Abstract: A method of making an electronics enclosure that is light-weight, structurally sound and EMI resistant is provided. Preferably the electronics enclosure is made by covering the walls of a mold for the chassis and the lid with a metallic mesh. At least two plies of carbon prepreg are applied over the metallic mesh. The carbon prepreg and metallic mesh are then cured together at high temperature, typically in an autoclave. The wire mesh becomes integrated into the composite material during the curing process when the carbon material shrinks to the mold and the epoxy bonds with the wire mesh. The molds may then be removed leaving an electronics enclosure with superior properties.

Abstract: A method of making an electronics enclosure that is light-weight, structurally sound and EMI resistant is provided. Preferably the electronics enclosure is made by covering the walls of a mold for the chassis and the lid with a metallic mesh. At least two plies of carbon prepreg are applied over the metallic mesh. The carbon prepreg and metallic mesh are then cured together at high temperature, typically in an autoclave. The wire mesh becomes integrated into the composite material during the curing process when the carbon material shrinks to the mold and the epoxy bonds with the wire mesh. The molds may then be removed leaving an electronics enclosure with superior properties.

Abstract: A composite part includes a first composite section and a second composite section connected by a flexible section. The first composite section has a laminated structure including multiple layers of reinforcement material supported by a matrix material. The second composite section has a laminated structure including multiple layers of reinforcement material supported by a matrix material, and a flexible composite section joins the first composite section to the second composite section. The flexible composite includes multiple layers of a fabric material supported by a flexible elastomer. The multiple layers of the fabric material overlap with the first composite section and the second composite section by being layered in between at least a portion of the multiple layers of reinforcement material forming the laminated structures of the first composite section and the second composite section.

Abstract: A composite part includes a first composite section and a second composite section connected by a flexible section. The first composite section has a laminated structure including multiple layers of reinforcement material supported by a matrix material. The second composite section has a laminated structure including multiple layers of reinforcement material supported by a matrix material, and a flexible composite section joins the first composite section to the second composite section. The flexible composite includes multiple layers of a fabric material supported by a flexible elastomer. The multiple layers of the fabric material overlap with the first composite section and the second composite section by being layered in between at least a portion of the multiple layers of reinforcement material forming the laminated structures of the first composite section and the second composite section.

Abstract: A movable power implement is provided for operation by an operator positioned adjacent to the implement and the operator directs the implement via a handle of the implement. The implement includes a lower portion having a base, a motor located on the base, a driven operational mechanism operatively connected to the motor for driven operation, a first handle portion connected to the base, a second handle portion connected to the first handle portion, and a handle height adjustment apparatus. The handle height adjustment apparatus includes a connection mechanism adjustably connecting the second handle portion to the first handle portion. The connection mechanism includes a first pin located on one of the first and second handle portions and a plurality of pin receptacles located on the other of the first and second handle portions. The first pin is locatable into a respective pin receptacle for each respective adjusted position of the second handle portion.

Abstract: A movable power implement is provided for operation by an operator positioned adjacent to the implement and the operator directs the implement via a handle of the implement. The implement includes a lower portion having a base, a motor located on the base, a driven operational mechanism operatively connected to the motor for driven operation, a first handle portion connected to the base, a second handle portion connected to the first handle portion, and a handle height adjustment apparatus. The handle height adjustment apparatus includes a connection mechanism adjustably connecting the second handle portion to the first handle portion. The connection mechanism includes a first pin located on one of the first and second handle portions and a plurality of pin receptacles located on the other of the first and second handle portions. The first pin is locatable into a respective pin receptacle for each respective adjusted position of the second handle portion.