Abstract: A lower structure for a hybrid automobile in which a high-voltage battery is disposed in a lower surface of a floor panel includes an engine exhaust system component which is disposed in front of the high-voltage battery in the lower surface of the floor panel and on one vehicle-width-direction side of a center in a vehicle width direction and high-voltage devices which are disposed in front of the high-voltage battery and on another vehicle-width-direction side of the center in the vehicle width direction. In-vehicle equipment is disposed between the high-voltage battery and the high-voltage devices, and the in-vehicle equipment is in an inclined state where an upper surface of the in-vehicle equipment is inclined in a front-rear direction such that the in-vehicle equipment has a shorter dimension in the front-rear direction than a dimension in a horizontal state where the upper surface becomes horizontal.

Abstract: A vehicle includes a frame including a first post, a second post spaced cross-vehicle from the first post, and a steering post rotatably supported by the frame. The steering post extends between the first and second posts. The vehicle includes a steering post reinforcement having a first and a second end each fixed to the frame, a curved portion curving about the axis between the ends, and a first and a second portion extending from the ends to the curved portion. The first and second portions are elongated vehicle-rearward from the frame to the curved portion. The curved portion defines an opening between the ends. The steering post extends through the opening between the curved portion and the frame and between the first and second portions. The curved portion is spaced vehicle-rearward from the steering post. The first and second portions are spaced cross-vehicle from the steering post.

Abstract: A fuel cell vehicle is provided and includes a system frame on which a fuel cell is mounted and first and second side members extending in a first direction and facing each other in a second direction intersecting the first direction. A first fastening part fastens the system frame to each of the first and second side members. The system frame includes a first aperture formed therein in a horizontal direction. The first fastening part includes a first support bracket, including a second aperture, a first insertion hole, and a first tab portion extending from the first insertion hole in the horizontal direction, and a first bolt, including a first shank portion inserted into the first aperture, the second aperture, and the first insertion hole in the horizontal direction and a first threaded portion engaged with the first tab portion.

Abstract: A safety system for an autonomous electronic vehicle having a body and a platform. The safety system includes at least one mechanical connection unit and a safety control module. The mechanical connection unit connects the body to the platform, and is transitionable between a first state, in which the body is attached to the platform at the mechanical connection unit, and a second state, in which the body is released from the platform at the mechanical connection unit. The safety control module is programmed to prompt the mechanical connection unit to transition from the first state to the second state under circumstances of an imminent collision event. In some embodiments, the safety control module is programmed to determine a safety path for passengers within the body and/or others in the collision zone based on conditions surrounding the vehicle.

Abstract: Systems are provided for a structural element. In one example, a system comprises a structural element arranged between a steering column and a front bumper, wherein the structural element at least partially surrounds the steering column.

Abstract: A fuel cell stack includes a plurality of power generation cells and a stack case. A tab protrudes from an outer marginal portion of each of the power generation cells. The stack case contains the plurality of power generation cells that are stacked together in a stacking direction, and includes a pair of end plates provided at both ends of the power generation cells in the stacking direction. Further, the fuel cell stack includes a support bar extending inside the stack case in the stacking direction, and including a recess capable of accommodating the tab. One end of the support bar is joined to one of the end plates, and the other end of the support bar is supported by the other of the end plates.

Abstract: A connecting reinforcement is provided between a hinge pillar and a wheel house so as to reinforce at least around a rear face portion of the wheel house. The connecting reinforcement extends in the vertical direction along a rear face portion of the wheel house and has a closed-cross section space, in a sectional view perpendicular to the vertical direction, inside thereof. A gusset including a slant face portion which is provided at a front face thereof and configured to extend obliquely rearwardly-and-outwardly is provided in the closed-cross section space. A gap space which forms a part of the closed-cross section space is provided between the slant face portion and the rear face portion of the wheel house provided on a wheel-house side so as to face the slant face portion.

Abstract: A subframe structure of a front suspension that leads a subframe and a vehicle driving apparatus to the lower side after separation of a rear portion of the subframe due to a frontal collision without increasing weight and parts. A subframe structure of the front suspension provides a subframe that supports a vehicle driving apparatus in a mounting manner, and a rear portion of the subframe is mounted on a lower portion of a vehicle body via a fastening member. Fastening between the subframe and the fastening member is configured such that the rear portion of the subframe is separated when a collision load to a vehicle rear side is applied to the subframe. A leading guide portion that abuts against the fastening member and leads the subframe to a lower side after separation from the fastening member is integrally formed on the rear portion of the subframe.

