Abstract: A bumper assembly includes a beam and a plurality of members attached to and positioned sequentially along the beam. Each member includes an outer tube extending transverse to the beam and an inner tube extending parallel to and in the outer tube. Adjacent ones of the members are configured to contact each other when both adjacent ones of the members are deformed.

Abstract: A vehicle door including a door inner and a reinforcing beam fixed to the door inner. The reinforcing beam includes a first layer and a second layer bonded to each other. The first layer includes a polymer and fibers impregnated in the polymer and extending continuously across the polymer of the first layer. The first layer extends along an axis and has first and second ends spaced from each other on the axis. The second layer includes a polymer and fibers impregnated in the polymer and extending continuously across the polymer of the second layer. The second layer has first and second ends spaced from each other on the axis. The first and second ends of the second layer are each disposed between the first and second ends of the first layer along the axis.

Abstract: A vehicle structure including a first rocker, a second rocker, and a reinforcement. The first rocker is spaced from the second rocker. The reinforcement has a forward beam and a rearward beam spaced from each other. The reinforcement includes a first side member and a second side member each extending from the forward beam to the rearward beam. The first side member abuts the first rocker, and the second side member abuts the second rocker.

Abstract: A vehicle includes a body, door, glass dome, and dynamic pillars. The body defines a cabin and has first and second static pillars. The door that accesses the cabin, is secured to the body, and is disposed between the first and second static pillars. The glass dome is secured to the body over the entirety of the cabin. The dynamic pillars are extendable in an upward direction and are secured to the body proximate to an outer perimeter of the glass dome.

Abstract: A vehicle includes a body, door, glass dome, and dynamic pillars. The body defines a cabin and has first and second static pillars. The door that accesses the cabin, is secured to the body, and is disposed between the first and second static pillars. The glass dome is secured to the body over the entirety of the cabin. The dynamic pillars are extendable in an upward direction and are secured to the body proximate to an outer perimeter of the glass dome.

Abstract: A vehicle includes a body and a door moveable relative to the body between the open and closed position. The vehicle includes a seat fixed relative to the door. The seat includes a seat back and a seat bottom. The body has a longitudinal axis, and the seat bottom extends from the seat back toward the longitudinal axis along a cross-vehicle direction perpendicular to the longitudinal axis when the door is in the closed position.

Abstract: A vehicle structure including a roof beam and a first pillar and a second pillar each fixed relative to the roof beam. The first pillar and the second pillar are spaced from each other defining a door opening extending from the first pillar to the second pillar. A front door and a rear door are both disposed in the door opening. A panel is pivotally connected to the roof beam and pivotable relative to the roof beam to a lowered position. The panel, in the lowered position, extends across the door opening from the first pillar to the second pillar.

Abstract: A bumper assembly includes a beam and a plurality of members attached to and positioned sequentially along the beam. Each member includes an outer tube extending transverse to the beam and an inner tube extending parallel to and in the outer tube. Adjacent ones of the members are configured to contact each other when both adjacent ones of the members are deformed.

Abstract: A vehicle structure includes a body and a roof frame. The roof frame includes two side members, two cross members and a brace. The two side members are spaced from each other and both are connected to the body. The two cross members are spaced from each other and both extend from one side member to the other side member. The cross members arch toward each other and each has an apex between the side members. The brace is connected to the apexes and extends from one side member to the other side member.

Abstract: A vehicle structure includes a body and a roof frame. The roof frame includes two side members, two cross members and a brace. The two side members are spaced from each other and both are connected to the body. The two cross members are spaced from each other and both extend from one side member to the other side member. The cross members arch toward each other and each has an apex between the side members. The brace is connected to the apexes and extends from one side member to the other side member.

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 door including a door inner and a reinforcing beam fixed to the door inner. The reinforcing beam includes a first layer and a second layer bonded to each other. The first layer includes a polymer and fibers impregnated in the polymer and extending continuously across the polymer of the first layer. The first layer extends along an axis and has first and second ends spaced from each other on the axis. The second layer includes a polymer and fibers impregnated in the polymer and extending continuously across the polymer of the second layer. The second layer has first and second ends spaced from each other on the axis. The first and second ends of the second layer are each disposed between the first and second ends of the first layer along the axis.

