Abstract: A plurality of seating assemblies 9, 10, 7 which may be operatively deployed upon a selectively movable assembly 12 and which includes independently formed and ribbed members what make the deployed seat assemblies light weight and durable.

Abstract: A plurality of seating assemblies 9, 10, 7 which may be operatively deployed upon a selectively movable assembly 12 and which includes independently formed and ribbed members what make the deployed seat assemblies light weight and durable.

Abstract: A rapid deployment assembly 10 which may be placed upon a selectively movable assembly 18, such as by way of example and without limitation, a pickup type truck, or other selectively movable assembly and which allows for rapid ingress and egress into and out of the assembly 18 and such ingress and egress is achieved by the selectively deployment of various members 12, 14, 16 which selectively form steps and which may later cooperatively form a tailgate assembly.

Abstract: A deployment assembly 16 which selectively and efficiently allows entry and exit into and from the bed 12 of a selectively movable assembly and which includes a plurality of independently movable stair assemblies 202, 204, 206 which may be respectively extended and retracted and then placed in a stored upright position to cooperatively form a tailgate.

Abstract: A cover assembly 10 having a cover support portion 30 having various members 34, 36, and 38 each having respective bodies 70 which respectively have a plurality of cells 80 which make the members 34, 36, 38 lightweight and structurally sound, and the members 34, 36, 38 cooperatively deploying a cover 32 over the bed 14 of a selectively movable assembly 12.

Abstract: A movement assembly 40 for use in combination with a selectively movable assembly 10 and which includes ramps 88, 90 which are carried by the assembly 10 without appreciably decreasing the amount of storage space provided by the assembly and which may be selectively deployed to allow for efficient ingress into and egress from the assembly 10.

Abstract: A deployment assembly 16 which selectively and efficiently allows entry and exit into and from the bed 12 of a selectively movable assembly and which includes a plurality of independently movable stair assemblies 202, 204, 206 which may be respectively extended and retracted and then placed in a stored upright position to cooperatively form a tailgate.

Abstract: A plurality of seating assemblies 9, 10, 7 which may be operatively deployed upon a selectively movable assembly 12 and which includes independently formed and ribbed members what make the deployed seat assemblies light weight and durable.

Abstract: A seating system for a vehicle having a cargo bed including a bench assembly for providing seating for personnel. The bench assembly includes a bottom frame assembly having opposing longitudinal edges and a plurality of slats attached to the bottom frame assembly to provide a platform for the seat slats. A back assembly is provided extending from one of the longitudinal edges of the bench assembly. A bracket assembly interconnects the back assembly to the bottom frame assembly. The bracket assembly includes an elongated slot portion and a latch portion permitting the back assembly to translate relative to the bench assembly and pivot relative to the bracket assembly to keep the back assembly erect in a first position and to be disposed in a non-supporting or second position when not in use.

Abstract: A magnetic induction drive for a rotatable driven member in a sealed housing, in particular, a shaft-mounted blade in a blender cup or a shaft-mounted blade in an ice shaver, uses a comparatively thin circular drive plate of a magnetizable material with circumferentially arrayed poles enclosed within a housing secured to a drive shaft. A brushless d.c. motor in a base separate from the housing has a rotor formed as an array of pie-shaped permanent magnet regions that interact with an electronically controlled, rotating electromagnetic field produced by a ring of stator coils. A second such permanent magnet is coupled to rotate coaxially and in unison with the rotor, with poles of opposite polarity aligned and adjacent one another. A steel disc is sandwiched between and bonded to the rotor and the second permanent magnet. The magnetic field (lines of flux) of the second magnet extends axially away from the rotor to induce magnetic poles of opposite polarity in the drive plate.

Abstract: A magnetic induction drive for a rotatable driven member in a sealed housing, in particular, a shaft-mounted blade in a blender cup or a shaft-mounted blade in an ice shaver, uses a comparatively thin circular drive plate of a magnetizable material with circumferentially arrayed poles enclosed within a housing secured to a drive shaft. A brushless d.c. motor in a base separate from the housing has a rotor formed as an array of pie-shaped permanent magnet regions that interact with an electronically controlled, rotating electromagnetic field produced by a ring of stator coils. A second such permanent magnet is coupled to rotate coaxially and in unison with the rotor, with poles of opposite polarity aligned and adjacent one another. A steel disc is sandwiched between and bonded to the rotor and the second permanent magnet. The magnetic field (lines of flux) of the second magnet extends axially away from the rotor to induce magnetic poles of opposite polarity in the drive plate.

Abstract: A magnetic induction drive for a rotatable driven member in a sealed housing, in particular, a shaft-mounted blade in a blender cup, uses a comparatively thin circular plate of a magnetizable material with circumferentially arrayed poles secured within the housing to the shaft. A brushless d.c. motor in a base separate from the housing has a rotor formed as an array of pie-shaped permanent magnet regions that interact with an electronically controlled, rotating electromagnetic field produced by a ring of stator coils. A second such permanent magnet is coupled to rotate coaxially and in unison with the rotor, with poles of opposite polarity aligned and adjacent one another. A steel disc is sandwiched between and bonded to the rotor and the second permanent magnet. The magnetic field (lines of flux) of the second magnet extends axially away from the rotor to induce magnetic poles of opposite polarity in the drive plate.

Abstract: A magnetic induction drive for a rotatable driven member in a sealed housing, in particular, a shaft-mounted blade in a blender cup, uses a comparatively thin circular plate of a magnetizable material with circumferentially arrayed poles secured within the housing to the shaft. A brushless d.c. motor in a base separate from the housing has a rotor formed as an array of pie-shaped permanent magnet regions that interact with an electronically controlled, rotating electromagnetic field produced by a ring of stator coils. A second such permanent magnet is coupled to rotate coaxially and in unison with the rotor, with poles of opposite polarity aligned and adjacent one another. A steel disc is sandwiched between and bonded to the rotor and the second permanent magnet. The magnetic field (lines of flux) of the second magnet extends axially away from the rotor to induce magnetic poles of opposite polarity in the drive plate.

Abstract: A magnetic induction drive for a rotatable driven member in a sealed housing, in particular, a shaft-mounted blade in a blender cup, uses a comparatively thin circular plate of a magnetizable material with circumferentially arrayed poles secured within the housing to the shaft. A brushless d.c. motor in a base separate from the housing has a rotor formed as an array of pie-shaped permanent magnet regions that interact with an electronically controlled, rotating electromagnetic field produced by a ring of stator coils. A second such permanent magnet is coupled to rotate coaxially and in unison with the rotor, with poles of opposite polarity aligned and adjacent one another. A steel disc is sandwiched between and bonded to the rotor and the second permanent magnet. The magnetic field (lines of flux) of the second magnet extends axially away from the rotor to induce magnetic poles of opposite polarity in the drive plate.