Abstract: A rear chassis module for a vehicle includes: a rear suspension subframe disposed under a rear floor panel; a pair of front reinforcing members extending from the rear suspension subframe toward the front of the vehicle, and supporting a battery pack; a pair of rear reinforcing members extending from the rear suspension subframe toward the rear of the vehicle, and supporting a fuel tank; a pair of rear floor side members disposed on both sides of the rear floor panel; and a rear crossmember transverse to and connected to the pair of rear floor side members.

Abstract: A vehicle front portion structure includes: a motor unit disposed at a vehicle front part; a suspension member disposed at the vehicle front part, the suspension member extending in a vehicle front-rear direction and deforming toward a vehicle lower side at a time of vehicle frontal collision; a left-right pair of front side motor mounts connecting a front part of the motor unit with the suspension member; a rear side motor mount connecting a central part, in a vehicle width direction, of a rear part of the motor unit with the suspension member; and a break mechanism that causes the rear side motor mount, which moves toward a vehicle rear side at a time of vehicle frontal collision, to break in the vehicle width direction.

Abstract: An in-vehicle installation structure for an electric device installed in a front compartment of a vehicle includes: a structure disposed in a front compartment of a vehicle; an electric device fixed to an upper portion of the structure; a connector connected to a rear upper portion of the electric device; and a protector extending upward from the electric device, the protector being disposed behind the connector of the electric device.

Abstract: A suspension housing which is provided at a front part of a vehicle and to which a suspension is mounted has a first fixed portion and a second fixed portion that are provided at positions separated from each other in a front-rear direction and each fixed to a front frame. The suspension housing further has, at a position between the first fixed portion and the second fixed portion in the front-rear direction, a buckling promoting portion that promotes buckling of the suspension housing when a load is applied from the front frame to the suspension housing in the front-rear direction.

Abstract: It is an object to provide a vehicle body front structure capable of uniformly deforming a colliding object and achieving a high score in the MPDB frontal impact test. Features of a vehicle body front structure according to the present invention lie in including a front side member extending in a front-rear direction on a side of a power unit mounting room located in a front part of a vehicle, a first member fixed to a front end of the front side member and extending in a vertical direction; and a second member arranged on an outer side of the first member in a vehicle width direction, wherein a front face of the first member is a flat face, and the second member is connected to the first member below the front side member, inclines upward as the second member extends rearward relative to the vehicle from a portion at which the second member is connected to the first member, and is also connected to a vehicle body above the front side member.

Abstract: A vehicle body front structure includes a side frame and a tubular member. The side member extends in a longitudinal direction of a vehicle body. The side frame member is configured to have a closed hollow section in a vertical direction orthogonal to the longitudinal direction. The tubular member extends in the longitudinal direction within the side frame. The tubular member is configured to have a closed hollow section in the vertical direction. The tubular member is spaced apart from the side frame.

Abstract: The invention relates to an arrangement for the drive mounting, in particular for a motor vehicle, preferentially a utility vehicle. The arrangement comprises a supporting structure, in particular a cross member structure. The arrangement comprises an, in particular electric, drive unit, which is attached to the supporting structure in a 3-point mounting on an underside and/or from below. Advantageously, the drive unit can thus be fed to the motor vehicle from the rear end. The drive unit can be practically lifted in order to be then attached to the supporting structure on an underside or from below. The 3-point mounting makes possible a quick assembly. In addition, a static redundancy of the mounting through too many bearing points (e.g. four or more) is prevented.

Abstract: Methods and systems are provided for a powertrain support mount assembly. In one example, the powertrain support mount assembly comprises a first bracket and a second bracket, the second bracket comprising an engagement feature shaped to engage with the first bracket during a vehicle collision, which adjusts a load of the second bracket to decouple from the engage and avoid contacting an auxiliary component adjacent to the powertrain.

Abstract: A vehicle body rear floor structure includes a rear floor panel arranged on a vehicle body rear portion, and a rear crossmember being mounted on the rear floor panel and extending in the vehicle width direction. The rear crossmember is formed as separate parts in advance, including a crossmember-front and a crossmember-rear arranged on a rear side of the crossmember-front, wherein the crossmember-front and the crossmember-rear are separate parts before forming the rear crossmember and are integrally joined to form the rear crossmember.

