Abstract: Presented are embodiments for the generation of point clouds on a surface. A surface is described by a mathematical function. The surface may be subdivided into a plurality of patches, a plurality of triangles, or a plurality of rectangles, inter alia. A plurality of points are calculated and distributed among the patches, triangles, or rectangles comprising the surface. Generation of such point clouds may be useful in rendering N-dimensional surfaces for display or output on computer display or output devices.

Abstract: Presented are embodiments for the generation of point clouds on a surface. A surface is described by a mathematical function. The surface may be subdivided into a plurality of patches, a plurality of triangles, or a plurality of rectangles, inter alia. A plurality of points are calculated and distributed among the patches, triangles, or rectangles comprising the surface. Generation of such point clouds may be useful in rendering N-dimensional surfaces for display or output on computer display or output devices.

Abstract: Novel and simple methods, systems, and computer program products for implementing a 3D rotation using input from a mouse, trackball, or other input device are described. Methods of implementing rotations are presented which lead to new realizations of the 3D rotation group and its double-cover, the unit quaternions. New methods, systems, and computer program products are also presented for interpolating rotations of a 3D scene that is more efficient than previously-known quaternion-based methods. The new methods are also used to derive the quaternion composition formula from the geometry of 3D rotations.

Abstract: Novel and simple methods, systems, and computer program products for implementing a 3D rotation using input from a mouse, trackball, or other input device are described. Methods of implementing rotations are presented which lead to new realizations of the 3D rotation group and its double-cover, the unit quaternions. New methods, systems, and computer program products are also presented for interpolating rotations of a 3D scene that is more efficient than previously-known quaternion-based methods. The new methods are also used to derive the quaternion composition formula from the geometry of 3D rotations.

Abstract: Novel and simple methods, systems, and computer program products for implementing a 3D rotation using input from a mouse, trackball, or other input device are described. Methods of implementing rotations are presented which lead to new realizations of the 3D rotation group and its double-cover, the unit quaternions. New methods, systems, and computer program products are also presented for interpolating rotations of a 3D scene that is more efficient than previously-known quaternion-based methods. The new methods are also used to derive the quaternion composition formula from the geometry of 3D rotations.

Abstract: Presented are embodiments for the generation of point clouds on a surface. A surface is described by a mathematical function. The surface may be subdivided into a plurality of patches, a plurality of triangles, or a plurality of rectangles, inter alia. A plurality of points are calculated and distributed among the patches, triangles, or rectangles comprising the surface. Generation of such point clouds may be useful in rendering N-dimensional surfaces for display or output on computer display or output devices.

Abstract: Novel and simple methods, systems, and computer program products for implementing a 3D rotation using input from a mouse, trackball, or other input device are described. Methods of implementing rotations are presented which lead to new realizations of the 3D rotation group and its double-cover, the unit quaternions. New methods, systems, and computer program products are also presented for interpolating rotations of a 3D scene that is more efficient than previously-known quaternion-based methods. The new methods are also used to derive the quaternion composition formula from the geometry of 3D rotations.