Abstract: The system may include a sheet of tape comprised of one-piece with a second side including an adhesive surface; a backing surface removably adhered to the second side of the sheet of tape; a first edge of the sheet of tape being a straight edge; the second edge being a length from a heel area to a toe area of a blade of a hockey stick; the second edge including a concave portion shaped similar to a curve of a top of the blade; the third edge being a length from the heel area to the toe area of the blade; the third edge including a concave portion shaped similar to the curve of the top of the blade; and the fourth edge including two convex portions shaped similar to a toe of the blade.

Abstract: A hockey-stick includes a blade and a shaft. The blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The blade optionally also includes a hosel to which the shaft is attached. One or more tuning rods or similar structures are positioned in the blade to increase the blade's stiffness to substantially match the stiffness of the shaft. The tuning rods are optionally located in the mid-region of the blade and may extend into the hosel and, in some cases, into the shaft or the toe region.

Abstract: A method of fabricating a formed structure with expandable polymeric shell microspheres. A first plurality of polymeric shell microspheres are heated from an unexpanded state to an expanded state to form a plurality of expanded microspheres. The plurality of expanded microspheres are mixed with an epoxy resin and a second plurality of unexpanded polymeric shell microspheres. The mixture is formed in a shape to create a preform. The preform is wrapped with fiber tape to create a wrapped preform. The wrapped preform is placed in a mold. The mold is heated and the second plurality of unexpanded microspheres expand from an unexpanded state to an expanded state. The mold is cooled and the formed structure is removed from the mold.

Abstract: A construct for a hockey blade that includes a foam core. The foam core includes a first core face, a second core face, and a core edge. A first layer of resin preimpregnated tape is wrapped continuously around the first core face, the core edge and the second core face. A thread is stitched along the first layer of preimpregnated tape. A second layer of resin preimpregnated tape wrapped continuously around the first layer of resin preimpregnated tape.

Abstract: A hockey-stick includes a blade and a shaft. The blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The blade optionally also includes a hosel to which the shaft is attached. One or more tuning rods or similar structures are positioned in the blade to increase the blade's stiffness to substantially match the stiffness of the shaft. The tuning rods are optionally located in the mid-region of the blade and may extend into the hosel and, in some cases, into the shaft or the toe region.

Abstract: A hockey stick blade includes a blade member extending in a longitudinal direction from a heel end to a toe end. The blade includes forehand and backhand puck-engaging surfaces extended between said ends. An extension is joined to or formed with the toe end of the blade member and extends away from the toe end of the blade member in a backhand direction. The extension and a portion of the blade member at the toe end joined to the extension form a L-shaped structure, preferably, wherein a thickness of the extension at an extension center portion, approximately half way toward a remote end of the extension, is less than or about equal to a thickness of a center portion of the blade member between the heel end and the toe end.

Abstract: A construct for a hockey stick that includes a shaft having with variable cross-sectional geometry. The shaft may include one or more portions with pentagonal and heptagonal cross-sections that increase the bending stiffness of the hockey stick shaft.

Abstract: A stickhandling tool has a first hockey stick blade, a second hockey stick blade, and a structural part with a cross member that connects to and laterally separates the first hockey stick blade and the second hockey stick blade to define a ball or puck receiving cavity between the first hockey stick blade and the second hockey stick blade.

Abstract: A hockey-stick blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The toe region includes one or more reinforcing elements, optionally of different lengths, located at different vertical positions within the toe region. The blade further includes a hosel that optionally is tailored to substantially match the strength and stiffness characteristics of an attached or integral hockey-stick shaft. The mid-region of the blade exhibits improved feel and flexibility characteristics due to the increased stiffness in the toe region.

Abstract: A modified hockey stick comprises a handle and a blade. The blade comprises at least one opening configured in the bottom surface of the blade. The at least one opening extends in an upward direction within the blade of the modified hockey stick. The opening is configured to receive a shank of a wheel for supporting rolling movement of the modified hockey stick on a playing surface.

Abstract: A blade for a hockey stick which can readily absorb impact from the puck, and can allow the user to feel the puck on the blade in contrast to conventional carbon fiber blades. The blade can include a blade member integrally formed of composite material having discontinuous fibers bonded within thermosetting resin. The blade member can have a blade periphery surrounding a central blade region. The central blade region can have a plurality of openings arranged in a pattern to form series of elongate criss crossing ribs that extend between and connect different sides of the blade periphery to each other. The fibers in the blade periphery can be in a generally jumbled orientation, and the fibers in the central blade region can be positioned within the ribs in a manner wherein each rib contains a plurality of fibers that substantially extend in said each rib's elongate direction.