Abstract: A reinforcing member is provided inside a closed cross section of a front side frame at a position, in a vehicle longitudinal direction, which corresponds to a forming position of a bead. The reinforcing member extends between an outward side wall portion and an inward side wall portion of the front side frame. The reinforcing member is joined to the outward side wall portion and the inward side wall portion of the front side frame. A joint length, in the vehicle longitudinal direction, of the reinforcing member and the inward side wall portion is set to be longer than that of the reinforcing member and the outward side wall portion.

Abstract: In a vehicle body front structure, a sub frame is fixed to front mount brackets and rear mount brackets of a pair of front side frames. A power unit is arranged on the front side of the sub frame in the vehicle body, and the power unit is supported by the pair of front side frames. A tilt surface is formed on the sub frame, and the tilt surface tilts to ascend toward the rear of the vehicle body. A rear portion of the power unit faces the tilt surface.

Abstract: A vehicle body structure deflector system for small overlap frontal impact includes a first shock tower and a second shock tower. A cross member is positioned between each of the first shock tower and the second shock tower. A first deflector is connected to the first shock tower and a second deflector is connected to the second shock tower. If one of the first deflector or the second deflector is contacted by a barrier during forward travel of the vehicle a portion of an energy of impact with the barrier is transferred through one of the first shock tower or the second shock tower, through the cross member and into the other shock tower. The portion of the energy of impact with the barrier generates a vehicle lateral displacement to dissipate the portion of the energy of impact.

Abstract: A vehicle front structure includes: a bumper reinforcement; a power unit including a right device and a left device; a dash section located at a position rearward of the power unit; and a rearward supporting part provided between a dash section and the power unit. The bumper reinforcement includes a first breakage initiation point having a relatively lower bending strength than bending strengths of other portions of the bumper reinforcement. The position of the first breakage initiation point is set such that when a columnar object collides against the vicinity of the center in the vehicle width direction of the vehicle, the first breakage initiation point transfers a collision load to one of the right device and the left device which is supported by the rearward supporting part.

Abstract: A vehicle transmission apparatus, for an automotive vehicle that has a longitudinal axis and a lateral axis, is contained within an engine compartment of the vehicle and includes a vehicle transmission and a roll initiator operable to rotate the vehicle transmission about the lateral axis of the vehicle. The roll initiator is attached to vehicle transmission and has a projecting portion that is arranged to engage with a structure within the engine compartment.

Abstract: A vehicle body front part structure includes: a pair of right and left front side frames each extending in a vehicle front-rear direction; a pair of right and left upper members each extending in the vehicle front-rear direction at respective outer sides in a vehicle width direction of the pair of right and left front side frames; and a pair of right and left lower members each located at a vehicle front side of each of the upper members and each allowing a vehicle front side end part thereof to be coupled to each of the front side frames. In the vehicle body front part structure, each of the lower members is composed of a pipe member, and the vehicle front side end part of each of the lower members linearly extends in an up-down direction.

Abstract: A motor vehicle includes an engine assembly housed in a bay, a subframe adjacent a bottom of the bay, a bulkhead adjacent a rear of the bay, and a catch structure extending laterally across the bay above the subframe and adjacent an upper end of the bulkhead. A lower catch hook is coupled to the engine assembly and configured to engage the subframe and transfer load from the engine assembly to the subframe when the engine assembly moves toward the bulkhead during a collision. An upper catch hook is coupled to the engine assembly and configured to engage the catch structure and transfer load from the engine assembly to the catch structure when the engine assembly moves toward the bulkhead during the collision. The catch structure may be a cable connected to left and right suspension towers.

Abstract: There is provided a fuel cell mounting structure including: a pair of left and right vibration-proofing members that are provided due to front side joining portions and rear side joining portions being mounted to suspension members; and a fuel cell that is supported at least by the pair of left and right vibration-proofing members, and is disposed at vehicle body upper sides of the suspension members, wherein one of the front side joining portions and the rear side joining portions are supported so as to be rotatable with a vehicle transverse direction being an axis of rotation, and another of the front side joining portions and the rear side joining portions are structured so as to break away from the suspension members, due to weak portions breaking at a time when load is inputted to the fuel cell from a vehicle body longitudinal direction.

Abstract: A side vehicle body structure prevents a fastening bolt of a cowl member from being loosened while suppressing production cost. The structure includes a pair of left and right suspension towers each formed so as to expand into an engine room and supporting a buffer device of a front suspension, and a cowl member extending forward from an upper end portion of a dash panel separating the engine room from a vehicle interior. Left and right end portions of the cowl member are coupled to respective top portions of the suspension towers by a pair of fastening portions using bolts, and each fastening portion includes a first bolt fastening portion arranged inward of a corresponding center of the top portion and at least partially overlapping a line connecting the centers, and a second bolt fastening portion arranged at a front side of the first bolt fastening portion.

