Abstract: A bumper system comprising a metal tubular beam, an energy absorber and mounts. The metal tubular beam has a center section having front, rear, top, and bottom walls. The energy absorber includes a rail having a rear surface with a rearwardly-facing C-shaped recess mateably receiving the tubular beam therein, with the energy absorber being configured to crush and absorb impact energy prior to collapse of the tubular beam. The mounts engage a rear of the metal tubular beam.

Abstract: A bumper includes a beam and an energy absorber supported on its face. The beam includes front and rear beam walls, with a pair of apertures in the front beam wall, and further the energy absorber includes a pair of tubular structural columns extending from its front wall through the aperture in the front beam wall to the rear beam wall. By this arrangement, the front wall of the energy absorber receives support from the rear beam wall via the structural columns during a vehicle crash.

Abstract: A method for generating a key includes reading a network data stream, selecting portions of data from the data stream, and assembling the selected portions to form the key. The key can then be used to alter a network communication.

Abstract: A bumper includes a beam and an energy absorber supported thereon. The energy absorber includes horizontal walls, each having a front portion, a rear portion, and an interconnecting mid-portion that offsets and misaligns the front and rear portions. Upon impact, the front and rear portions collapse with the offset mid portion wrapping back upon itself with a predictable energy-absorbing collapse. The energy absorber further includes flanges and friction pads that frictionally engage the top and bottom of the beam to temporarily retain the energy absorber to the beam. In one embodiment, the front beam wall includes at least one aperture, and the energy absorber includes a tubular column extending from its front wall through the aperture in the front beam wall to the rear beam wall. By this arrangement, the front wall of the energy absorber receives support from the front beam wall via the structural column.

Abstract: A bumper system includes a tubular beam and a thermoformed energy absorber with crush boxes formed into a base flange, such as by vacuum or thermal forming processes. The crush boxes have planar energy-absorbing sidewalls a depth of about 10 mm to 35 mm, wall thicknesses of about 1 mm to 3 mm, and are formed from polyethylene or other thermoform materials having a memory. The base flange can include thermoformed features engaging recesses in the beam, and is combinable with injection-molded or foam energy absorbers for design flexibility. In one form, the energy absorber includes a thermoformed first sheet forming crush boxes and a second sheet bonded to the first sheet to define apertured air pockets. Related methods of manufacture and impacting are also disclosed.

Abstract: A bumper system for a vehicle comprises a beam having a face and having mounts adapted for mounting to a vehicle frame, and an energy absorber engaging the face and having end sections located outboard of ends of the beam, the energy absorber being made of a structural engineering polymeric material and the end sections having flat top surfaces for forming steps outboard of the ends of the beam.

Abstract: A bumper system comprising a metal tubular beam, an energy absorber and mounts. The metal tubular beam has a center section having front, rear, top, and bottom walls. The energy absorber includes a rail having a rear surface with a rearwardly-facing C-shaped recess mateably receiving the tubular beam therein, with the energy absorber being configured to crush and absorb impact energy prior to collapse of the tubular beam. The mounts engage a rear of the metal tubular beam.

Abstract: A bumper system includes a tubular beam having front and rear walls, and a plurality of horizontally-extending walls that interconnect the front and rear walls. An energy absorber has a rear surface with a recess shaped to mateably receive and support the beam, and includes end sections that extend to be coplanar with the rear wall of the beam. The end sections cover the front wall and also at least partially cover a top, bottom and ends of the beam, and are constructed to flex and absorb energy to reduce a likelihood of vehicle damage. In one form, the end sections include honeycomb sections that engage beam mounts to transfer impact energy directly to the mounts. In another form, the end sections include cantilevered flanges that extend outwardly from ends of the energy absorber for impact absorption at the vehicle corners.

Abstract: An integrated one-piece polymeric molded component includes an energy-absorbing section, a fascia-supporting beam section, and a plurality of connecting section connecting the energy-absorbing and fascia-supporting beam sections. The energy-absorbing section engages a front of a bumper beam and includes crush boxes configured to absorb impact energy during a vehicle crash. The connecting sections are strong enough to hold the energy-absorbing section and the fascia-supporting beam section together during assembly of the one-piece component onto a vehicle, but are flexible to allow collapse of the energy-absorbing section during a vehicle crash without damaging the fascia-supporting beam section. The beam section is channel-shaped and extends cross-car generally between headlamps of the vehicle, for providing added support structure to a front-end of the vehicle. The beam section includes air-redirecting ridges for optimal air flow and integral clips for wire management.

Abstract: A bumper system includes a “W” or “C” shaped beam having a back wall and mounts along the back wall adapted for attaching the beam to rails of a vehicle frame. An energy absorber engages a face of the beam and has rearwardly-extending energy-absorbing sections that extend through the face into contact with the back wall at each of the mounts for improved energy absorption. The horizontal walls of the beam have front and rear sections that align, but also have a U-shaped intermediate section that weakens the walls for promoting a more uniform and predictable collapse. A one-piece brace includes diagonal straps that hold free ends of top and bottom walls together to prevent premature spreading apart upon impact. The energy absorber includes energy-absorbing sections that extend past the straps to detentingly engage the intermediate sections of the beam.

Abstract: A bumper system comprises a tubular roll-formed reinforcement beam. A hitch-supporting bracket has an inverted section shaped to fit downwardly onto the beam, and further has a laterally-extending second section. A hitch support tube is secured to the laterally-extending second section and has a hole for receiving a ball hitch for hauling a trailer. An energy absorber is attached to the beam, and includes a rear recess receiving the beam, a center section providing access to the hitch, and end sections that form steps on corners of the vehicle.

