Abstract: An apparatus and methods are provided for a chassis for an off-road vehicle that includes a chassis strut support. The chassis is a welded-tube variety of chassis that includes a front portion and a rear portion that are joined to an intervening passenger cabin portion. The chassis strut support includes one or more pairs of rear strut gusset plates for distributing loading on a rear strut crossmember by rear struts to at least a seat crossmember comprising the chassis. The rear strut gusset plates generally comprise thick sheet-members configured to be attached to a vertical brace between an upper mount and a lower stay comprising the chassis to reinforce the vertical brace and impart increased strength to the chassis. The rear strut gusset plates are configured to be attached to the vertical brace by way of bolts, rivets, welding, or any combination thereof.

Abstract: A vehicle including a vehicle body that includes: a floor panel; a dash panel; a first and a second dash cross members extending in a right-left direction of the vehicle along the dash panel; and a center tunnel extending from the dash panel rearward in the vehicle along the floor panel. The first dash cross member includes a right side portion extending from a right side face of the center tunnel to a right end of the dash panel and a left side portion extending from a left side face of the center tunnel to a left end of the dash panel. The second dash cross member is located above the first dash cross member and continues from the right end to the left end of the dash panel, and at least a part of the second dash cross member extends to curve along the center tunnel.

Abstract: A chassis platform module for an electric vehicle may include: a frame part having a battery module coupled thereto, and including a plurality of members assembled to each other; a first support part extending from one side of the frame part in a longitudinal direction thereof, having a front wheel chassis module mounted thereon, and including a connection member assembled to the frame part; a second support part extending from another side of the frame part in the longitudinal direction thereof, and having a rear wheel chassis module mounted thereon; and a connector part including a plurality of connector members assembled between the plurality of members of the frame part or assembled to the frame part and the first support part so as to connect the plurality of members to the connection member.

Abstract: An embodiment rear floor side member assembly includes a rear side member including a rear inner portion disposed toward an inside of a vehicle body, a rear upper portion curved toward an outside of the vehicle body from the rear inner portion, and a rear lower portion curved from the rear inner portion toward the outside of the vehicle body, a reinforcement mounting portion formed on the rear lower portion, a rear side member reinforcement mounted on the reinforcement mounting portion, and a rear spring seat assembly mounted at a bottom part of the rear side member reinforcement.

Abstract: An embodiment outer panel assembled to a vehicle body frame includes an outer plate portion, a plurality of flange portions extending from an edge portion of the outer plate portion and bent toward the vehicle body frame, and a fastening member installed in the flange portions and engaged to the vehicle body frame.

Abstract: The invention relates to a panel joining arrangement for a vehicle canopy. The vehicle canopy includes at least one three panel join where a side panel, roof panel and end panel of the vehicle canopy meet. The panel joining arrangement comprises first and second lip portions formed in the side panel of the vehicle canopy and a third lip portion formed in the roof panel. The first and second lip portions are longitudinally offset and transversely overlapping in relation to a length of the side panel. The third lip portion is configured to mate with the second lip portion at the three panel join of the vehicle canopy such that the third lip portion is located adjacent to and substantially flush with the first lip portion.

Abstract: A hybrid structural assembly for a motor vehicle includes a casting and a structural inlay. The casting includes a plurality of structural components joined together in a casting process to form structural load paths and extending in a plurality of directions in a 3D space. The casting includes a cast-allowable alloy material. The structural inlay is secured to at least one of the structural components. The structural inlay includes a material having at least one of a higher ductility and a higher toughness than the cast-allowable alloy material.

Abstract: Disclosed herein is a modular safety rail and system for a flatbed platform, comprising first and second end post assemblies defining first and second ends of the safety rail; at least one intermediate post, each intermediate post comprising a first cable holder and a second cable holder; a cable configured to connect with the first end post assembly and the second end post assembly and configured to be removably positioned within and pass through the first cable holder and second cable holder of each intermediate post; and a cable winch connected to a first end of the cable and configured to spool and unspool the cable. Also disclosed herein are kits and methods for using the disclosed safety rail and system.

Abstract: A vehicle body reinforcement structure includes an elongated hollow structure formed by jointing an outer panel and an inner panel with each other, and a reinforcement member configured to partition the hollow structure into a lower closed cross section and an upper closed cross section. At inside of at least one of the lower closed cross section and the upper closed cross section, at least a pair of bulkheads extending so as to cross the closed cross section are disposed so as to be separated with each other in a direction in which the closed cross section is extending. A space between the pair of bulkheads is made as a filler chamber which is filled with filler. A filling opening for the filler is provided on the inner panel so that the filling opening is in communication with the filler chamber.

