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Biomechanical Analysis of Hurdling Kale Hintz, Ericka Fischer, Jenny Suing 12-3-14
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Biomechanical Analysis of Hurdling Kale Hintz, Ericka Fischer, Jenny Suing 12-3-14
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❖ Clear the hurdle with the smallest decrease in horizontal velocity as possible Skill Objectives
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❖ Height of athlete ➢ stride length ❖ Height of hurdles ❖ Flexibility of athlete ➢ specifically at the hip joint Special Considerations
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Keys to Successful Hurdling ❖ Spending as much time as possible sprinting ❖ Spending as little time in the air as possible (a perfected clearance technique) (Pierre Beaulieu, 2012)
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❖ Raise just above the hurdle to allow for clearance ❖ Lean forward while clearing hurdle to minimize center of mass elevation ➢ Leaning forward allows for more aerodynamic posture Center of Mass (Pierre Beaulieu, 2012)
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❖ Minimize potential energy by reducing elevation ❖ Maximize kinetic energy by spending as much time as possible sprinting ❖ Vertical height directly affects time ❖ By keeping the center of mass low as possible the runner is able to decrease time ❖ By lowering the center of mass less initial velocity is required to clear the hurdle Projectile Motion (Pierre Beaulieu, 2012)
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Momentum is lost when: ❖ stutter-stepping occurs ❖ the hurdle is hit *Hitting the hurdle is an inelastic collision Momentum
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Mono-articulating ❖ Short head of Bicep Femoris ❖ Vastus muscles ❖ *Gluteus Maximus ❖ *Tensor Fasciae Latae ❖ Adductors ❖ Soleus Anatomy/ Function of Hurdling (Leg) These muscles provide ❖ Stability and leverage ❖ Force & work generators ❖ Lose tension in quick movements
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Bi-articulating ❖ Psoas Major ❖ Hamstrings ❖ Bicep Femoris ❖ Semimembranosus ❖ Semitendinosus ❖ Rectus Femoris ❖ Gracilis ❖ Gastrocnemius Anatomy/ Function of Hurdling (Leg) These muscles provide ❖ High speed movements ❖ Saves energy by allowing concentric work to be done on one end and eccentric on the other ❖ Transfers energy while resisting moments across adjacent joints (isometric function) ❖ Effects timing of muscle activation on vertical jump
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Phases
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❖ Take-off Phase ❖ Flight Phase ➢ Splitting ➢ Clearance ➢ Landing Preparation ❖ Landing Phase Hurdling Phases
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❖ Aggressive run at the hurdle ❖ Stay of ball’s of feet ➢ allows for less braking effect which which would otherwise lead to slower horizontal velocity ❖ Avoid sinking center of mass ❖ Shifting of lead leg, arms, and trunk must be performed simultaneously Take-off phase
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❖ Pelvic orientation ❖ Minimizing loss in velocity ❖ Athlete must maintain a high position of center of mass during take-off ❖ Lead knee is driven up and at the hurdle Take-off phase
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❖ Taking too long of a stride before take-off ❖ Last stride is too close to the hurdle ❖ Lead leg is brought out to the side Biomechanical errors
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❖ Three different phases ➢ Splitting phase ➢ Clearance phase ➢ Landing Preparation *The key to this phase is spending as little time as possible in the air Flight Phase
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❖ Hurdler assumes split position ❖ Opposite arm reaches for opposite leg Splitting Phase
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❖ Keep center of mass as low as possible ➢ Leaning forward allows for easier movement of the trail leg ❖ Keeping vertical velocity low allows for less time in the air Clearance Phase
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❖ Vertical velocity is too high ❖ Trail leg is not brought high enough or is brought under the body Biomechanical Errors
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❖ The main characteristic is the opposed movement behavior of trail and lead leg ❖ Forward trunk lean is kept to continue momentum Landing Preparation
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❖ Shoulders are not lined up with hips Biomechanical Errors
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❖ Landing in plantar flexion of the lead leg allows for minimal loss in horizontal velocity ❖ High knee rotation allows for better clearance of the hurdle Landing Phase
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https://www.youtube.com/watch?v=gveS_0sFOmw&list=PLYhTif3-2kJBBTLd4fC7QL3uIiAWsvvzH&index=34 Pierre Beaulieu, H. O. (2012). Blood lactate levels of decathletes during competition. Education Physique of Sports, University of Bordeaux, France, 146-157. McLean, B. (2011). THE BIOMECHANICS OF HURDLING: FORCE PLATE ANALYSIS TO ASSESS HURDLING TECHNIQUE.  Australian Institute of Sport, Belconnen, Canberra, Australia, 333-335. Coh, M., & Iskra, J. (2012). Biomechanical Studies of 110 M Hurdle Clearance Technique. Sport Science, Faculty of Education- University of Travnik, Bosnia, & Herzegovina, 10-13. Coh, M. (2003). Biomechanical analysis of Colin Jackson's hurdle clearance technique. New studies in athletics, 18(1), 37-45. Coh, M., Milanovic, D., & Kampmiller, T. (2011). Morphologic and Kinematic Characteristics of Elite Sprinters. Original Scientific Paper, 605-610 References