Abstract: A construct for a hockey blade that includes a foam core. The foam core includes a first core face, a second core face, and a bottom core edge and a top core edge. Multiple pins are injected into the foam core, and one or more layers of resin preimpregnated tape are wrapped around the foam before forming a hockey blade structure in a heated mold.

Abstract: A hockey-stick blade includes a reinforcing frame that provides improved strength, rigidity, and impact resistance. The reinforcing frame may be continuous along the top, bottom, and toe edges of the hockey-stick blade. The reinforcing frame optionally is a tubular structure made of fiber-reinforced epoxy resin. The interior of the reinforcing frame may include a core made of a resilient material, such as an expandable syntactic foam. Fiber reinforcement may also be included in the frame's construction.

Abstract: A sporting good implement, such as a hockey stick or ball bat, includes a main body. The main body may be formed from multiple layers of a structural material, such as a fiber-reinforced composite material. One or more microlattice structures may be positioned between layers of the structural material. One or more microlattice structures may additionally or alternatively be used to form the core of a sporting good implement, such as a hockey-stick blade. The microlattice structures improve the performance, strength, or feel of the sporting good implement.

Abstract: A hockey-stick includes a blade and a shaft. The blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The blade optionally also includes a hosel to which the shaft is attached. One or more tuning rods or similar structures are positioned in the blade to increase the blade's stiffness to substantially match the stiffness of the shaft. The tuning rods are optionally located in the mid-region of the blade and may extend into the hosel and, in some cases, into the shaft or the toe region.

Abstract: A hockey-stick blade includes a reinforcing frame that provides improved strength, rigidity, and impact resistance. The reinforcing frame may be continuous along the top, bottom, and toe edges of the hockey-stick blade. The reinforcing frame optionally is a tubular structure made of fiber-reinforced epoxy resin. The interior of the reinforcing frame may include a core made of a resilient material, such as an expandable syntactic foam. Fiber reinforcement may also be included in the frame's construction.

Abstract: A hockey stick blade comprising a front and a rear blade face, the front blade face comprising at least one front layer of reinforcing fiber material having a first reinforcing fiber density, and the rear blade face comprising at least one rear layer of reinforcing fiber material having a second reinforcing fiber density, the first reinforcing fiber density differing from the second reinforcing fiber density. A hockey stick having such a blade is also disclosed.

Abstract: A hockey stick blade with a rear face and a front face having a heel portion, a toe portion spaced apart from the heel portion, and a central portion intermediate the toe and heel portions. The front face has a textured zone defined by a plurality of front protrusions, and a front face reduced-texture zone. At least part of the textured zone extends in the central portion from a lower edge of the blade. The reduced-texture zone extends adjacent the front face textured zone. At least part of the reduced-textured zone extends in the central portion from an upper edge of the blade and in the toe portion from the lower edge of the blade. The textured zone extends in the toe portion upwardly from the reduced-texture zone.

Abstract: A hockey stick blade of a type having a puck-striking body of weight and an imparting construction material inclined at a selected angle for driving a struck puck a corresponding selected height during its trajectory, has spaced-apart top and bottom surfaces bounding a striking surface there between. A method of improving weight distribution includes removing construction material from the top surface, relocating at least part of said removed construction material or its weight from top surface to clearance positions below the top surface located toward the bottom surface. The removed construction material is from a location not used during puck-striking service of the hockey stick blade, and the removed construction material in the relocated positions contribute to increasing the height attained by the puck struck by the blade.

Abstract: A two-part hockey stick having a hockey stick blade and a hockey stick shaft joined together at a joint. The hockey stick has a blade with a neck, a heel, and a toe. The joint has a male joint portion on an end of the shaft, which has heel and opposed toe walls, each of which extend away from a distal surface of the shaft and terminate at a mating surface. The heel wall is disposed on a side of the joint adjacent to a heel of the blade, and is longer than the toe wall. The mating surface extends between the heel and toe walls. The joint also has a hollow female joint portion disposed in a neck of the blade. The male joint portion mates with the female joint portion, thereby joining the shaft to the blade and forming the hockey stick.

Abstract: A construct for a hockey blade that includes a foam core. The foam core includes a first core face, a second core face, and a core edge. A first layer of resin preimpregnated tape is wrapped continuously around the first core face, the core edge and the second core face. A thread is stitched along the first layer of preimpregnated tape. A second layer of resin preimpregnated tape wrapped continuously around the first layer of resin preimpregnated tape.