Abstract: A vehicle body side structure includes a side panel assembly and a floor assembly. The side panel assembly has a side sill outer panel part fixed to a side sill reinforcement member and a fastening nut provided on a rear end portion of the side sill reinforcement member. The floor assembly has a wheel arch reinforcement member fixed to an inner panel front portion and a collar interposed between the wheel arch reinforcement member and the inner panel front portion. The side panel assembly is assembled to the floor assembly by fastening a fastening bolt to the fastening nut.

Abstract: The invention relates to a front hinge pillar (9) of a vehicle, consisting of a stamped part comprising a central body (11) that is intended to extend vertically, so as to exhibit a lower end (13) and an upper end (15) and lateral edges, the front hinge pillar (9) being characterized in that it further comprises a front extension (17) extending from one of said lateral edges of said central body (11) such that said central body (11) and said front extension (17) form a single part. The invention also relates to the methods for producing such a front hinge pillar (9).

Abstract: A vehicle body structure includes: a pair of roof side rails, each of which constitutes at least one each of closed cross sections and extends in a vehicle longitudinal direction; and a roof panel that is stretched between the pair of roof side rails and extends in a vehicle width direction. The roof panel has: a body section that extends in the vehicle width direction; and a flange section that is provided to both end portions in the vehicle width direction of the body section and extends in the vehicle width direction along a lower surface of the closed cross section. The flange section is fixed to a lower surface of the closed cross section.

Abstract: A vehicle body rear portion may have a tailgate opening portion for improving torsional rigidity and durability performance of a vehicle body.

Abstract: A vehicle may include: a roof; a back door; a pillar provided next to the back door, having a tubular shape, and extending slantingly downward and backward from the roof; a vertical member provided below the pillar, extending along a vertical direction, and connected to the pillar from below; and a reinforcing member provided inside the pillar at a connection between the pillar and the vertical member and joined to the pillar.

Abstract: The present invention relates to a system consisting of a connection node and at least one first connection body, wherein: the connection node comprises a connection node central body, a first connection element for joining with the connection body, and at least one second connection element for joining with a second connection body; the first connection element and the second connection element are connected or may be connected to the connection node central body; and at least one portion of the connection node central body and/or of the first connection element and/or of the second connection element is manufactured by means of an additive process, for example 3D printing, or by means of a casting process.

Abstract: A truck frame includes: a first side rail including a first web, a first top flange formed on a top end of the first web, and a first bottom flange formed on a bottom end of the first web; a second side rail spaced apart from the first side rail to face the first side rail, and including a second web, a second top flange formed on a top end of the second web, and a second bottom flange formed on a bottom end of the second web; a reinforcing structure connecting the first top flange of the first side rail and the second top flange of the second side rail, and connecting the first bottom flange of the first side rail and the second bottom flange of the second side rail; and a component mounting space defined by the reinforcing structure between the first web of the first side rail and the second web of the second side rail.

Abstract: The disclosure provides a vehicle body capable of well preventing the deformation of a side door even if the weight of the vehicle itself increases. The vehicle body includes a front pillar upper which extends rearward and upward along a side edge of a windshield, a front pillar lower which is joined to a lower end of the front pillar upper to support a front end of the side door, a dash upper side which connects an upper member to the front pillar lower while being joined to the front pillar upper at a rear extension part, and a front pillar upper stiffener which reinforces the bending rigidity of the front pillar upper. A distance is set between the rear extension part of the dash upper side and a front end of the front pillar upper stiffener above the front pillar lower.

Abstract: There is provided a reinforcement for a vehicle having a main body portion that is formed in a hollow beam shape, and extends in a vehicle width direction while having both end portions thereof in the vehicle width direction supported by structural components of a vehicle, and whose cross-sectional surface area in a vehicle front-rear direction becomes progressively larger from the end portions in the vehicle width direction towards a central portion thereof.

