactic Threshold Training

VO2 Max Training Running Economy Peripheral Fatigue

Central Governor Theory

Training Frames

ST/FT Muscle Fatigue Considerations

Training Race Specific Fatigue Adaptations

Race Strategy Specific Fatigue Training

Mental Prep

Short Term Goal

Planning

Nutrition

Individualization

Long Term Athlete

Development

Ancillary Training

Cross Training

Periodization

Strength TrainingRunning Form

Rehabilitation Recovery

Injury History

Plyos

Hill Training

Tapering Team Culture and Cohesion

Individual Athlete’s Mental

Make-Up

Coaching Style

Training Design Considerations

Page 65: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Reading List:

Central Governor Resources:• The Lore of Running, Tim Noakes (3rd Edition, 2003)• Run: The Mind-Body Method of Running, Matt

Fitzgerald

Science Based/Research Resources:• The Science of Running, Steve Magness• www.sportsscientists.com, run by student of Noakes• www.elitetrack.com, more sprint and strength

focused

Traditional Training Resources:• Jack Daniel’s Running Formula, Jack Daniels• Running with Lydiard, Arthur Lydiard• Running to the Top, Joe Vigil

Multi-Tiered Pacing Resources:

• Better Training for Distance Runners, Dr. David Martin and Peter Coe

• Fundamental Principles of the Competitive 1500m Runner, Joe Rubio (available online)

• 400m/800m Training, Derrick Peterson (ppt available online)

Page 66: Re-evaluating Traditional Training Using Contemporary Fatigue Research

Citations:

• 1: Magness, S. (2014). The science of running. Origin Press.

• 2: Tucker, R. (April 2008). Fatigue Series. www.sportsscientists.com.

• 3: Noakes, T. D., (2012). Fatigue is a brain-derived emotion that regulates the exercise behavior to ensure the protection of whole body homeostasis. Frontiers in Physiology, 3, 1-9. doi: 10.3389/fphys.2012.00082

• 4: European Journal of Physiology (Tucker et al. Eur J Physiol; 448: 422-430, 2004 via www.sportsscientists.com “Fatigue Series”

• 5: Physiologic Responses and Long-Term Adaptations to Exercise, http://www.cdc.gov/nccdphp/sgr/pdf/chap3.pdf

• 6: Fletcher and Hopkins (1907). J. Physiol. 35, 247.

• 7: Hill et al. 1924a: 136

• 8: http://trainingscience.net/?page_id=552

• 9: http://www.runhilaryrun.ca/Images/LA_TH_VO2.pdf

• 10: Saunders, P.U., D.B. Pyne, R.D. Telford, & J.A> Hawley. Factors affecting running economy in trained distance runners. Sports Med (2004). 34 (7), 465-485.

• 11: http://www.sociciens.org/2004_Rev._Factors_Affecting_Running_Economy.pdf

• 12: Hilty, L., Jancke, L., Luechinger, R., Boutellier, U. & Lutz. (2011). Limitations of physical performance in a muscle fatiguing handgrip exercise is mediated by thalamo-insular activity. Human Brain Mapping. 32 (12), 2151-60. Magness p. 33

• 13: MacIntosh, B. R., and M. R. Shahi. A peripheral governor regulates muscle contraction. Appl. Physiol. Nutr. Metalab. 36, 2011, 1-11

• 14: Marcora, S. M., W. Staiano. The limit to exercise tolerance in humans: mind over muscle?. European Journal of Applied Physiology. (2010). 109: 763-770

• 15: Marcora, S. M., W. Staiano. Talking yourself out of exhaustion: the effects of self-talk on endurance performance. Medicine and science in sports and exercise. 2014 May; 46 (5): 998-1007.