The present invention relates generally to tennis-related sports equipment. More specifically, the present invention is a more-responsive string configuration for a tennis racket.
Tennis strings are used in the game of tennis. Tennis strings are installed in a tennis racket by means of a tennis stringing machine. These tennis strings are under tension as the tennis racket has both main strings and cross strings. Tennis strings are interwoven into the tennis racket.
An objective of the present invention is to provide a more-responsive string configuration of a tennis racket. As the tennis ball comes into contact with tennis strings and compress, the tennis strings for the present invention spread apart and snap back together into place, which adds power and spin to the tennis ball as the tennis ball moves forward away from the tennis strings.
All illustrations of the drawings are for the purpose of describing selected versions of the present invention and are not intended to limit the scope of the present invention.
The present invention is a tennis racket with a more-responsive string configuration, which allows a user to better control how hard and what direction to hit a tennis ball. The present invention is able to add spin and power in a controlled manner as the tennis ball makes contact with the present invention. Thus, the present invention comprises a closed-shape beam 1, a throat 2, an elongated handle 3, and a plurality of lines 4, which are shown in
The general configuration of the aforementioned components allows the present invention to effectively add spin and power in a controlled manner as the present invention hits a tennis ball. The elongated handle 3 is connected adjacent to the throat 2, and closed-shape beam 1 is connected adjacent to the throat 2, opposite to the elongated handle 3. This arrangement between the elongated handle 3, the throat 2, and the closed-shape beam 1 allows the user to properly grasp the present invention and to accurately hit a tennis ball. In addition, each of the plurality of lines 4 is tensionably mounted within the closed-shape beam 1, which allows the plurality of lines 4 to elastically contort as a tennis ball makes contact with the plurality of lines 4 and then allows the plurality of lines 4 to elastically retract as the tennis ball rebounds off of the plurality of lines 4. The plurality of lines 4 is also arranged into an interwoven grid configuration so that the present invention has an adequately-sized contact area for a tennis ball.
In order to improve the ball-handling responsiveness of the present invention, each of the plurality of lines 4 comprises a first string 401 and a second string 403, which are shown in
As can be seen in
As can be seen in
The physical properties of the first string 401 and the second string 403 also impact the ball-handling responsiveness of the plurality of lines 4. In one preferred embodiment, the first string 401 and the second string 403 each are a 150-pound fishing line, which provides the plurality of lines 4 with a more-forgiving, duller ball-handling responsiveness. In another preferred embodiment, the first string 401 and the second string 403 each are a 300-pound fishing line, which provides the plurality of lines 4 with a less-forgiving, sharper ball-handling responsiveness. In both preferred embodiments, the first string 401 and the second string 403 are each made of braided strands of ultra-high-molecular-weight polyethylene fiber, which provide the first string 401 and the second string 403 with a high degree of structural integrity. The first string 401 and the second string 403 can be made of some other types of materials, which include, but is not limited to, super 8-strands braided 300-pound 1.00 mm fishing line dyneema, Saratoga shadow strike 6-strand braided 150-pound 0.68 mm fishing line dyneema, spectra extreme 4-strand braided 100-pound 0.55 mm fishing line dyneema, 10-pound fishing line monofilament, and a single fiber of plastic.
The closed-shape beam 1 needs to be configured to accommodate both the first string 401 and the second string 403 for each of the plurality of lines 4. Thus, the closed-shape beam 1 may comprise a beam body 11 and a plurality of line-receiving holes 12, which are shown in
The plurality of lines 4 can be configured by folding a single continuous line in half and weaving the folded continuous line through the plurality of line-receiving holes 12. In one example, the 300-pound fishing line is 46 feet long, and its ends are tied together. In another example, a 150-pound fishing line is 46 feet long, and its ends are tied together. The 150-pound fishing line is now only 23 feet long. In another example, a 100-pound fishing line is 129 feet long. The fishing line is made into two different lengths: one length is 86 feet and the other length is 43 feet. The 86 feet long fishing line has its ends are tied together, and the 43 feet long fishing line is tied together with the other fishing line in order to make one fishing line. This results in a 43 feet long fishing line. In conclusion, these three examples of fishing lines illustrate different ways to make one line that is 43 feet long. The fishing lines are tied together by using the 10-pound fishing line. The 10-pound fishing lines are only used to tie the heavier fishing lines together.
Although the invention has been explained in relation to its preferred embodiment, it is to be understood that many other possible modifications and variations can be made without departing from the spirit and scope of the invention as hereinafter claimed.
The current application claims a priority to the U.S. Provisional Patent application Ser. No. 62/409,950 filed on Oct. 19, 2016
Number | Date | Country | |
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62409950 | Oct 2016 | US |