Abstract: A vehicle front structure includes a powertrain unit disposed in a front portion of a vehicle; a suspension cross member disposed behind the powertrain unit and extending in a vehicle width direction; and a bracket fastened to a boss portion provided in a housing of the powertrain unit. The bracket contacts a receiving surface of the suspension cross member due to backward movement of the powertrain unit during a vehicle front collision. The bracket includes a buffer portion disposed between a fastened portion that is fastened to the boss portion and a contact portion that contacts the receiving surface of the suspension cross member.

Abstract: In an embodiment, a motor guidance component is configured to guide a dislodged electric motor away from one or more protected areas of the electric vehicle in response to crash forces. In a further embodiment, the motor guidance component may be configured to guide the one dislodged electric motor in an upwards direction (e.g., above the one or more protected areas) or in a downwards direction (e.g., below the one or more protected areas).

Abstract: A stay includes a first-bolt hole portion fastened to a body frame by a first bolt, a second-bolt hole portion fastened to a subframe by a second bolt, a recessed portion disposed between the first-bolt hole portion and the second-bolt hole portion and recessed downward, and a cutout portion continuous with the first-bolt hole portion and formed by cutting out a part of the recessed portion. The dimension of the recessed portion in its depth direction is equal to or larger than the dimension of the head portion of the first bolt in its height direction. The widthwise dimension of the cutout portion in a direction perpendicular to an axis of the stay is set to be smaller than the largest outer diameter of the head portion of the first bolt.

Abstract: An electric-drive vehicle structure is provided, which includes a cross member bridged between side frames in a front part of a vehicle, a motor suspended below the cross member, a tray fixed to an upper surface of the cross member, and an electric unit for driving a motor, fixed onto the tray. A front edge of the electric unit is located forward of a front edge of the cross member, and the tray has a front edge located, throughout a width thereof, forward of the electric unit.

Abstract: A body arrangement for a front-end structure of a motor vehicle has a lower main longitudinal member arrangement, on the front end of which there is arranged a shock-absorbing transverse member, an upper member arrangement, which runs above a wheel suspension, and a tension strap which is fastened at a first fastening point to a front region of the main longitudinal member arrangement and at a second fastening point to the upper member arrangement. The first fastening point and the second fastening point are spaced apart in a vehicle transverse direction. The tension strap is arranged such that, in the event of a frontal collision of the motor vehicle with a small overlap, in the case of which a collision partner strikes the upper member arrangement of the motor vehicle laterally with respect to the longitudinal member arrangement, the tension strap, under tension, supports the upper member arrangement on the main longitudinal member arrangement.

Abstract: A method for ascertaining an inner resistance of a supply network for supplying energy to an occupant protection system of a vehicle. The occupant protection system includes a charging unit connected to the supply network using a primary interface and to an energy buffer store using a secondary interface for the temporary storage of energy for activating occupant protection devices system and for supplying the system after being separated from the supply network. The method includes impressing a first charge current value at the secondary interface, and a first current/voltage at the primary interface during the impression. Further, a second, different, charge current value is impressed at the secondary interface. The method also includes determining a second current/voltage at the primary interface during the impression, and ascertaining the inner resistance of the supply network, using the detected first current and second current and/or the first voltage and the second voltage.

Abstract: A battery holder arrangement for a vehicle that includes a battery and at least one bodywork component having at least one projection which acts as a catch for the battery. In a normal state of the vehicle, the battery is not held by the projection, and in a damaged state of the vehicle, the battery is held by the projection.

Abstract: A cell voltage control unit is provided on a lower surface of a stack body of a fuel cell stack. The cell voltage control unit is connected to cell voltage terminals for monitoring cell voltage. A protection member is provided on a second end plate where the cell voltage control unit is provided. The protection member has protrusions protruding from both sides of the protection member in a horizontal direction, and a body portion having a vertically elongated shape so as to extend to a front face of the cell voltage control unit.

