Abstract: A torque converter having an impeller, a turbine, and a stator disposed between the impeller and the turbine is provided. The torque converter has an axially thin design, with a torus width to torque converter diameter ratio of about 0.15 to 0.17, by way of example. In some variations, the stator has twisted blades that have lower shell blade angles than core blade angles with respect to the center line of torque converter flow, at both the inlet and outlet.

Abstract: Battery packs are retained by frames which are comprised of plastic beams and aluminum corner connectors that peripherally surround the battery packs. The plastic beams are tensioned by tensioning bolts which pass through the aluminum corner connectors and thread into threaded pin inserts laterally seated in the beams. As the tensioning bolts are advanced into the inserts the beams are axially tensioned. Damping pads are disposed between the separate battery modules of the battery packs, as well as at the corners of the frames, to both absorb vibrational and spike impacts. The damping pads frictionally engage the outer surfaces of the battery cases so that the batteries will not move in the Z-axis direction.

Abstract: Battery packs are retained by frames which are comprised of plastic beams and aluminum corner connectors that peripherally surround the battery packs. The plastic beams are tension by tensioning bolts which pass through the aluminum corner connectors and thread into threaded pin inserts laterally seated in the beams. As the tensioning bolts are advanced into the inserts the beams are axially tensioned. Damping pads are disposed between the separate battery modules of the battery packs, as well as at the corners of the frames, to both absorb vibrational and spike impacts. The damping pads frictionally engage the outer surfaces of the battery cases so that the batteries will not move in the Z-axis direction, thus minimizing the risk that battery interconnections will be damaged. The frames rest on a supporting surface, such as the surfaces of a battery pack tray.

Abstract: A draining device including a threaded portion, the threaded portion depending outwardly from an annular portion and having an inner opening in fluid communication with a pair of openings in the annular portion, where said pair of openings provides a pathway for draining.

Abstract: A battery pack for an electric/hybrid vehicle that includes a plurality of batteries stacked in layers one atop the other and electrically coupled together to provide the necessary power to the vehicle. The plurality of batteries is supported on an underlying base. A plurality of spacers are disposed above and below each layer for separating the layers of batteries and providing air passages around the batteries to allow air flow around the batteries to provide heating or cooling of the batteries. A retention frame affixes the batteries to the base to restrict movement of the batteries. The frame includes a plurality of beams that are interconnected and extend along the ends of the batteries. The beams apply a vertical force against the batteries, thereby fixing them rigidly to the base.

Abstract: A method and apparatus for cooling an electric motor including an electric motor having a stator, a rotor magnetically coupled to the stator, and a hollow motor shaft coupled to the rotor, rotating the rotor and the motor shaft, and generating a centrifugal force to force a liquid coolant through the hollow motor shaft.

Abstract: A draining device including a threaded portion, the threaded portion depending outwardly from an annular portion and having an inner opening in fluid communication with a pair of openings in the annular portion, where said pair of openings provides a pathway for draining.

Abstract: A battery pack for an electric/hybrid vehicle including a cooling system that provides a substantially uniform cooling of the batteries within the pack. The battery pack includes a base that supports the batteries stacked in layers one atop the other. Each battery includes a plurality of cells with cooling air channels between them. A retention frame overlays and is affixed to the batteries to restrict the movement of the batteries within the pack. The batteries are held in spacers disposed above and below each layer of batteries. The spacers provide air passages above and below the batteries to allow cool air to flow across the batteries and through the cooling channels. An inlet admits cool air into the pack and an outlet releases the air from the pack after it is has passed through the stack of batteries. A front manifold is connected to the inlet and includes a plurality of separate runners for evenly splitting the air between the spacers below each layer of batteries.

Abstract: A battery pack for an electric/hybrid vehicle including a cooling system that provides a substantially uniform cooling of the batteries within the pack. The battery pack includes a base that supports the batteries stacked in layers one atop the other. Each battery includes a plurality of cells with cooling air channels between them. A retention frame overlays and is affixed to the batteries to restrict the movement of the batteries within the pack. The batteries are held in spacers disposed above and below each layer of batteries. The spacers provide air passages above and below the batteries to allow cool air to flow across the batteries and through the cooling channels. An inlet admits cool air into the pack and an outlet releases the air from the pack after it is has passed through the stack of batteries. A front manifold is connected to the inlet and includes a plurality of separate runners for evenly splitting the air between the spacers below each layer of batteries.