Abstract: A recreational vehicle has a floor and a vehicle body with a pair of walls, a roof, and end shells disposed at the front and rear ends of the walls and roof. Each wall has a plurality of horizontal members each extending at least part way between the front and back end of the respective wall and a plurality of spaced apart vertical bows each extending at least part way between the bottom and top of the respective wall. Each of the vertical bows has an inner surface and an outer surface with a recess defined in the inner or outer surface, the recess configured to receive one of the plurality of horizontal members therein such that the horizontal member does not extend beyond a portion of the inner or outer surface adjacent the recess. An outer wall skin is attached to the outer surface of the bows or members.

Abstract: A vehicle body front part structure includes a front pillar and an upper member. The upper member includes: a side wall on an outside in a vehicle width direction; and an stiffener that is joined to an inner surface of the side wall, that has a rear end part facing a front surface of the front pillar, and that forms a closed cross-section extending substantially in a vehicle body front-to-rear direction together with the side wall. The side wall of the upper member includes: a pillar fixation part that is arranged in a rearward extension area extending in a vehicle body rearward direction further than the rear end part of the stiffener and that is fixed to a side wall on an outside in the vehicle width direction of the front pillar; and a bead shape part that convexly projects outward in the vehicle width direction and that extends to a vicinity of the pillar fixation part from a frontward position further than the rear end part of the stiffener.

Abstract: A vehicle body structure includes a roof structure and a lateral side structure, wherein the roof structure includes a roof panel fastened to an underlying roof reinforcement frame, wherein the lateral side structure includes a side panel fastened to an underlying side support structure, wherein a lateral side of the roof panel is fastened to the roof reinforcement frame by means of a hemming joint that is formed by folding a lateral side of the roof panel around an edge of the roof reinforcement frame, and wherein a folded side edge of the roof panel is fastened to the side panel by means of an elongated laser brazing joint.

Abstract: A vehicle-body structure for suppressing deformation of a lift gate opening is provided. Embodiments include a vehicle having a rear annular framework formed from a cross member, side braces, connecting members, and a rear header; a rear suspension on lower surfaces of side pillars in the same position as the cross member in a vehicle front-rear direction; and wheel well inner portions on the vehicle rear side with respect to the cross member, each having an upper end having a damper supporting portion for mounting a suspension damper. The side braces each connect a place near the cross member and a place near the damper supporting portion to each other in a vehicle up-down direction; and the connecting members each connect a place near each end portion of the rear header in a vehicle width direction and the place near the damper supporting portion to each other.

Abstract: A first loop-shaped structure section is provided on a forward side of and closely to a damper support section so as to have a loop shape in a vehicle elevational view. A second loop-shaped structure section is provided around a rear-gate opening portion so as to have a loop shape in the vehicle elevational view. A third loop-shaped structure section is provided to extend continuously along a lower side wall part interconnecting lower wall parts of the first and second loop-shaped structure sections, a side wall part of the first loop-shaped structure section, an upper side wall part interconnecting upper end portions of upper wall parts of the first and second loop-shaped structure sections, and a side wall part of the second loop-shaped structure section so as to have a loop shape in a vehicle side view.

Abstract: A floor center member extends through a central part of a body floor of a vehicle and along a longitudinal direction of the vehicle, and a first floor cross member penetrates the floor center member to extend in a lateral direction of the vehicle. A reinforcing member extending in the longitudinal direction of the vehicle is disposed on the interior of the floor center member and above the first floor cross member.

Abstract: A bumper reinforcement includes an aluminum alloy extrusion body having a pair of flanges to be positioned on a vehicle body side and on a collision side and a pair of webs to be positioned in a vehicle vertical direction. The pair of webs connect the pair of flanges at joint portions such that the pair of webs and the pair of flanges form a closed cross section, and the pair of webs do not have a welded portion.

Abstract: A vehicle body side structure includes a side sill stiffener, a wheel arch reinforcement member, an inner panel and a bulkhead. The side sill stiffener has a side sill stiffener extension section extending from a rear end portion of the side sill toward behind and above in the vehicle body. The wheel arch reinforcement member is coupled to the side sill stiffener extension section. The inner panel is coupled to the wheel arch reinforcement member and forms a first closed cross section. A first bulkhead is coupled to the side sill stiffener extension section and the wheel arch reinforcement member and partitions the first closed cross section.

