The present invention relates to an athlete training device. It can be difficult for an athlete to learn proper balance. For example, a soccer player may want to learn how to bounce a soccer ball on his head, thigh, or shoulder while keeping control of the ball, or a golfer may want to learn how to swing a golf club properly. The athlete may practice repeatedly to learn to do these things, but it would be easier if there were a device to help the athlete learn gradually, with increasing levels of difficulty as proficiency improves, similar to using training wheels on a bicycle.
The present invention provides an athlete training device that helps the athlete learn to perform a task, with the task being made easier at the beginning and then gradually increasing in difficulty as the athlete's proficiency improves. In one embodiment, it can be used to teach a ball handler, such as a soccer player, how to balance a ball while bouncing the ball on a body part such as head, thigh or shoulder. In another embodiment, it can be used to teach a golfer how to swing a club properly. One end of the training device is adapted to be in contact with the athlete. The other end of the training device is attached to an athletic device such as a ball or a golf club head. The device may readily be adjusted from relatively easy to progressively more difficult configurations.
Referring to
A bolt 22 is fixed to the base 16 and projects upwardly from the base 16. An internally and externally threaded first cap 24 is threaded onto the bolt 22. A first hollow rod 26 has a proximal end 28 and a distal end 30. The first hollow rod 26 defines a first interior surface which is threaded at the proximal end 28. The first cap 24 is threaded into the internally-threaded proximal end of the first hollow rod 26 to secure the base 16 to the proximal end of the first hollow rod 26.
A first sleeve 34, having an internally threaded surface and having a flange 38 at its distal end 40 is threaded onto the externally threaded distal end 30 of the first hollow rod 26.
A second hollow rod 42, defining a second interior surface 48, has an externally-threaded proximal end 44 and an internally-threaded distal end 46. The distal end 46 of the second hollow rod 42 is secured to a cradle 56 for holding a ball 14 to be balanced by the athlete. An internally and externally threaded second cap 50 is threaded into the distal end 46 of the second hollow rod 42. A bolt 52 extends through the center of the cradle 56 and threads into the internal threads of the second cap 50 to fix the cradle 56 to the distal end 46 of the second hollow rod 42. It should be noted that in this embodiment the second hollow rod 42 is substantially shorter in length than the first hollow rod 26. In this particular embodiment, the first hollow rod 26 is 6 inches long, and the second hollow rod 42 is 4 inches long. Of course, the lengths may be selected by the designer in order to best carry out the desired training function for the particular athlete involved.
A second sleeve 58, defining an internally threaded surface and having a flange 60 at its proximal end 62, is threaded onto the externally threaded proximal end 44 of the second hollow rod 42.
The first and second flanges 38, 60 face each other.
An elastic member 66 extends coaxially along the interiors of the first and second hollow rods 26, 42. A proximal end 68 of the elastic member 66 is secured to the first hollow rod 26 by a through-bolt 72, and a distal end 70 of the elastic member 66 is secured to the second hollow rod 42 by a through-bolt 74. In this case, the elastic member 66 is a spring, but it alternatively could be a bungee cord or other type of elastic member.
Straps 76 extend through slots in the ball cradle 56, around the ball 14 and through slots 78 on a cover 80. The straps 76 have hook and loop fasteners that allow them to be tightened around the ball 14 to releasably secure the ball 14 in the ball cradle 56. While this embodiment shows a soccer ball being used, various balls of various sizes could be used. The cover 80 includes a finger loop 82, which may be used during certain exercises, such as the one shown in
The assembly of the training device 10 already has been described above, but is summarized below:
The first cap 24 is threaded into the proximal end 28 of the first hollow rod 26, and onto the bolt 22 projecting from the base 16 to secure the base 16 to the proximal end 28 of the first hollow rod 26.
The first sleeve 34 is threaded onto the distal end 30 of the first hollow rod 26.
The second cap 50 is threaded into the distal end 48 of the second hollow rod 42, and the ball cradle 56 is bolted into the second cap 50 by means of the bolt 52 to secure the ball cradle 56 to the distal end of the second hollow rod 42.
The second sleeve 58 is threaded onto the proximal end 44 of the second hollow rod 42.
The elastic member 66 is secured at its proximal end 68 inside the first hollow rod 26 by means of the through bolt 72. The distal end 70 of the elastic member 66 is fed out the distal end of the first hollow rod 26, through the first and second sleeves 34, 58 and into the proximal end 44 of the second hollow rod 42, and is secured inside the second hollow rod 42 by the through bolt 74.
The ball cradle 56 is bolted onto the second cap 50. The ball 14 is secured to the cradle 56 using the cover 80 and straps 76, while the base 16 of the training device 10 is secured to the athlete 12 using the straps 18.
