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IMPLEMENTING A MECHANICAL MODEL FOR PLYOMETRIC PROGRESSIONS Mike Young, PhD mikeyoungphd mikeyoung

Implementing A Mechanical Model for Plyometric Progressions

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Page 1: Implementing A Mechanical Model for Plyometric Progressions

IMPLEMENTING A MECHANICAL MODEL FOR PLYOMETRIC

PROGRESSIONSMike Young, PhD mikeyoungphd mikeyoung

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What if I told you that everything

you’ve ever learned about plyometric progressions is

wrong

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I didn’t have a force platform

and did just fine thank you

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What was the vertical velocity?

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The difference between Apex and

Landing determines Vertical Velocity

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NOT NECESSARILY TAKEOFF POINT

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Relative to your highest point, was your landing point….

Lower? —-> MORE mechanical load!!

Higher? —-> Less mechanical load

The Same? —-> Moderate mechanical load

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Falling from a higher height increasesvertical velocity at impact

In most cases, the differencebetween the highest and lowest point

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Improvements in Jumping Ability will Naturally Intensify an Activity

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Did they fall a great distance?

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Any Forward, Backward or

Lateral Movement?

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Did they fall a great distance?

What was there horizontal velocity?

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Did they fall a great distance?

How fast were they moving?

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Did they fall a great distance?

How fast were they moving?

How was the collision?

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STIFFNESS JUMPSminimal amortization. short contact.

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STIFFNESS JUMPSminimal amortization. short contact.

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Did they fall a great distance?

How fast were they moving?

Compliant or jarring?

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Did they fall a great distance?

How fast were they moving?

Compliant or jarring?

How was the load distributed?

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Bilateral Loading with Temporal Offset (Skipping)

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Bilateral Asymmetric Loading (Split / Lunge Jumps)

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Bilateral Loading (Double Leg Jumps)

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Unilateral (Bounding / Single

Leg Hopping)

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Anatomy,

Contact &

Loading

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Each LE Limb = ~17% Total BWLower Leg & Foot = ~6% Total BW

Bodyweight Squat = ~88% BWLoad on each Leg = ~44% BW

Single Leg Squat = ~94% BWLoad on Leg = ~94% BW

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Impact Force is approximately double and eccentric GRF is approximately 30-50% higher

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Single leg depth jumps are approximately half the height as their double leg equivalents

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Bilateral Unilateral

Unilateral Plyometric Loading can be MORE THAN 200% of the load of Bilateral Equivalents

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Did they fall a great distance?

How fast were they moving?

Compliant or jarring?

BL Temporal Offset, BL Asymmetric,BL Symmetric, Unilateral?

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Low Mechanical Load High Mechanical Load

Low Medium High

Heig

ht

None Slight Fast

Spee

d

Soft Firm Stiff

Rigi

dity

Bilateral (Temporal Offset)Bilateral (Asymmetric)

Bilateral (Symmetric)Unilateral

Land

ing

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Low DropNo Movement

SoftBilateral

High DropFastStiff

Unilateral

Low Mechanical Load High Mechanical Load

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• Height: +• Movement: -• Collision: ++• Loading: ++(BL)

Answer: Low ML

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• Height: ++• Movement: ++• Collision: ++• Loading: +++(Uni)

Answer: Moderate ML

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• Height: +++• Movement: +• Collision: +++• Loading: ++ (BL) Answer: High ML

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• Height: -• Movement: -• Collision: -• Loading: ++ (BL)

Answer: Low ML

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• Height: +++• Movement: ++• Collision: +• Loading: + (BLT)

Answer: Moderate ML

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• Height: +• Movement: +• Collision: +• Loading: ++ (BL) Answer: Low ML

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• Height: ++• Movement: +• Collision: +++• Loading: ++ (BL) Answer: Moderate ML

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• Height: +++• Movement: +++• Collision: +++• Loading: +++ (BL) Answer: High ML

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Other Factors to

Consider

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Anyone can fall….

but can you land?

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Considerations for Surface

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>Mass = >Load

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What about external loading?

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What about assistance?

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KNOW THE 4 QUESTIONS

UNDERSTAND THE BASICS OF PROJECTILE MOTION & IMPACT

CREATE A HIERARCHY BASED ON THE 4 QUESTIONS

USE PLYOMETRIC HIERARCHY TO ESTABLISH YOUR ANNUAL, RTP AND LTAD PROGRESSIONS

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THANKS TWITTER.COM/MIKEYOUNG ATHLETICLAB.COM PROFORMANCE.PRO FITFORFUTBOL.COM ELITETRACK.COM