Abstract: A lower vehicle-body structure of an electric vehicle to increase resistance to lateral collision and also improve front-end collision load transfer performance of a tunnel. The lower vehicle-body structure of an electric vehicle includes a floor having a tunnel formed in a front part at a middle in a vehicle-width direction; and a floor cross member spanning, above the floor, between side sills disposed on opposite sides of the floor. Also, a rear end of the tunnel is located directly in front of the floor cross member, and reinforcing brackets are provided extending from the tunnel toward an upper end of the floor cross member and connected to the upper end of the floor cross member.

Abstract: A structural assembly for a pickup truck sidewall includes, among other things, a C-pillar, a belt rail extending rearward from the C-pillar, and a truss spanning from the belt rail to the C-pillar. A method of structurally supporting a sidewall of a pickup truck includes the steps of securing a first end portion of a truss to a belt rail that extends rearward from a C-pillar of the pickup truck, and securing an opposite, second end portion of the truss to a C-pillar.

Abstract: A center lower frame connection for a space frame comprising an outer lift cylinder connection boss, an inner drop tube connection boss, a center cylinder between the outer lift cylinder connection boss and the inner drop tube connection boss, a suspension connection boss, an outer rearward angular center lower frame tube connection boss, an inner rearward angular center lower frame tube connection boss, a vertical center lower frame tube connection boss, a forward angular center lower frame tube connection boss, an outer forward horizontal center lower frame tube connection boss, and an inner forward horizontal center lower frame tube connection boss. The outer lift cylinder connection boss, the inner drop tube connection boss, and the center cylinder can have a common center axis. The center lower frame connection can also have a rearward angular beam and a forward horizontal beam.

Abstract: A vehicle side section structure includes a pair of front pillars that are respectively provided at both vehicle width direction sides of a vehicle front section so as to extend along a vehicle vertical direction, and a reinforcing member formed of wood and is provided inside a cross-section of at least one of the pair of front pillars, an axial center direction of tree rings of the reinforcing member being oriented in a direction running along a length direction of the at least one front pillar.

Abstract: A military vehicle includes a passenger capsule, a front module coupled to a front end of the passenger capsule, a rear module coupled to a rear end of the passenger capsule, a front axle coupled to the front module, a rear axle coupled to the rear module, an engine coupled by the front module, a front differential coupled to the front axle, a transaxle, and an actuator. The transaxle is coupled to the engine, the rear axle, and the front differential. The transaxle includes an internal mechanical disconnect that facilitates decoupling the transaxle from the front differential. The actuator is accessible from an exterior of the passenger capsule to engage the internal mechanical disconnect.

Abstract: There is provided a double-skin structure in which it is possible to obtain an aesthetic improvement in addition to restricting an increase in the number of manufacturing steps. The structure includes a connection portion connecting together an end portion of a first projection portion of a first mold member and an end portion of a second projection portion of a second mold member; a cover plate that is provided between the first mold member and the second mold member, and that blocks an upper end side of a recessed portion bounded by a first rib, a second rib, the first projection portion, and the second projection portion; and a bonding portion that bonds the cover plate to the first mold member, and the cover plate to the second mold member.

Abstract: Provided are a foam molded product and a method of producing the same. The foam molded product is a molded product containing a resin and including a surface layer, a compressive deformation layer, and a foam layer. The thickness of the surface layer is 0.1 mm to 5.0 mm. The compressive deformation layer is located between the surface layer and the foam layer. Foam particles forming the compressive deformation layer have an average H/L of 0.5 or less (H: length in compression direction; L: length in perpendicular direction relative to compression direction). Foam particles forming the foam layer have an expansion ratio of not less than 3.0 times and less than 30 times.

Abstract: A tunnel structure for a vehicle is provided, and the tunnel structure includes a tunnel extending along a centerline of a center floor, and a plurality of crossmembers individually coupled to both side surfaces of the tunnel. Each crossmember has a closed cross-sectional shape. The tunnel structure further includes a plurality of bosses provided on the side surfaces of the tunnel, and an end portion of each crossmember received in and coupled to each boss. In addition, the tunnel includes a front tunnel disposed on a front of the center floor, a rear tunnel disposed on a rear of the center floor, and a center tunnel disposed between the front tunnel and the rear tunnel along the centerline of the center floor.

Abstract: Pillar apparatus for use with vehicles are disclosed. A disclosed vehicle includes a roof and a roof side rail including an inner panel that extends along a side of the roof. The vehicle also includes a pillar having an outer panel that extends along the side of the roof and is coupled between the roof and the inner panel. The pillar includes a structural feature positioned on the outer panel. The structural feature is configured to cause the outer panel to form a bend that distributes a first load onto an area of the inner panel to prevent the inner panel from tearing during a first vehicle impact event in which the first load is imparted on the outer panel.

