Abstract: A fiber reinforced plastic compression-tension component for connecting two mechanical parts is provided. The component has a curved connection member connecting two coupling units. A portion of the curved connection member has a substantially U-shaped cross-sectional geometry. The U-shaped cross-sectional geometry may comprise upright portions with winglets extending outward. The geometry of the compression-tension component allows it to replace a heavier compression-tension component made of metal and having a different geometry.

Abstract: The disclosed embodiments relate to a lacrosse head and a method of manufacture to form the same. A lacrosse head may include a scoop, a throat, and a pair of opposed sidewalls configured to interconnect the scoop to the throat, each sidewall having an interior edge and an exterior edge. The lacrosse head may further include a hub connected to the throat, the hub including a socket configured to receive a stick. Additionally, at least one of the scoop, throat, pair of opposed sidewalls, and hub comprise a matrix material embedded with a plurality of substantially randomly dispersed reinforcing fibers. A method of forming a lacrosse head may include forming a mold assembly having a positive side and a negative side, mixing a composite matrix material by feeding chopped reinforcing fibers randomly into a resinous material, setting the matrix material into the mold assembly, and closing the mold assembly.

Abstract: The disclosed embodiments relate to a lacrosse head and a method of manufacture to form the same. A lacrosse head may include a scoop, a throat, and a pair of opposed sidewalls configured to interconnect the scoop to the throat, each sidewall having an interior edge and an exterior edge. The lacrosse head may further include a hub connected to the throat, the hub including a socket configured to receive a stick. Additionally, at least one of the scoop, throat, pair of opposed sidewalls, and hub comprise a matrix material embedded with a plurality of substantially randomly dispersed reinforcing fibers. A method of forming a lacrosse head may include forming a mold assembly having a positive side and a negative side, mixing a composite matrix material by feeding chopped reinforcing fibers randomly into a resinous material, setting the matrix material into the mold assembly, and closing the mold assembly.

Abstract: The described bicycle has a frame made of a composite material and defining a monocoque shell which is monolithic, entirely formed of the composite material, and includes: a rear upper portion, a head tube portion, and a rear mounting portion; and first and second side panels each extending between, and integrally formed with, at least the head tube portion at a forward end and the rear upper portion and the rear mounting portion at a rearward end. The first and second side panels are integrally interconnected along their respective top and bottom edges to form a substantially hollow shell structure at least partially enclosing a shell cavity defined between the laterally spaced apart first and second side panels. The hollow shell structure defines a rear opening between the rear upper portion and the rear mounting portion that communicates with the shell cavity.

Abstract: The disclosed embodiments relate to a lacrosse head and a method of manufacture to form the same. A lacrosse head may include a scoop, a throat, and a pair of opposed sidewalls configured to interconnect the scoop to the throat, each sidewall having an interior edge and an exterior edge. The lacrosse head may further include a hub connected to the throat, the hub including a socket configured to receive a stick. Additionally, at least one of the scoop, throat, pair of opposed sidewalls, and hub comprise a matrix material embedded with a plurality of substantially randomly dispersed reinforcing fibers. A method of forming a lacrosse head may include forming a mold assembly having a positive side and a negative side, mixing a composite matrix material by feeding chopped reinforcing fibers randomly into a resinous material, setting the matrix material into the mold assembly, and closing the mold assembly.

Abstract: The described bicycle has a frame made of a composite material and defining a monocoque shell which is monolithic, entirely formed of the composite material, and includes: a rear upper portion, a head tube portion, and a rear mounting portion; and first and second side panels each extending between, and integrally formed with, at least the head tube portion at a forward end and the rear upper portion and the rear mounting portion at a rearward end. The first and second side panels are integrally interconnected along their respective top and bottom edges to form a substantially hollow shell structure at least partially enclosing a shell cavity defined between the laterally spaced apart first and second side panels. The hollow shell structure defines a rear opening between the rear upper portion and the rear mounting portion that communicates with the shell cavity.