Not Applicable.
Not Applicable.
Not Applicable.
This invention is directed to a system and method of improving agility, hand-eye coordination and balance in a patient in need. Hand-eye coordination, balance, and agility are essential physical skills that play a crucial role in our daily activities, sports, and overall physical performance. Hand-eye coordination refers to the ability to synchronize visual input with hand movements. This skill is vital for tasks that require precise control, such as writing, typing, or playing sports like basketball and tennis. It involves a complex interplay between the eyes, motor neurons and muscles. The brain processes incoming visual information to direct hand movements. This coordination develops and strengthens through practice and experience, beginning in childhood and improving as individuals engage in various physical activities.
Balance, another critical aspect of physical performance, refers to the ability to maintain a stable and controlled body position, whether stationary or in motion. It relies on sensory information from the inner ear, eyes, and proprioceptors (sensors in the muscles and joints) to keep the body oriented. Good balance is essential for everyday tasks, such as walking, climbing stairs, or standing on one leg. In sports, athletes often require exceptional balance to perform maneuvers effectively, whether it's a gymnast executing a routine or a soccer player dribbling the ball. Training and exercises that challenge balance, can significantly enhance this skill.
Agility encompasses the ability to change direction quickly and efficiently while maintaining control over one's body. It combines elements of speed, coordination, and balance, allowing individuals to respond swiftly to dynamic environments. Athletes in sports such as soccer, basketball, and rugby rely heavily on agility to outmaneuver opponents and navigate through complex play scenarios. Agility training often includes drills that promote quick footwork, lateral movements, and reaction time, helping to improve overall athletic performance.
The relationship between these three skills is intricate; they often enhance each other. For example, strong hand-eye coordination can improve an individual's agility by allowing for better control during rapid movements. Similarly, good balance supports agility by enabling individuals to make quick direction changes without losing stability. Training in one area can often lead to improvements in the others, highlighting the importance of a holistic approach to physical fitness.
Agility, hand-eye coordination and balance are foundational skills that contribute to effective movement and performance in various aspects of life. While each skill has its distinct features and training methods, their interdependence underscores the importance of developing a well-rounded physical capability. Engaging in diverse physical activities, sports, and specific training exercises can foster these skills, ultimately leading to improved performance throughout daily life.
A patient in need stands on a vibrating platform set against a wall. A checkerboard hangs on the wall centered above the platform and further positioned above the level of the patient's shoulder. We divide this checkerboard into a right and a left half. We frame the checkerboard with two borders. Mounted to the outermost border of the checkerboard are four spaced-apart storage hooks. We hang magnetic checkers on each of these four storage hooks. Following a prescribed pattern, while the platform vibrates, the patient uses one hand to remove one checker at a time off its storage hook and onto a magnetic square on the opposite side of the checkerboard, all while keeping his other hand free of the platform and free of the wall.
In one embodiment, the patient stands with both feet on the platform. While the platform vibrates, he raises his right hand to pick up a magnetic checker from the rightmost hook and places it on one of the leftmost magnetic squares on the checkerboard, keeping his left hand in the air. He repeats the exercise with his left hand, raising his left hand to grab a magnetic checker from the leftmost hook and placing it on one of the rightmost magnetic squares, all while the platform continues to vibrate and all while keeping his right hand free. To make the exercise even more challenging, we repeat the sequence with the patient standing on the vibrating platform with only one leg.
Checkerboard 20 hangs on a wall above and facing the platform. The checkerboard can be made of any material that can independently retain its shape and size when hung on a wall: wood, metal, plastic, textile or composite, woven or knit. Preferably, checkerboard 20 is divided into 8 rows and 8 columns of 64 magnetized squares 30. Most preferably, checkerboard 20 is 28 inches square. An inner border, not numbered, surrounds the checkerboard. An outer border, not numbered, surrounds the inner border. Preferably the checkerboard, plus inner and outer borders measure 30 inches square. Checkerboard 20 can be any even-numbered row and column configurations, such as 6 rows×6 columns, 4 rows by 4 columns, 10 rows by 10 columns and so on. The squares are shaded in two contrasting colors. The colors do not matter and need not even match the checkers. In the example shown, and for simplicity and clarity, the checkerboard is illustrated with alternating white and shaded squares. The magnets are attached centered on the front surface of each square. An imaginary vertical centerline 40 divides checkerboard 20 into a left half and a right half. Vibrating platform 10 also has a center along the side placed against the wall, not shown. The center of the vibrating platform directly aligns with vertical centerline 40.
Evenly spaced along the outer border of the checkerboard, we attach 4 storage hooks. From left to right, these are: leftmost storage hook 50, center left storage hook 70, center right storage hook 80 and rightmost storage hook 60. These hooks are made from any rigid material such as plastic, metal or wood. Preferably the storage hooks are wood. Each storage hook must be long enough to hold at least 6 checkers. Preferably the storage hooks are at least 4 inches long and ½ inch thick, but other dimensions work equally well as long as they can stay attached to the outer border of the checkerboard and support the checkers.
The system requires at least 8 magnetic checkers of each of two contrasting colors, for a total of at least 16 magnetic checkers. Preferably, and as shown in these illustrations, the checkers are circles 3 inches across and ¼ inch thick. Other dimensions and shapes of checkers can work equally well with this system and method. The checkers can be oval, or they can even be square. The illustrations show the two contrasting colors as white and shaded. Each checker has a magnet attached to its center back.
Each checker further has a hole drilled through and above the magnet, this hole being larger than the storage hooks are thick. For convenience, we identify the at least 8 magnetic checkers of each contrasting color as follows: a leftmost group of 4 magnetic checkers 90 hung on the leftmost storage hook 50, a center left group of 4 magnetic checkers 110 hung on the center left storage hook 70, a center right group of 4 magnetic checkers 120 hung on the center right storage hook 80, and a rightmost group of 4 magnetic checkers 100 hung on the rightmost storage hook 60. Checkers groups 90 and 110 are shaded. Checkers groups 100 and 120 are white.
Once the person moves all the checkers from the center right group of magnetic checkers 120 to the left half of the checkerboard, she places her left foot down and raises her right foot. Please see
Although embodiments and examples of the invention have been shown and described, it is to be understood that various modifications, substitutions, and rearrangements of parts, components, steps, as well as other uses, shapes, construction, and design of this system can be made by those skilled in the art without departing from the novel spirit and scope of this invention.
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