Abstract: A vehicle crush can includes a first portion, a second portion spaced from the first portion, and an intermediate portion extending from the first portion to the second portion. The first portion, second portion, and intermediate portion are aligned on a longitudinal axis and taper from the first portion to the second portion. The crush can has corrugations elongated along the longitudinal axis on the first portion and terminating on the intermediate portion.

Abstract: A vehicle crush can includes a first portion, a second portion spaced from the first portion, and an intermediate portion extending from the first portion to the second portion. The first portion, second portion, and intermediate portion are aligned on a longitudinal axis and taper from the first portion to the second portion. The crush can has corrugations elongated along the longitudinal axis on the first portion and terminating on the intermediate portion.

Abstract: A vehicle frame and underbody assembly includes a pair of longitudinal frame rails and a rear bumper assembly connected to the frame rails via crush cans. A panel is secured to the frame rails, and ends at an edge spaced from the rear bumper assembly. A V-brace is mounted beneath the panel and to the frame rails. The V-brace includes two legs that come together and intersect at a first end at the edge of the panel, and that are spaced apart at a second end. The second end of each leg is secured to a cross-member that spans between and connects the second ends of the legs. A traction battery is secured to the panel in a location at least partially directly above the V-brace.

Abstract: A vehicle includes a floor and an aluminum battery enclosure. The enclosure has L-shaped formed side walls each at least partially defining a traction battery cavity and including a foot attached to the floor. Each of the feet extends an entire length of the corresponding side wall to distribute impact energy along the entire length to maintain a relative position between the floor and enclosure.

Abstract: A vehicle includes a floor and an aluminum battery enclosure. The enclosure has L-shaped formed side walls each at least partially defining a traction battery cavity and including a foot attached to the floor. Each of the feet extends an entire length of the corresponding side wall to distribute impact energy along the entire length to maintain a relative position between the floor and enclosure.

Abstract: A b-pillar assembly for a vehicle is provided. The b-pillar assembly includes a vehicle body, a steel T-bracket, a carbon fiber b-pillar inner, a b-pillar outer, and a carbon fiber b-pillar reinforcement. The vehicle body includes a roof rail. The steel T-bracket includes a first portion for securing to the roof rail and a second portion extending perpendicularly therefrom and including a hinge member. The carbon fiber b-pillar inner includes a first upper end secured to the first portion of the steel T-bracket and a first lower end secured to a rocker. The b-pillar outer includes a second upper end secured to the roof rail and a second lower end secured to the rocker. The carbon fiber b-pillar reinforcement is disposed between the b-pillar inner and the b-pillar outer. The hinge member is oriented to deform to absorb a portion of a load applied to the roof rail.

Abstract: A vehicle frame is provided having a frame. The frame includes a main rail and a lateral rail. A bracket is operably coupled to the main rail. The vehicle frame assembly also includes a wedged shape deflecting member. The wedged shape deflecting member has a first end which is operably coupled to the bracket and a second end which is operable between a standard use position and a collision event position. The standard use position is where the second end is spaced a predetermined distance from the main rail. The collision event position is when the second end is in abutting contact with the main rail. During a collision event, the second end moves from the standard use position to the collision event position such that the deflecting member absorbs and deflects energy imparted on the frame.

Abstract: Embodiments of the invention are directed to systems, methods and computer program products for use in providing infrastructure trending within a network environment. The apparatus proactively queries computing devices within the networked environment and generates infrastructure trending data. An exemplary apparatus is configured to execute an electronic data collection script on one or more computing devices within a networked environment; store the collected machine information in a storage location, whereby the machine information can be accessed, via the storage location, for use in providing infrastructure trending data; receive a request to display an infrastructure trend associated with the network environment; in response to receiving the request, analyze the collected machine information; and generate at least one graph based on the collected machine information, wherein the at least one graph displays the infrastructure trend associated with the network environment.

Abstract: A vehicle includes a frame, a bumper, and a crush can that secures the bumper to the frame. The crush can includes a plurality of cells that are arranged in a fanned configuration relative to the frame such that walls of the cells deform during offset impact events to deflect objects away from the frame.

Abstract: An impact absorbing system includes a first rocker panel and a second rocker panel spaced from the first rocker panel, a housing including a bottom extending between the first and second rocker panels and a side extending from the bottom, and an energy absorber that is deformable relative to the side and defines a repeating pattern of cells. The energy absorber is bonded to the side between the side and the first rocker panel and each cell has a central axis transverse to the side.