Abstract: A hockey-stick includes a blade and a shaft. The blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The blade optionally also includes a hosel to which the shaft is attached. One or more tuning rods or similar structures are positioned in the blade to increase the blade's stiffness to substantially match the stiffness of the shaft. The tuning rods are optionally located in the mid-region of the blade and may extend into the hosel and, in some cases, into the shaft or the toe region.

Abstract: A reinforced hockey stick blade and a related method of manufacture are provided. The hockey stick blade can include a core element defining one or more longitudinal channels bounded by an upper core portion, a lower core portion, and a bridge portion interconnecting the upper and lower core portions. The hockey stick blade can additionally include a plurality of fiber-reinforced plies substantially encapsulating the core element and a reinforcing material received within the one or more longitudinal channels. The reinforcing material can extend longitudinally from a first channel end portion to a second channel end portion, and can include woven or unidirectional fiber-reinforced plies. The reinforcing material can additionally extend transversely across the channel to form a blade structure having increased blade strength and durability over existing composite hockey stick blades.

Abstract: A hockey-stick blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The toe region includes one or more reinforcing elements, optionally of different lengths, located at different vertical positions within the toe region. The blade further includes a hosel that optionally is tailored to substantially match the strength and stiffness characteristics of an attached or integral hockey-stick shaft. The mid-region of the blade exhibits improved feel and flexibility characteristics due to the increased stiffness in the toe region.

Abstract: A hockey-stick blade includes a reinforcing frame that provides improved strength, rigidity, and impact resistance. The reinforcing frame may be continuous along the top, bottom, and toe edges of the hockey-stick blade. The reinforcing frame optionally is a tubular structure made of fiber-reinforced epoxy resin. The interior of the reinforcing frame may include a core made of a resilient material, such as an expandable syntactic foam. Fiber reinforcement may also be included in the frame's construction.

Abstract: A hockey stick includes a blade and a shaft meeting at an elbow region. A crown located along the top edge of the elbow region has an increased width, an increased height, or both, relative to crowns found in existing hockey blades. This enhanced crown helps to transfer load (or energy) from the shaft to the blade in the elbow region where such transfer is limited by existing designs. It does so without sacrificing puck handling and control, since the puck-contacting faces of the blade are not affected by the presence of the crown.

Abstract: A hockey-stick includes a blade and a shaft. The blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The blade optionally also includes a hosel to which the shaft is attached. One or more tuning rods or similar structures are positioned in the blade to increase the blade's stiffness to substantially match the stiffness of the shaft. The tuning rods are optionally located in the mid-region of the blade and may extend into the hosel and, in some cases, into the shaft or the toe region.

Abstract: A hockey-stick blade includes a reinforcing frame that provides improved strength, rigidity, and impact resistance. The reinforcing frame may be continuous along the top, bottom, and toe edges of the hockey-stick blade. The reinforcing frame optionally is a tubular structure made of fiber-reinforced epoxy resin. The interior of the reinforcing frame may include a core made of a resilient material, such as an expandable syntactic foam. Fiber reinforcement may also be included in the frame's construction.

Abstract: The hockey stick has a plastic wear strip along the bottom edge of the blade of the stick. Preferably the wear strip is of polyurethane having a flexural modulus in the range of 300 to 550 MPa at room temperature and 1200 to 1400 MPa at ?30 degrees Celsius. In a goaltender's stick having a foam core, the wear strip is inserted in a mold and integrally formed with the core of the stick. The wear strip preferably is manufactured via a RIM process, then the core of the stick is molded with the wear strip and stick shaft in position, and then conventional finishing steps are applied, with fiberglass overlays for example.

Abstract: A hockey stick blade comprising a front and a rear blade face, the front blade face comprising at least one front layer of reinforcing fiber material having a first reinforcing fiber density, and the rear blade face comprising at least one rear layer of reinforcing fiber material having a second reinforcing fiber density, the first reinforcing fiber density differing from the second reinforcing fiber density. A hockey stick having such a blade is also disclosed.

Abstract: A hockey stick blade with a rear face and a front face having a heel portion, a toe portion spaced apart from the heel portion, and a central portion intermediate the toe and heel portions. The front face has a textured zone defined by a plurality of front protrusions, and a front face reduced-texture zone. At least part of the textured zone extends in the central portion from a lower edge of the blade. The reduced-texture zone extends adjacent the front face textured zone. At least part of the reduced-textured zone extends in the central portion from an upper edge of the blade and in the toe portion from the lower edge of the blade. The textured zone extends in the toe portion upwardly from the reduced-texture zone.