Abstract: A vehicle body structure in a vehicle rear portion includes a second rear lateral ring-shaped vehicle body framework (RWC2) having a substantially ring shape in a vehicle lateral direction and located near a pair of left and right damper support portions (54) supporting suspension dampers (55) and disposed in rear wheelhouses (52) behind side door openings (Es) in the vehicle. The vehicle body structure includes coupling members (33) coupling a pair of left and right side pillars (42) constituting the second rear lateral ring-shaped vehicle body framework (RWC2) having the substantially ring shape to a pair of left and right wheelhouse reinforcements (53).

Abstract: A vehicle body structure includes: a front lateral ring-shaped vehicle body framework (FWC) having a substantially ring shape in a vehicle lateral direction, disposed near suspension towers (65), and constituted by front subframes (66), suspension tower reinforcing members (65b), and a cowl box (62); and longitudinal ring-shaped vehicle body frameworks (SLC) disposed along side door openings (Es). The vehicle body structure includes: cowl side frames (64) coupling upper ends of hinge pillars (45) constituting the longitudinal ring-shaped vehicle body frameworks (SLC) to the suspension towers (65) in a vehicle longitudinal direction; and side part panels (71) connected to the cowl box (62) and coupled to the suspension towers (65).

Abstract: There are provided first and second loop-shaped structure sections which are respectively provided to extend continuously along a lower wall part, right-and-left both side wall parts, and an upper wall part of a vehicle body so as to have a loop shape in a vehicle elevational view. The first loop-shaped structure section is positioned in front of a damper support section. A lower-side part of the second loop-shaped structure section which is located at a lower level than the damper support section is formed by a part of the first loop-shaped structure section and its upper-side part is positioned in back of the damper support section. Each of these loop-shaped structure sections is formed by a closed-cross section portion where a closed-cross section is partitioned by plural members and/or a thick plate portion having a thicker plate thickness than a vehicle-body panel.

Abstract: An upper vehicle-body structure includes a roof reinforcement having a width in a vehicle front-rear direction to serve as a bridge between a pair of roof side rails in a vehicle width direction and a reinforcement member on the roof reinforcement and diagonally extending in the vehicle front-rear direction. The brace is joined to the roof reinforcement at positions at which a front end portion and a rear end portion of the brace in the vehicle front-rear direction are offset from each other in the vehicle width direction.

Abstract: A load absorbing structure for a vehicle is provided. The structure includes a pair of front side members that are spaced apart from each other in a width direction of the vehicle on a front side of the vehicle and a pair of side sills that are connected to the front side members, respectively. A pair of front pillars are connected to the side sills, respectively and a pair of connection members connect the front side members and the side sills corresponding thereto in a longitudinal direction of the vehicle, respectively. A battery cross member is disposed transverse between the pair of connection members and a bottom surface of the battery cross member is disposed lower than a bottom wall of each connection member.

Abstract: A vehicle rear structure includes: a back frame defining a back opening; and a corner reinforcing structure mounted on an upper corner of the back frame. The back frame is defined by a rear edge of a roof panel and rear edges of a pair of side structures. The corner reinforcing structure includes a first reinforcing member connected to each side structure, a second reinforcing member connected to the rear edge of the roof panel, a third reinforcing member connected to the first reinforcing member, and a structural member connecting the first reinforcing member and the second reinforcing member.

Abstract: A vehicle body assembly structure includes a floor assembly including a floor, a front coupling portion provided at a front of the floor, and a rear coupling portion provided at a rear of the floor, and an upper assembly including a roof frame, a front mounting portion matched to the front coupling portion at a front of the roof frame, and a rear mounting portion matched to the rear coupling portion at a rear of the roof frame, wherein each of the front coupling portion and the front mounting portion and the rear coupling portion and the rear mounting portion are connected in a slide coupling structure.