Abstract: A collision energy absorption apparatus and a vehicle front end structure including the apparatus. The apparatus is welded to a bumper beam and is laterally adjacent a longitudinally extending member disposed behind the bumper beam. The apparatus has a central body having a front edge attached to the bumper beam and a rear edge that is spaced from the bumper beam and the longitudinally extending member. Upper and lower triangular walls extend between the central body and the longitudinally extending member. A rib extends laterally outwardly from the central body.

Abstract: A vehicle structure includes a first member extending obliquely beneath an outer surface of an underbody component, and a second member extending at an acute angle to the first member. The second member is arranged to form an apex near an end of the first member. The vehicle structure also includes an interconnecting member connected to both the first and second members at locations offset from the apex. The first member, the second member, and the interconnecting member cooperate to enclose a portion of the underbody component.

Abstract: A vehicle body structure is disclosed that comprises a pair of rear rails, a bumper beam and a spare tire compartment including a spare tire. The rear rails have a rear segment aligned with the bumper beam, a middle segment disposed above the rear segment and a front segment that extends downwardly from the middle segment. After a 50 mph 70% Movable Deformable Barrier rear impact test, the spare tire compartment including the spare tire hinges downwardly to create added crush space and the middle section is raised upwardly to reduce the extent of intrusions into the passenger compartment.

Abstract: A vehicle body structure is described that includes a pair of rear rails, a bumper beam and a spare tire compartment including a spare tire. The rear rails have a rear segment aligned with the bumper beam, a middle segment disposed above the rear segment and a front segment that extends downwardly from the middle segment. After a 50 mph 70% Movable Deformable Barrier rear impact test, the spare tire compartment including the spare tire hinges downwardly to create added crush space and the middle section is raised upwardly to reduce the extent of intrusions into the passenger compartment.

Abstract: A vehicle bumper system, comprises a first bracket fixedly mounted to a bumper. A second bracket is fixedly mounted to a vehicle frame horn, the second bracket including at least one vertical slot. At least one bolt is inserted through an opening in the first bracket and the at least one slot.

Abstract: A sleeve is attached to a tubular longitudinal bar that extends around a control arm for the rear suspension of a vehicle. The tubular longitudinal bar is generally U-shaped with a first leg attached to a frame rail in front of the control arm and a second leg connected to the frame rail behind the control arm. The first and second legs are joined by a middle portion. A bend is formed between the first leg and the middle portion. The tubular sleeve is attached to the tubular longitudinal bar at the bend and extends partially along the first leg and the middle portion. The tubular sleeve is disposed between the control arm and a fuel tank of a vehicle that is located between the rear wheels of the vehicle.

Abstract: A front end assembly including a stepped deflector assembly. The stepped deflector assembly includes a first step attached to one end of a bumper. The first step includes an inner front leg and an intermediate leg. The second step includes an outer front leg and a rear leg. The intermediate leg and rear leg have ends that are disposed adjacent a frame rail, but that are not attached to the frame rail. In a collision, the first and second inner ends of the first and second step, respectively, are driven laterally into the frame rail to reduce intrusions into the passenger compartment of the vehicle.

Abstract: A deflector for a front end assembly that includes a lower tube having a lower/front leg extending outboard from a bumper and an intermediate leg extending from a lower/outer end of the lower/front leg to a sliding plate that is not attached to a frame rail. The deflector also includes an upper tube including an upper/front leg extending outboard from the bumper and a rear leg extending from an upper/outer end of the upper tube toward that is attached to a rear sliding plate that is also not attached to the frame rail. A method of making a deflector from an aluminum tube that is bent to shape and wrapped with a carbon fiber resin layer.

Abstract: A vehicle frame is provided having a frame. The frame includes a main rail and a lateral rail. A bracket is operably coupled to the main rail. The vehicle frame assembly also includes a wedged shape deflecting member. The wedged shape deflecting member has a first end which is operably coupled to the bracket and a second end which is operable between a standard use position and a collision event position. The standard use position is where the second end is spaced a predetermined distance from the main rail. The collision event position is when the second end is in abutting contact with the main rail. During a collision event, the second end moves from the standard use position to the collision event position such that the deflecting member absorbs and deflects energy imparted on the frame.

Abstract: A vehicle frame assembly is provided comprising a main rail. The vehicle frame assembly also includes a deflector assembly which has a front member having an inboard end pivotally coupled to the main rail and an outboard end. Moreover, the deflector assembly includes a rear member having an inboard end slidably coupled to the main rail and an outboard end pivotally coupled to the outboard end of the front member. Additionally, a tension member is disposed between the inboard ends of the front member and the rear member. The deflector assembly is operable between a normal use position wherein the tension member is slack and a collision position wherein the tension member is taut.