Abstract: An apparatus for lifting and moving a patient including a cart assembly with at least one drive wheel assembly secured thereto, a carriage assembly that is rotatably secured to the cart assembly, the carriage assembly including a lift assembly with a support arm, a patient support device operably secured to the support arm, and a counterweight assembly, the counterweight being movable along a longitudinal axis of the carriage assembly.

Abstract: A method is provided, comprising: forming a porous body from an additive manufacturing powder and binder mixture, the porous body including opposing surface portions comprising top and bottom surface portions; placing the porous body on a vacuum table, wherein the vacuum table causes a negative air pressure within the porous body; and applying a tooling gel coat to the top surface portion, wherein the tooling gel coat is drawn into the porous body by the negative air pressure. In another aspect, a RTM tool is provided, comprising: a cavity and a core; wherein the cavity and the define a hollow; wherein the cavity and the core are formed as a porous body, wherein the cavity and core include a forming surface, wherein the cavity and core are each placed upon a vacuum table after which a tooling gel coat is applied to the forming surface.

Abstract: An additive manufactured part is formed as a solid body of material including additive manufacturing powder, binder material supporting the powder in the shape of the solid body, and strengthening resin infused within the solid body. The additive manufacturing powder can be sand. The infused resin can be a two-part resin wherein an inert gas is added to the mixture of the two parts of the two-part resin during mixing. The infused resin can be infused inwardly from the peripheral surface of the solid body and can penetrate partially or fully through the thickness of the solid body.

Abstract: An additive manufactured part is formed as a solid body of material including additive manufacturing powder, binder material supporting the powder in the shape of the solid body, and strengthening resin infused within the solid body. The additive manufacturing powder can be sand. The infused resin can be a two-part resin wherein an inert gas is added to the mixture of the two parts of the two-part resin during mixing. The infused resin can be infused inwardly from the peripheral surface of the solid body and can penetrate partially or fully through the thickness of the solid body.

Abstract: An additive manufactured part is formed as a solid body of material including additive manufacturing powder, binder material supporting the powder in the shape of the solid body, and strengthening resin infused within the solid body. The additive manufacturing powder can be sand. The infused resin can be a two-part resin wherein an inert gas is added to the mixture of the two parts of the two-part resin during mixing. The infused resin can be infused inwardly from the peripheral surface of the solid body and can penetrate partially or fully through the thickness of the solid body.

Abstract: An electrical terminal assembly includes at least one terminal, at least one terminal seal, and a terminal retainer. The terminal has a head and a shank, and the shank is configured to be received by a structure having an aperture. The terminal seal is configured to receive and engage the shank, and the shank is configured to engage the structure proximate the aperture. The terminal seal cooperates with the shank and the structure to resist ingress of contaminants into the aperture. The terminal retainer is configured to receive and selectably engage the head of the terminal and to electrically insulate the head. The terminal retainer is further configured to secure the terminal against rotation.

Abstract: An electrical terminal assembly includes at least one terminal, at least one terminal seal, and a terminal retainer. The terminal has a head and a shank, and the shank is configured to be received by a structure having an aperture. The terminal seal is configured to receive and engage the shank, and the shank is configured to engage the structure proximate the aperture. The terminal seal cooperates with the shank and the structure to resist ingress of contaminants into the aperture. The terminal retainer is configured to receive and selectably engage the head of the terminal and to electrically insulate the head. The terminal retainer is further configured to secure the terminal against rotation.