Baseball can travel and swing at an unprecedented rate.
Inspiration from Nature
Blood cells of Dromedary become elongated when blood vessels constrict due to dehydration.
Extreme sports have quickly become a global phenomenon. Question is, can there be an extreme version of all sports? Cricket for instance, has tournaments with a lesser number of players or overs, even smaller fields sometimes. But is it an extreme version of the sport? Extreme cricket would be one in which a batsman, for instance, strikes a ball ten times harder, sending a ball away ten times farther. Or a baller could swing the ball beyond the known limit- or throw it at trailblazing speed. Sporting equipment could be upgraded to meet extreme requirements. As a case, baseball needs to be invented which can travel and swing at an unprecedented rate.
In order to design a baseball that can swing and fly like nothing we have seen before, first we need to understand the behavior of the fluid (air) through which it would travel.
When blood vessels of camel constrict due to dehydration, its blood cells become elongated and oval which allows them to circulate through the body even through tighter vessels. This principle can be mimicked in a ball to eliminate all friction. The baseball should be able to increase its speed- and swing midair- as intended by the pitcher.
The stated principle has been studied thoroughly in all ball sports. Gyroball, knuckleball, Adidas miCoach Smart Ball and other smart ball systems, all contribute to the development of this extreme ball machine. Nature gadget baseball should be able to calculate the distance and angles midair and morph itself in an attempt to exaggerate the speed and/or spin- and then take the hit without breaking its systems.
A baseball is designed which can get elongated mid-air and become round again (14, 17, 18). It has a double coded layer of molecular-level deformation capability (11, 12) right under the classical alum-tanned full-grained cowhide (9). The surface is made stretchable along with the dual-seamed stitches (2, 4, 6). The amount of deformation is controlled by roll of the fingers (19) and power behind the throw. The result is an extremely fast flight and an unprecedented swing of the ball.
The following are some useful resources from the design process of this nature gadget.
Row1Column1: Closeup of Red Blood Cells of Camel
Row1Column2: Electron Microscopic Appearance of RBC’s of Camel
Row1Column3: Baseball Cross-section
Row1Column4: Physics of Baseball
Row2Column2: Why a Ball Curves
Row2Column3: Ideal Flow around Spinning Ball
Row2Column4: Pitching in Baseball (Trevor Bauer)
Row3Column1: Spinning the (Rugby) Ball
Row3Column2: Rugby Science
Row3Column3: Streamlined versus Round Wishbones
Row3Column4: Causes of Aerodynamic Drag
Row4Column1: Pressure on Curve of a Ball
Row4Column3: Adidas miCoach Smart Ball
Row4Column4: Smart Ball Systems