conclusion
This blog
as examined the biomechanical principles within the tennis serve. Through this
blog the optimal
movement stages within the tennis serve to increase velocity have been explored
and include information about injury prevention.
The three
movement stages that have been noted as the optimal movement stages to increase
the velocity of the serve, including preparation stage, acceleration stage and
the follow through stage. Through each stage there are multiple phases with biomechanical
principles have been analysed. These include; throughout the preparation stage establishing
a stable centre of
mass will
allow for a good base support and a balanced serve. Athletes should utilise the
kinetic
chain to
through the segments effortlessly as they utilise leg drive to produce and
generate power into the acceleration stage. In the acceleration stage player shoulders
are very important in producing fast and powerful serves. Angular velocity is a biomechanical principle that can help players and
coaches determine and identify the speed the shoulder is moving throughout the
serve, hence can help improve players technique and overall serve velocity. It
is also crucial to understand the importance of the racket design, as a heavier
racket will not increase the torque produces open the ball, slowing the overall
velocity. Finally, the follow through is important to ensure an effective
service motion. To
increase velocity throughout serve motion, players can increase the rate at
which they decelerate to allow a quick transition. The declaration
of the athlete is influenced by their potential momentum.
References
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Instructables.
(2012, October 17). How to Serve a Tennis Ball (for Righties). Instructables;
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(2018). Tennis 101: The 6 Basic Strokes Explained Step-by-Step - Pat Cash
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