Abstract: An assembly to simulate side impacts to a vehicle includes a rocker, a translatable sled, and one or more displacement members. The rocker is secured to a wall. A b-pillar extends from the rocker and a roof rail is secured to the b-pillar and the wall. The translatable sled is arranged with the wall to impact the b-pillar. The one or more displacement members are secured to the wall and spaced from the rocker to simulate a stiffness of a full vehicle frame during impact between the sled and the b-pillar. A first rocker end constraint may secure a first end of the rocker to the wall. A second rocker end constraint may secure a second end of the rocker to the wall. The constraints may be arranged with the rocker such that the ends of the rocker may pivot relative to the wall.

Abstract: A vehicle B-pillar assembly is provided. The vehicle B-pillar assembly includes a T-bracket, a B-pillar inner, a B-pillar reinforcement, a cell member, and a B-pillar outer. The T-bracket is mounted to a roof rail. The B-pillar inner is mounted to the T-bracket. The B-pillar reinforcement is mounted to the B-pillar inner and defines a cavity. The cell member is sized for insertion within the cavity and for securing therein. The cell member is oriented with the T-bracket for partially absorbing a load from a side impact to the B-pillar assembly. The B-pillar outer spans between the roof rail and a rocker panel. The cell member may extend within the cavity between a location above a vehicle beltline and a location below the vehicle beltline.

Abstract: A vehicle B-pillar assembly is provided. The vehicle B-pillar assembly includes a T-bracket, a B-pillar inner, a B-pillar reinforcement, a cell member, and a B-pillar outer. The T-bracket is mounted to a roof rail. The B-pillar inner is mounted to the T-bracket. The B-pillar reinforcement is mounted to the B-pillar inner and defines a cavity. The cell member is sized for insertion within the cavity and for securing therein. The cell member is oriented with the T-bracket for partially absorbing a load from a side impact to the B-pillar assembly. The B-pillar outer spans between the roof rail and a rocker panel. The cell member may extend within the cavity between a location above a vehicle beltline and a location below the vehicle beltline.

Abstract: A vehicle B-pillar assembly is provided. The vehicle B-pillar assembly includes a steel T-bracket and a B-pillar outer assembly. The steel T-bracket includes an upper portion secured to a roof rail and a lower portion extending perpendicular therefrom and below a beltline. The B-pillar outer assembly includes an upper carbon fiber portion extending from the roof rail to a location above the beltline and a lower steel portion extending from a vehicle rocker to a location above the beltline and secured to the lower portion of the T-bracket. The beltline may be defined by an axis extending between a shotgun joint on a vehicle A-pillar and a latch reinforcement on a vehicle C-pillar. The beltline may extend fore and aft along the vehicle and through a substantially central region of the B-pillar assembly.

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: An assembly to simulate side impacts to a vehicle includes a rocker, a translatable sled, and one or more displacement members. The rocker is secured to a wall. A b-pillar extends from the rocker and a roof rail is secured to the b-pillar and the wall. The translatable sled is arranged with the wall to impact the b-pillar. The one or more displacement members are secured to the wall and spaced from the rocker to simulate a stiffness of a full vehicle frame during impact between the sled and the b-pillar. A first rocker end constraint may secure a first end of the rocker to the wall. A second rocker end constraint may secure a second end of the rocker to the wall. The constraints may be arranged with the rocker such that the ends of the rocker may pivot relative to the wall.

Abstract: A vehicle an underbody structure includes a bumper, a subframe, and a frame. The frame interconnects the bumper and the subframe. The frame includes first and second symmetrical halves spaced at a distance. The frame is attached to the bumper at front segments of each of the halves, and to the subframe at rear segments of each of the halves. The halves are defined by a plurality of legs formed with the front and rear segments such that the first and second halves define load paths configured to transfer energy throughout 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.