Abstract: A bumper includes a beam and an energy absorber supported on its face. The beam includes front and rear beam walls, with a pair of apertures in the front beam wall, and further the energy absorber includes a pair of tubular structural columns extending from its front wall through the aperture in the front beam wall to the rear beam wall. By this arrangement, the front wall of the energy absorber receives support from the rear beam wall via the structural columns during a vehicle crash.

Abstract: A vehicle bumper system includes a beam, and an energy absorber with top and bottom horizontal sections and a mid-horizontal section. The horizontal sections form top and bottom nose portions that are semi-rigid but initially collapsible with a parallelogram motion that shifts the top and bottom portions vertically up (or down) upon-impact. Horizontal impact forces are converted in part to vertical forces during an initial stroke of a frontal impact, “catching” an impacted human being. Then during a further continuing impact stroke, the top and bottom horizontal sections provide a “throwing” action. End sections of the energy absorber extend around ends of a bumper beam, forming a collapsible corner that, during impact, initially absorbs energy at a low rate to “catch” a person, and then develops increasing lateral forces that “throw” the person during a continuing impact stroke.

Abstract: A bumper system comprises a tubular roll-formed reinforcement beam. A hitch-supporting bracket has an inverted section shaped to fit downwardly onto the beam, and further has a laterally-extending second section. A hitch support tube is secured to the laterally-extending second section and has a hole for receiving a ball hitch for hauling a trailer. An energy absorber is attached to the beam, and includes a rear recess receiving the beam, a center section providing access to the hitch, and end sections that form steps on corners of the vehicle.

Abstract: A vehicular bumper system includes a tubular beam and an energy absorber press-fit within the tubular beam. In particularly, the energy absorber includes front and rear wall sections, planar stiffening wall sections that extend horizontally continuously and completely between the front and rear wall sections, and stabilizing wall sections that extend between the planar stiffening wall sections. Pairs of stubby protrusions are formed on the rear wall sections that are aligned with the planar stiffening wall sections and that combine with the front and rear wall sections to define an arrangement where, when the energy absorber is forcibly pressed into the cavity of the tubular beam, the protrusions are deformed and stressed and/or are shaved off such that they friction-fit into the tubular beam.

Abstract: A bumper system includes a bumper beam having a face and ends, and an energy absorber mounted on the face. The energy absorber has a one-piece injection-molded non-foam piece with box sections and interconnecting straps, and a one-piece or multi-piece foam component securely insert-molded onto the injection-molded non-foam piece. Different foam molds can be used to form differently shaped front surfaces on the foam component. By this arrangement, different energy absorbing systems are provided for vehicles, such as to satisfy the need for different styling and shapes, while still using the same non-foam piece. By this arrangement, the energy absorber is a single unit that can be handled and attached to the bumper beam. At the same time, capital investment in molding dies and tooling is reduced.

Abstract: A bumper system comprising a metal tubular beam, an energy absorber and mounts. The metal tubular beam has a center section having front, rear, top, and bottom walls. The energy absorber includes a rail having a rear surface with a rearwardly-facing C-shaped recess mateably receiving the tubular beam therein, with the energy absorber being configured to crush and absorb impact energy prior to collapse of the tubular beam. The mounts engage a rear of the metal tubular beam.

Abstract: A bumper system includes a tubular bumper beam, and a hitch-supporting bracket. The bracket has an inverted U-shaped section that fits downwardly onto the tubular bumper beam, and further has a laterally-extending planar section with a hole therein that is shaped to support a ball hitch for hauling a trailer. The beam has offset end sections that extend parallel a center section of the beam, but that are offset horizontally. An energy absorber is supported by the beam, and is sufficiently structural to form steps outboard of ends of the beam, and a fascia substantially covers the beam and energy absorber for aesthetics.

Abstract: A vehicle bumper system includes a beam, and an energy absorber with top and bottom horizontal sections and a mid-horizontal section. The horizontal sections form top and bottom nose portions that are semi-rigid but initially collapsible with a parallelogram motion that shifts the top and bottom portions vertically up (or down) upon impact. Horizontal impact forces are converted in part to vertical forces during an initial stroke of a frontal impact, “catching” an impacted human being. Then during a further continuing impact stroke, the top and bottom horizontal sections provide a “throwing” action. End sections of the energy absorber extend around ends of a bumper beam, forming a collapsible corner that, during impact, initially absorbs energy at a low rate to “catch” a person, and then develops increasing lateral forces that “throw” the person during a continuing impact stroke.

Abstract: A vehicle bumper system includes a beam, and an energy absorber with top and bottom horizontal sections and a mid-horizontal section. The horizontal sections form top and bottom nose portions that are semi-rigid but initially collapsible with a parallelogram motion that shifts the top and bottom portions vertically up (or down) upon impact. Horizontal impact forces are converted in part to vertical forces during an initial stroke of a frontal impact, “catching” an impacted human being. Then during a further continuing impact stroke, the top and bottom horizontal sections provide a “throwing” action. End sections of the energy absorber extend around ends of a bumper beam, forming a collapsible corner that, during impact, initially absorbs energy at a low rate to “catch” a person, and then develops increasing lateral forces that “throw” the person during a continuing impact stroke.