Operation of the Training Device 10
The training device 10 has different operating modes depending upon its configuration. In a first, starter configuration, as seen in
In this starter (bridged) configuration, as the athlete 12 moves his leg, the entire training device 10 moves as a unit, as shown in
It should be noted that a bridged configuration alternatively may be achieved by retracting the first sleeve 34 and extending the second sleeve 58 until the second sleeve 58 is threaded onto both hollow rods 26, 42 to bridge across both hollow rods and hold them in alignment with each other. (In this configuration, the second sleeve would be in the bridging position.)
In a second, intermediate-difficulty configuration, as seen in
a show a more difficult training configuration. In this case, both the first and second sleeves 34, 58 are in a retracted position, with the ends of the first and second hollow rods 26, 42 projecting beyond the flanges 38, 60 of their respective sleeves 34, 58. In this configuration, the flanges 38, 60 do not come into play at all. When the athlete starts out, with the ball 14 in the balanced position, the two hollow rods 26, 42 are pulled together by the elastic member 66, and the distal end 30 of the first hollow rod 26 abuts the proximal end 44 of the second hollow rod 42. This provides a much smaller contact surface area, especially when compared with the relatively large contact surface area provided by the flanges 38, 60 of the previously described configuration. Due to the small size of this contact surface area, the aligned position for the two hollow rods 26, 42 is rather unstable, making it more difficult for the athlete to keep the ball balanced on the training device 10.
In each of the latter two configurations, the athlete may make an abrupt upward motion to cause the ball 14 to be tossed in the air, separating the first and second hollow rods 26, 42 from each other, and the athlete then may try to keep his leg aligned with the ball so that the first and second hollow rods 26, 42 remain in alignment as the ball 14 falls down and as the rods are pulled together by the elastic member 66.
In
This device helps the athlete develop a proper golf club swing. If the athlete is swinging the club properly, the grip 86 and head 88 will remain in axial alignment. If not, then they will shift out of axial alignment.
This training device 10′ also has a starter configuration, an intermediate configuration, and a difficult configuration as described with respect to the first device 10. That is, in the starter configuration one of the sleeves 34′, 58′ is threaded onto both the first and second hollow rods 26′, 42′, bridging across both hollow rods 26′, 42′ and holding them in alignment, with no relative motion between them.
In a second, intermediate-difficulty configuration, the sleeves 34′, 58′ are threaded onto their respective hollow rods 26′, 42′ to a point at which the respective ends of the hollow rods 26′, 42′ are slightly recessed into their respective sleeves 34′, 58′. In this configuration, the elastic member 66′ comes into play and biases the two hollow rods 26′, 42′ toward each other. As the hollow rods 26′, 42′ are pulled together by the elastic member 66′, the relatively large flanges 38′, 60′ of their respective sleeves 34′, 58′ contact each other and guide the hollow rods 26′, 42′ into axial alignment.
Finally, in the most difficult configuration, the ends of the two hollow rods 26′, 42′ project beyond the flanges 38′, 60′ of their respective sleeves 34′, 58′. In this configuration the flanges 38′, 60′ may not come into play at all, or come into play only marginally. When the two hollow rods 26′, 42′ come together, the distal end 30′ of the first hollow rod 26′ comes into contact with the proximal end 44′ of the second hollow rod 42′. This is a relatively small contact surface area, especially when compared with the relatively large contact surface area provided by the flanges 38′, 60′ of the previously described configuration, which means that the athlete gets less help from the configuration in bringing the first and second hollow rods 26′, 42′ into axial alignment.
Referring to
A counterweight 100 is mounted on the outer surface of the outer race 98 diametrically opposite the bolt 22′ via a mounting bolt 102. The purpose of the counterweight 100 is to keep the bolt 22′ of the outer race 98 in a substantially upwardly-pointing orientation and to provide something on which to rest the entire training device 10 when the training device 10 with the base 90 is not being used by the athlete.
To use the training device 10 with the base 90, the user inserts his foot through the ring 92 such that the bridge of his foot is in contact with the inner surface of the ring 92. He then lifts his foot up while rotating his leg so that his foot causes the inner race 94 to rotate relative to the outer race 98. The athlete may cause the inner race 94 to rotate completely around inside the outer race 98, with the ring 92 returning to its original position relative to the outer race 98, and the athlete may make several rotations while balancing the ball 14. Again, the level of difficulty of the training device 10 can be adjusted as discussed earlier.
Once you have reached this level of proficiency, you can remove some or all of the weight in the counterweight 100 which allows the ball 14 to rotate fully around the foot, which is a more realistic simulation of the skill required to do the Around the World maneuver.
It will be obvious to those skilled in the art that modifications may be made to the embodiments described above without departing from the scope of the present invention as claimed.
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