Patent classifications
A63B37/0008
Fan-shaped golf ball dimple
Golf balls include dimples for generating a turbulent boundary layer. At least some of the dimples include a fan-shape. The fan-shaped dimple has a plurality of blades. Each blade has a trailing edge flush with a land area of a spherical surface of the golf ball, a leading edge, and a side wall connected to the leading edge. The dimple also has a sloped floor extending from the trailing edge to the leading edge, a blade tip connecting the leading edge to the trailing edge at a distal end of the blade, and a blade root connecting the leading edge to the trailing edge at a proximal end of the blade.
GOLF BALLS HAVING VOLUMETRIC EQUIVALENCE ON OPPOSING HEMISPHERES AND SYMMETRIC FLIGHT PERFORMANCE AND METHODS OF MAKING SAME
Golf balls according to the present invention achieve flight symmetry and overall satisfactory flight performance due to a dimple surface volume ratio that is equivalent between opposing hemispheres despite the use of different dimple geometries, different dimple arrangements, and/or different dimple counts on the opposing hemispheres.
DIMPLE PATTERNS FOR GOLF BALLS
A golf ball dimple pattern based on a square dipyramid, i.e., two square pyramids connected base-to-base, is disclosed. The dimples are arranged within four substantially identical triangular sections on each of two substantially identical hemispheres of the ball.
DIMPLE PATTERNS FOR GOLF BALLS
A golf ball dimple pattern based on a square dipyramid, i.e., two square pyramids connected base-to-base, is disclosed. The dimples are arranged within four substantially identical triangular sections on each of two substantially identical hemispheres of the ball.
Dimple patterns for golf balls
A golf ball dimple pattern based on a square dipyramid, i.e., two square pyramids connected base-to-base, is disclosed. The dimples are arranged within four substantially identical triangular sections on each of two substantially identical hemispheres of the ball.
GOLF BALLS HAVING VOLUMETRIC EQUIVALENCE ON OPPOSING HEMISPHERES AND SYMMETRIC FLIGHT PERFORMANCE AND METHODS OF MAKING SAME
Golf balls according to the present invention achieve flight symmetry and overall satisfactory flight performance due to a dimple surface volume ratio that is equivalent between opposing hemispheres despite the use of different dimple geometries, different dimple arrangements, and/or different dimple counts on the opposing hemispheres.
FAN-SHAPED GOLF BALL DIMPLE
Golf balls include dimples for generating a turbulent boundary layer. At least some of the dimples include a fan-shape. The fan-shaped dimple has a plurality of blades. Each blade has a trailing edge flush with a land area of a spherical surface of the golf ball, a leading edge, and a side wall connected to the leading edge. The dimple also has a sloped floor extending from the trailing edge to the leading edge, a blade tip connecting the leading edge to the trailing edge at a distal end of the blade, and a blade root connecting the leading edge to the trailing edge at a proximal end of the blade.
DIMPLE PATTERNS FOR GOLF BALLS
Golf balls according to the present invention achieve flight symmetry and overall satisfactory flight performance due to a dimple surface volume ratio that is equivalent between opposing hemispheres despite the use of different dimple geometries, different dimple arrangements, and/or different dimple counts on the opposing hemispheres.
DIMPLE PATTERNS FOR GOLF BALLS
A golf ball dimple pattern based on a square dipyramid is disclosed. In one specific aspect, the present disclosure provides for a square dipyramid dimple configuration including dimples having a catenary cross-sectional profile, and a combination of dimples having a circular plan shape and dimples having an elliptical plan shape.
Golf balls having volumetric equivalence on opposing hemispheres and symmetric flight performance and methods of making same
Golf balls according to the present invention achieve flight symmetry and overall satisfactory flight performance due to a dimple surface volume ratio that is equivalent between opposing hemispheres despite the use of different dimple geometries, different dimple arrangements, and/or different dimple counts on the opposing hemispheres.