Abstract: A cargo box (10) reinforcement system (20) includes an upper front panel reinforcement (22) securable to a cargo box front panel (18) and side wall panels (14, 16). The system (20) including a pair of side reinforcements (24, 26). Each side reinforcement (24, 26) is securable to one side of the pair of side panels (14, 16) of the cargo box (10). Each side reinforcement (24, 26) is secured with an end (40) of the upper front panel reinforcement (22). Also, the system (20) includes a pair of gussets (28, 30). Each gusset (28, 30) is coupled with the upper front panel reinforcement (22) and one of the pair of side reinforcements (24, 26).

Abstract: A vehicle cross member has a beam with an overall U-shape cross-section. A pair of legs are connected, via rounded portions, with a web. A series of aperture is formed on the legs along a longitudinal axis of the beam. A flange is formed at a free end of the legs. The flange enables securement of the beam with a vehicle. The legs are angled with respect to one another so that the web has a width less than a width of the beam at the flange. The web has an arcuate portion along the longitudinal axis of the beam aligned with the series of apertures in the legs.

Abstract: A cargo box (10) reinforcement system (20) includes an upper front panel reinforcement (22) securable to a cargo box front panel (18) and side wall panels (14, 16). The system (20) including a pair of side reinforcements (24, 26). Each side reinforcement (24, 26) is securable to one side of the pair of side panels (14, 16) of the cargo box (10). Each side reinforcement (24, 26) is secured with an end (40) of the upper front panel reinforcement (22). Also, the system (20) includes a pair of gussets (28, 30). Each gusset (28, 30) is coupled with the upper front panel reinforcement (22) and one of the pair of side reinforcements (24, 26).

Abstract: A vehicle includes a vehicle body and a reinforcement assembly. The vehicle body has first inner and outer walls that define a cavity and second inner and outer curved walls that define another cavity. The reinforcement assembly includes a plurality of inserts. One insert of the plurality of inserts is at least partially disposed in the cavity defined by the first inner and outer walls and another insert of the plurality of inserts is at least partially disposed in the another cavity defined by the second inner and outer curved walls.

Abstract: A vehicle cross member has a beam with an overall U-shape cross-section. A pair of legs are connected, via rounded portions, with a web. A series of aperture is formed on the legs along a longitudinal axis of the beam. A flange is formed at a free end of the legs. The flange enables securement of the beam with a vehicle. The legs are angled with respect to one another so that the web has a width less than a width of the beam at the flange. The web has an arcuate portion along the longitudinal axis of the beam aligned with the series of apertures in the legs.

Abstract: A vehicle includes a vehicle body and a reinforcement assembly. The vehicle body has first inner and outer walls that define a cavity and second inner and outer curved walls that define another cavity. The reinforcement assembly includes a plurality of inserts. One insert of the plurality of inserts is at least partially disposed in the cavity defined by the first inner and outer walls and another insert of the plurality of inserts is at least partially disposed in the another cavity defined by the second inner and outer curved walls.

Abstract: Systems are provided which include a disinfection apparatus, a hollow chamber comprising an object entry port, and a means for tumbling objects placed inside the chamber. In some cases, the hollow chamber is configured such that a germicide projected from the disinfection apparatus is transmitted into an interior cavity of the chamber. In other cases, the hollow chamber may include an input port configured for coupling the chamber to the disinfection apparatus such that a germicide generated by the disinfection apparatus is transmitted into the hollow chamber via the input port when the chamber is coupled to the disinfection apparatus. In other cases, the disinfection apparatus may be disposed within the hollow chamber and configured to generate a germicide in the form of a plasma, ultraviolet light, a non-aqueous vapor, a non-aqueous liquid or a gas which is molecularly configured to deactivate or kill microorganisms.

Abstract: Systems are provided which include a disinfection apparatus, a hollow chamber comprising an object entry port, and a means for tumbling objects placed inside the chamber. In some cases, the hollow chamber is configured such that a germicide projected from the disinfection apparatus is transmitted into an interior cavity of the chamber. In other cases, the hollow chamber may include an input port configured for coupling the chamber to the disinfection apparatus such that a germicide generated by the disinfection apparatus is transmitted into the hollow chamber via the input port when the chamber is coupled to the disinfection apparatus. In other cases, the disinfection apparatus may be disposed within the hollow chamber and configured to generate a germicide in the form of a plasma, ultraviolet light, a non-aqueous vapor, a non-aqueous liquid or a gas which is molecularly configured to deactivate or kill microorganisms.