Why footballers need speed




















Velocity specificity in early-phase sprint training. Little, T. Specificity of acceleration, maximum speed, and agility in professional. Maio Alves, J.

Short-term effects of complex and. Majdell, R. The effect of overspeed training on kinematic variables in sprinting. Meckel, Y. Influence of short versus long repetition sprint training. Mendez-Villanueva, A. Does on-field sprinting. Meylan, C. Effects of in-season plyometric training within soccer practice on.

Moore, E. Comparison of two twelve week off-season combined. Mujika, I. In-season effect of short-term sprint and power training. Paradisis, G. The effects of sprint running training on sloping surfaces. Rampinini, E. Variation in top level soccer. Rimmer, E. Effects of a plyometrics intervention program on sprint performance.

Ronnestad, B. Short-term effects of strength and. Spinks, C. The effects of resisted sprint training on. Taskin, H. Evaluating sprinting ability, density of acceleration, and speed dribbling ability of professional.

Tonnessen, E. The effect of m repeated sprint training. Upton, D. The effect of assisted and resisted sprint training on acceleration and velocity in division IA. Assisted and resisted sprint training: Effects on Venturelli, M.

Sprint training in preadolescent soccer players. Wong, P. Effects of week on-field combined strength and power. Effect of preseason concurrent. Zafeiridis, A. The effect of resisted. Speed training in football. Different facets of speed in football.

Conditions for all facets of speed training. Effect of training. It seems evident from the literature that there are many different training protocols. Possibilities to train for speed. Plyometrics 10, 26, 27? SAQ drills 17 yes yes? Repeated sprinting 35, 38? Limitations of the studies and additional thoughts. General guidelines for all training possibilities. Training for speed incorporating technical and tactical aspects of the game.

Depending on the set up of the exercise, it is possible to combine multiple training goals. References 1. High intensity motion pattern analysis of brazilian elite soccer players in different positional roles, in: 46th Annual Meeting ACSM.

Performance adaptations to sprint endurance and both modes of training. Effects of resistance training on the physical capacities of adolescent soccer players.

The longitudinal effects of resisted sprint training using weighted sleds vs. Changes in performance, muscle metabolites, enzymes and fibre types after short sprint training. Performance characteristics according to playing position in elite soccer. Analysis of high intensity activity in Premier League soccer. Effects of plyometric training followed by a reduced training programme on physical performance in prebubescent soccer players. When the athlete is ready to tolerate greater forces at higher velocities bounding exercises can be utilised to promote the generation of power Moir et al.

The role of the joint moments of the stance leg changes from force production during the acceleration phase of sprinting towards a greater amount of force absorption, particularly at the knee and ankle joints, during the maximal speed sprinting phase Moir et al. In order to improve the impact limb deceleration mechanism utilised within maximal speed phase of sprinting Moir et al. Resisted sprint training is another training modality that has been shown to enhance the transfer of muscular strength and power from traditional resistance training exercises towards more biomechanical specific exercises Moir et al.

Resisted-sprint methods such as sled towing has been shown to be very effective in improving the acceleration phase of sprinting as they can help the player develop horizontal power Moir et al. This can ultimately result in a greater development of horizontal power during accelerative sprinting Lockie et al.

When performing resisted sprint training it is essential to use the correct sled loading in order to train at the optimal intensity. The most commonly used method to load a sled is based on the reduction in sprint speed. This has been emphasised by research conducted by Alcaraz et al. Similarly, research conducted by Makaruk et al.

However, this can only be used as a guide as more research is needed to determine the optimal loading for resisted sprint training. Assisted-sprint training, which involves an athlete being towed via the use of an elastic cord or a mechanical winch, can also be beneficial in improving maximal sprinting speed Moir et al.

Towing an athlete has been found to increase the vertical and braking forces associated during the early stance phase during maximal speed sprinting Mero, This would result in a promotion of increased leg stiffness of the stance leg in a unilateral movement, promoting the development of the initial impact-limb deceleration mechanism Moir et al.

Research by Mero has shown that the velocity of the swing leg is also increased at supramaximal velocities associated with athlete towing, aiding the development of the high knee required as part of the limb-deceleration mechanism Moir et al.

Despite this, assisted sprint training using an elastic cord or winch is not very practical in a field based setting or within team sport environment. Furthermore, there is limited research available regarding the optimal assistance needed to provide beneficial training effects Bartolini et al, Therefore, further research is requirement in order to implement this strategy effectively within a sprint performance programme.

To conclude, performing un-resisted sprints is another training strategy that has been shown to improve sprint performance. As this method alone can provide ample stimulus to develop the rotation-extension strategy and the impact-limb deceleration mechanism Moir et al. This has been a brief review of the literature, for a more detailed account of the biomechanics of sprinting and how to improve sprint performance please refer to the excellent work of Moir et al.

Skip to content. The Phases of Maximal Speed Sprinting Figure 1 depicts the speed-distance data from a group of elite sprinters compared to students over a m sprint. Attainment of maximal speed phase — the peak of the curve. Maintenance of maximal speed phase —the negative slope of the curve. Biomechanical Analysis of Acceleration and Maximal Speed Sprinting Sprinting speed is achieved through alternating phases of stance and flight during each stride, a stride being defined as the event between touchdown, when the foot makes contact with the ground, of the stance leg to the next ipsilateral touchdown DeVita, References Alcaraz, P.

Effects of three types of resisted sprint training devices on the kinematics of sprinting at maximum velocity. Andrzejewski, M. Sprinting activities and distance covered by top level Europa League Soccer Players.

Bangsbo, J. The physiology of soccer: with special reference to intense intermittent exercise. Acta Physiologica Scandinavica , Physiological Demands of Football. Sports Science Exchange , 27 , Bartolini, J. Optimal elastic cord assistance for sprinting in collegiate women soccer players. Clark, K. Are running speeds maximized with simple-spring stance mechanics?. Journal of applied physiology , 6 , Comfort, P. Relationships between strength, sprint, and jump performance in well-trained youth soccer players.

Journal of Strength and Conditioning Research , 28 , — Delecluse, C. Analysis of meter sprint performance as a multi-dimensional skill. Journal of Human Movement Studies , 28 2 , DeVita, P. The selection of a standard convention for analyzing gait data based on the analysis of relevant biomechanical factors.

Journal of Biomechanics , 27 4 , Douglas, J. Chronic adaptations to eccentric training: a systematic review. Sports Medicine , 47 5 , Farley, C. Leg stiffness primarily depends on ankle stiffness during human hopping. Journal of biomechanics , 32 3 , Faude, O. Straight sprinting is the most frequent action in goal situations in professional football. Journal of sports sciences , 30 7 , Haugen, T. Anaerobic performance testing of professional soccer players — International Journal of Sports Physiology and Performance , 8 2 , Jacobs, R.

Intermuscular coordination in a sprint push-off. Forwards, most midfielders, and full backs need to have speed with the ball at their feet to get the most out of their jobs. It is a tough skill to master since you also have to master your dribbling skills , but it is essential since it keeps the defense from being able to get comfortable.

Take a look at some of the best teams in the world. They may not be the fastest teams, but they are the ones that get the most out of their speed. Instead of Just standing around with the ball, players move with it quickly to stay in rhythm and to throw off the defense. These are also the teams that are great on the counter attack because they have players who are willing to run with and without the ball.

On offense, you need learn how to have good off-ball movement to be able to separate yourself from the defensive players around you. Without speed, the defenders can just relax and not worry about players ever getting past them.



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