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❖ Clear the hurdle with the smallest decrease in horizontal velocity as possible Skill Objectives
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❖ Height of athlete ➢ stride length ❖ Height of hurdles ❖ Flexibility of athlete ➢ specifically at the hip joint Special Considerations
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Keys to Successful Hurdling ❖ Spending as much time as possible sprinting ❖ Spending as little time in the air as possible (a perfected clearance technique) (Pierre Beaulieu, 2012)
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❖ Raise just above the hurdle to allow for clearance ❖ Lean forward while clearing hurdle to minimize center of mass elevation ➢ Leaning forward allows for more aerodynamic posture Center of Mass (Pierre Beaulieu, 2012)
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❖ Minimize potential energy by reducing elevation ❖ Maximize kinetic energy by spending as much time as possible sprinting ❖ Vertical height directly affects time ❖ By keeping the center of mass low as possible the runner is able to decrease time ❖ By lowering the center of mass less initial velocity is required to clear the hurdle Projectile Motion (Pierre Beaulieu, 2012)
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Momentum is lost when: ❖ stutter-stepping occurs ❖ the hurdle is hit *Hitting the hurdle is an inelastic collision Momentum
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Mono-articulating ❖ Short head of Bicep Femoris ❖ Vastus muscles ❖ *Gluteus Maximus ❖ *Tensor Fasciae Latae ❖ Adductors ❖ Soleus Anatomy/ Function of Hurdling (Leg) These muscles provide ❖ Stability and leverage ❖ Force & work generators ❖ Lose tension in quick movements
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Bi-articulating ❖ Psoas Major ❖ Hamstrings ❖ Bicep Femoris ❖ Semimembranosus ❖ Semitendinosus ❖ Rectus Femoris ❖ Gracilis ❖ Gastrocnemius Anatomy/ Function of Hurdling (Leg) These muscles provide ❖ High speed movements ❖ Saves energy by allowing concentric work to be done on one end and eccentric on the other ❖ Transfers energy while resisting moments across adjacent joints (isometric function) ❖ Effects timing of muscle activation on vertical jump
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Phases
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❖ Take-off Phase ❖ Flight Phase ➢ Splitting ➢ Clearance ➢ Landing Preparation ❖ Landing Phase Hurdling Phases
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❖ Aggressive run at the hurdle ❖ Stay of ball’s of feet ➢ allows for less braking effect which which would otherwise lead to slower horizontal velocity ❖ Avoid sinking center of mass ❖ Shifting of lead leg, arms, and trunk must be performed simultaneously Take-off phase
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❖ Pelvic orientation ❖ Minimizing loss in velocity ❖ Athlete must maintain a high position of center of mass during take-off ❖ Lead knee is driven up and at the hurdle Take-off phase
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❖ Taking too long of a stride before take-off ❖ Last stride is too close to the hurdle ❖ Lead leg is brought out to the side Biomechanical errors
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❖ Three different phases ➢ Splitting phase ➢ Clearance phase ➢ Landing Preparation *The key to this phase is spending as little time as possible in the air Flight Phase
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❖ Hurdler assumes split position ❖ Opposite arm reaches for opposite leg Splitting Phase
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❖ Keep center of mass as low as possible ➢ Leaning forward allows for easier movement of the trail leg ❖ Keeping vertical velocity low allows for less time in the air Clearance Phase
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❖ Vertical velocity is too high ❖ Trail leg is not brought high enough or is brought under the body Biomechanical Errors
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❖ The main characteristic is the opposed movement behavior of trail and lead leg ❖ Forward trunk lean is kept to continue momentum Landing Preparation
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❖ Shoulders are not lined up with hips Biomechanical Errors
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❖ Landing in plantar flexion of the lead leg allows for minimal loss in horizontal velocity ❖ High knee rotation allows for better clearance of the hurdle Landing Phase
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https://www.youtube.com/watch?v=gveS_0sFOmw&list=PLYhTif3-2kJBBTLd4fC7QL3uIiAWsvvzH&index=34 Pierre Beaulieu, H. O. (2012). Blood lactate levels of decathletes during competition. Education Physique of Sports, University of Bordeaux, France, 146-157. McLean, B. (2011). THE BIOMECHANICS OF HURDLING: FORCE PLATE ANALYSIS TO ASSESS HURDLING TECHNIQUE.  Australian Institute of Sport, Belconnen, Canberra, Australia, 333-335. Coh, M., & Iskra, J. (2012). Biomechanical Studies of 110 M Hurdle Clearance Technique. Sport Science, Faculty of Education- University of Travnik, Bosnia, & Herzegovina, 10-13. Coh, M. (2003). Biomechanical analysis of Colin Jackson's hurdle clearance technique. New studies in athletics, 18(1), 37-45. Coh, M., Milanovic, D., & Kampmiller, T. (2011). Morphologic and Kinematic Characteristics of Elite Sprinters. Original Scientific Paper, 605-610 References
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