Abstract: In an upper vehicle-body structure including: a roof side rail disposed at an upper and vehicle-width-direction outer side portion of the vehicle and including a closed cross-section extending in a vehicle front-rear direction; a pillar extending downward from an intermediate portion in the vehicle front-rear direction of the roof side rail; and a roof rail reinforcement disposed inside the intermediate portion in the vehicle front-rear direction of the roof side rail and extending in the front-rear direction, the roof rail reinforcement including front and rear ends bent toward a vehicle-width-direction outer side, the roof rail reinforcement being configured to partition a space inside the intermediate portion of the roof side rail in the vehicle front-rear direction and a vehicle width direction, the roof side rail includes a roof rail outer and a roof rail inner defining, jointly with the roof rail outer, a closed cross-section, the pillar includes a pillar outer and a pillar inner defining, jointly with

Abstract: A vehicle body rear structure includes: a rear wheel well disposed inside a vehicle body and extending in a longitudinal direction of the vehicle body; a rear pillar disposed rearward of the rear wheel well and extending in an upper-lower direction of the vehicle body; and a rear panel joined to the rear pillar and extending in the upper-lower direction. The rear pillar includes a pillar inner and a pillar outer disposed rearward of the pillar inner in the longitudinal direction of the vehicle body. The rear panel has a joint portion, at which the rear panel and the pillar inner are joined together, and the pillar outer has an opening at a position rearward of the joint portion in the longitudinal direction of the vehicle body.

Abstract: Curling of a connection part of a second sealing member is avoided, the curling occurring in a case where the second sealing member is brought into elastic contact with a first sealing member. An end part of a third inner wall, which end part is located on a connection-part side, is thinner than the other part of the third inner wall, and at least a tip of the connection part is located on a vehicle-interior side of a vehicle-interior-side side surface of the third inner wall. A first curved wall and a second curved wall are brought into contact with each other in a case where a first end part and a second end part are caused to abut each other.

Abstract: A lower vehicle-body structure of the present invention comprises a vehicle floor, a first floor cross member extending in a vehicle width direction, a second floor cross member extending in the vehicle width direction, the second floor cross member being spaced, in a vehicle longitudinal direction, apart from the first floor cross member, a side sill extending in the vehicle longitudinal direction and provided at an end portion, in the vehicle width direction, of the vehicle floor, a floor frame extending in the vehicle longitudinal direction and provided on an inward side, in the vehicle width direction, of the side sill, and attaching members for attaching a seat to a vehicle body. The attaching members are fixed to the side sill, the first floor cross member, and/or the second floor cross member.

Abstract: A front end of an upper bracket in a vehicle longitudinal direction is welded to a top surface of a rear cross member, and a weld zone between the rear cross member and the upper bracket includes, in a plan view of a vehicle, a central portion extending along a vehicle width direction and a curved end portion extending in a curved shape from each end of the central portion in the vehicle width direction toward a front side of the vehicle or a diagonally front side of the vehicle, to thereby reduce a stress on each vehicle-widthwise end of the weld zone between the rear cross member and the upper bracket configured to connect a towing tool attachment to the rear cross member.

Abstract: On a side face of a floor tunnel, a side reinforcement is disposed between an upper edge of the side face and a connected region at which a dash cross member is connected to the floor tunnel. An upper reinforcement extends in a longitudinal direction at an upper portion of the floor tunnel. The side reinforcement extends rearward with its rear edge inclining upward. A collision load input from a side member enters the side face of the floor tunnel via the dash cross member. The collision load is, then, transmitted to the upper reinforcement through the floor tunnel along the rear edge of the side reinforcement.

Abstract: A front body structure of the vehicle includes a pair of left and right rear joint members that join front side frames and the sub-frame in a vehicle up-down direction in substantially the same positions in a vehicle front-rear direction as rear reinforcing parts of the suspension housings, and third link members that separate internal spaces of the front side frames in substantially the same positions in the vehicle front-rear direction as the upper ends of rear joint members. The front body structure further includes a tower bar that joins a cowl box and the rear reinforcing parts of the suspension housings.

Abstract: A system for providing structural transmittal of force through a vehicle body of a mid-engine vehicle is provided. The system includes an elongated single member torsional box spanning a passenger compartment from a vehicle-forward portion of the passenger compartment to a vehicle-rearward portion of the passenger compartment, parallel to a longitudinal axis of the vehicle body, and laterally centered upon a longitudinal centerline of the vehicle body. The system further includes four rails in a vehicle-forward position relative to the elongated single member torsional box, parallel to the longitudinal axis of the vehicle body, and offset from the elongated single member torsional box. The system further includes four diagonal support members, each diagonal support member being connected at a first end to one of the four rails and at a second end to the elongated single member torsional box.