Abstract: A hockey stick blade comprising a front and a rear blade face, the front blade face comprising at least one front layer of reinforcing fiber material having a first reinforcing fiber density, and the rear blade face comprising at least one rear layer of reinforcing fiber material having a second reinforcing fiber density, the first reinforcing fiber density differing from the second reinforcing fiber density. A hockey stick having such a blade is also disclosed.

Abstract: A blade of/for a hockey stick having: a toe, a heel, rear face, and front face. The front face has a striking surface intermediate the toe and the heel, and a plurality of front protrusions forming a front face textured zone extending along a portion of the front face proximate the toe and the striking surface. The front protrusions are shaped to be engageable with a puck to hinder slippage of the puck along the front face when the puck is in contact with the front protrusions. The front face also has a front face reduced-texture zone (which may be at least one of a front face non-textured zone and a front face less-textured zone). The rear face may optionally be similarly configured.

Abstract: A dual-core blade and method for manufacturing a dual-core blade are disclosed. The blade is formed with a first core portion and a second core portion comprising an epoxy having a plurality of expanded microspheres. The method of forming the two foams generally comprises sizing a foam core to form a first core portion and providing and preparing an epoxy mixture to form a second core portion. The first core portion and the second core portion of the epoxy mixture are placed into a preform, and the preform is heated slightly so as to cause the epoxy mixture to flow into the shape of the preform and around the first core portion. The first core portion and the second core portion are then bonded in a molding operation. The formed structure can form part of a hockey stick blade.

Abstract: A hockey-stick blade includes a heel region, a toe region spaced longitudinally from the heel region, and a mid-region located between the heel region and the toe region. The toe region includes one or more reinforcing elements, optionally of different lengths, located at different vertical positions within the toe region. The blade further includes a hosel that optionally is tailored to substantially match the strength and stiffness characteristics of an attached or integral hockey-stick shaft. The mid-region of the blade exhibits improved feel and flexibility characteristics due to the increased stiffness in the toe region.

Abstract: Here is disclosed a hockey training aid for use with a hockey stick which teaches the player how to correctly capture and shoot the puck. The hockey training aid includes a resilient plastic member mounted to the hockey stick blade. The plastic member consists of a curved plastic web having a middle portion mounted to the hockey stick blade and first and second arms projecting from the middle portion. The arms curve away from the blade in an arch like or cup like fashion. The first arm is configured to be movable between a first position wherein the arm projects away from the blade and a second position wherein the arm is flat against the blade. The first arm is biased towards its first position.

Abstract: A dual-core blade and method for manufacturing a dual-core blade are disclosed. The blade is formed with a first core portion and a second core portion comprising an epoxy having a plurality of expanded microspheres. The method of forming the two foams generally comprises sizing a foam core to form a first core portion and providing and preparing an epoxy mixture to form a second core portion. The first core portion and the second core portion of the epoxy mixture are placed into a preform, and the preform is heated slightly so as to cause the epoxy mixture to flow into the shape of the preform and around the first core portion. The first core portion and the second core portion are then bonded in a molding operation. The formed structure can form part of a hockey stick blade.

Abstract: A goalie hockey stick having a handle with a handle top end and a handle bottom end, the handle bottom end having a first female receiver therein, a paddle with a paddle top end and a paddle bottom end, the paddle top end having a first male end disposed thereon, the bottom end having a second female receiver therein, the first male end being inserted into the first female receiver, and a blade with a blade top end and a blade bottom end, the blade top end having a second male end disposed thereon, the second male end being inserted into the second female receiver. The handle, the paddle, and the blade are removably connected to one another.

Abstract: A hockey stick blade comprising a front and a rear blade face, the front blade face comprising at least one front layer of reinforcing fiber material having a first reinforcing fiber density, and the rear blade face comprising at least one rear layer of reinforcing fiber material having a second reinforcing fiber density, the first forcing, fiber density differing from the second reinforcing fiber density. A hockey stick having such a blade is also disclosed.

Abstract: A blade for a hockey stick includes a front face, a rear face, a first end operable to be connected to a blade connecting end of a handle portion, a second end that is opposite the first end, an upper edge that extends between the first and second ends, and a lower edge that extends between the first and second ends. The blade includes a resiliently compressible core member and a covering member that partially encases the resiliently compressible core member. The covering member defines an exterior surface of the blade and includes an opening on the lower edge of the blade that exposes the resiliently compressible core member.

Abstract: A blade for a hockey stick which can readily absorb impact from the puck, and can allow the user to feel the puck on the blade in contrast to conventional carbon fiber blades. The blade can include a blade member integrally formed of composite material having discontinuous fibers bonded within thermosetting resin. The blade member can have a blade periphery surrounding a central blade region. The central blade region can have a plurality of openings arranged in a pattern to form series of elongate criss crossing ribs that extend between and connect different sides of the blade periphery to each other. The fibers in the blade periphery can be in a generally jumbled orientation, and the fibers in the central blade region can be positioned within the ribs in a manner wherein each rib contains a plurality of fibers that substantially extend in said each rib's elongate direction.

Abstract: A hockey stick blade comprising a front and a rear blade face, the front blade face comprising at least one front layer of reinforcing fiber material having a first reinforcing fiber density, and the rear blade face comprising at least one rear layer of reinforcing fiber material having a second reinforcing fiber density, the first reinforcing fiber density differing from the second reinforcing fiber density. A hockey stick having such a blade is also disclosed.

Abstract: Structural damage repair elements including inserts and a structural damage repair kit is provided. The structural damage repair elements typically include two or more layers of materials having an adhesive therebetween that are subsequently compressed together. The structural damage repair kit includes a chemical molding agent, an optional jig, one or more structural damage repair elements and a sealant. Both hollow and solid elongated objects, as well as relatively flat, curved objects may be repaired with the kit. The structural damage repair elements include rods, wafers, and/or adhesive saturated inserts.

Abstract: Hockey stick configurations and hockey stick blade constructs are disclosed. The blade is comprised of one or more inner core elements, surrounded by one or more walls made of reinforcing fibers or filaments disposed in a hardened matrix resin material. One or more of the inner core elements optionally comprises an elastomer material.

Abstract: A hockey stick blade comprising an elongated fiber-reinforced polymer body having a fiber-reinforced polymer front face element and a fiber-reinforced polymer rear face element. The rear face element is spaced apart from the front face element. The blade also comprises a plurality of elongated longitudinal cavities within the body between the front face element and the rear face element. The longitudinal cavities have curved ends in transverse cross-section. The longitudinal cavities define at least one fiber-reinforced polymer structural member interconnecting the front face element and the rear face element. The at least one structural element is biconcave in transverse cross-section. The hockey stick blade has a neck, a heel and a toe. A method of bladder molding a hockey stick blade is also disclosed.

Abstract: A cushioned tape to improve the playability and feel of a hockey stick blade is disclosed. The cushioned tape contains a bottom adhesive layer, a middle cushioned layer, and a top film layer. The cushioned tape is designed to be overwrapped with protective tape such as traditional cloth hockey tape. Additionally, the cushioned tape can be used to improve the handle and grip portion of other sporting implements.

Abstract: A reinforced hockey stick blade and a related method of manufacture are provided. The hockey stick blade can include a core element defining one or more longitudinal channels bounded by an upper core portion, a lower core portion, and a bridge portion interconnecting the upper and lower core portions. The hockey stick blade can additionally include a plurality of fiber-reinforced plies substantially encapsulating the core element and a reinforcing material received within the one or more longitudinal channels. The reinforcing material can extend longitudinally from a first channel end portion to a second channel end portion, and can include woven or unidirectional fiber-reinforced plies. The reinforcing material can additionally extend transversely across the channel to form a blade structure having increased blade strength and durability over existing composite hockey stick blades.

Abstract: A blade of/for a hockey stick having: a toe, a heel, rear face, and front face. The front face has a striking surface intermediate the toe and the heel, and a plurality of front protrusions forming a front face textured zone extending along a portion of the front face proximate the toe and the striking surface. The front protrusions are shaped to be engageable with a puck to hinder slippage of the puck along the front face when the puck is in contact with the front protrusions. The front face also has a front face reduced-texture zone (which may be at least one of a front face non-textured zone and a front face less-textured zone). The rear face may optionally be similarly configured.

Abstract: A construct for a hockey blade that includes a foam core. The foam core includes a first core face, a second core face, and a core edge. A first layer of resin preimpregnated tape is wrapped continuously around the first core face, the core edge and the second core face. A thread is stitched along the first layer of preimpregnated tape. A second layer of resin preimpregnated tape wrapped continuously around the first layer of resin preimpregnated tape.

Abstract: A hockey stick blade comprising a front and a rear blade face, the front blade face comprising at least one front layer of reinforcing fiber material having a first reinforcing fiber density, and the rear blade face comprising at least one rear layer of reinforcing fiber material having a second reinforcing fiber density, the first reinforcing fiber density differing from the second reinforcing fiber density. A hockey stick having such a blade is also disclosed.