Abstract: A sub-frame and method in a sub-frame arrangement in a vehicle wherein said sub-frame arrangement comprises a sub-frame, a body member, and a first and second attachment socket. Each attachment socket is adapted to host a fastening means arranged in a through going apertures of each attachment socket and adapted to fasten said sub-frame to the body member. The fastening means are adapted to fasten a front section of said sub-frame, first and second attachment sockets each comprises a weakened portion arranged at an angle separated from the vehicle deformation direction during a front collision, and the weakened portions are adapted to give way releasing the sub-frame in the event of deformation of the vehicle.

Abstract: A joint for a vehicle can direct forces away from an interior of the vehicle and along a frame rail. The joint can pivot when subjected to a high force, and the pivoting action can redirect and redistribute the force away from a passenger compartment. The joint can comprise multiple pivot points.

Abstract: A power train supporting structure for a vehicle is provided with: a power train including a transversely disposed engine, a transmission, and a transfer; and a rear mount bracket which connects a rear portion of the power train and a suspension cross member. A front portion of the rear mount bracket is connected to the transfer at a position which is below a drive shaft, and is in a vehicle up-down directional area that is an overlapping of the transmission and the transfer in view of the vehicle width direction.

Abstract: A front suspension structure has a front portion on a first side member of a vehicle frame and a rear portion on the first side member rearward of the front portion. A front wheel is supported by a wheel support structure that is pivotally mounted to a front suspension structure of the first side member. A stop structure is installed to the first side member at the rear portion of the front suspension structure. The stop structure extends in an outboard direction of the first side member. The stop structure has a stop surface that defines an angle relative to the vehicle longitudinal direction between 110 and 130 degrees. In response to an impact event to a front area of the front wheel, the front wheel pivots relative to the wheel support structure moving a rear area of the front wheel into contact with the stop surface.

Abstract: A body-mounted tire blocker assembly can absorb and/or manage energy when a vehicle body assembly is subjected to an external force. This vehicle body assembly may include a vehicle body defining a passenger compartment. The vehicle body further includes a rocker panel defining a first panel end and a second panel end opposite the first panel end. The tire blocker assembly is coupled to the rocker panel and includes a first blocker body and a second blocker body coupled to the first blocker body. The first blocker body is farther from the first panel end than the second blocker body in order to guide a wheel away from the passenger compartment when an external force is applied to the vehicle body.

Abstract: A power unit mounting structure of a vehicle includes a power unit 100, a sub frame 200 disposed below the power unit 100 in the vehicle height direction and at least one attaching bracket 220 for attaching the power unit 100 on the sub frame 200, the power unit 100 has an arm 210 extended from the main body portion thereof to the attaching bracket 220, a tip portion of the arm 210 is axially supported on a pair of shaft supporting portions 221 of the attaching bracket 220 with a shaft member 213 extended to the width direction of the vehicle, and the shaft supporting portion 221 of the attaching bracket 220 has fragile portions 222, 223 which break when the impact is applied such that the aria 210 of the power unit 100 shifts to the front direction.

Abstract: A fuel cell stack includes a bracket and a boss. The bracket includes an attachment surface. The bracket includes an attachment and detachment hole and an opening hole. The boss includes a bearing surface and a locking surface part. The locking surface part is connected to the bearing surface and protrudes in an outside direction such that at least a part of the locking surface part overlaps with the attachment surface part viewed from an attachment direction when a center of the attachment and detachment hole coincides with a center of the bearing surface.

Abstract: A vehicle frame component for limiting the movement of the wheel of the vehicle toward the cab of a cab on frame vehicle including a base member welded to openings in the frame side rail and extending outwardly and located proximal the wheel structure. In one embodiment the vehicle frame component is located forward of the wheel and includes a tire puncture device to deflate the tire during an offset front impact and in a second embodiment the vehicle frame component is located rearward of the wheel. The vehicle frame component has particular utility during an offset front impact where the offset is less than approximately twenty-five percent (25%) of the width of the vehicle.

Abstract: A suspension member that includes: a rear cross member having a pair of secondary side rails; a front cross member; a right and left pair of front body mounts; and a right and left pair of side rails that are each formed in a closed cross-sectional shape having a higher ductility than a ductility of the front body mounts and the secondary side rails, extend in the extension direction of the secondary side rails, and are covered from vehicle body upper side by and joined to the front body mounts in a state in which vehicle body rear side sections of the side rails are covered from their vehicle body upper side by and joined to the secondary side rails and vehicle body front side sections of the side rails overlap front end portions of the front body mounts as seen in a plan view.

Abstract: A vehicle front section structure includes a front side member, a gusset that juts out from a side face of a front end of the front side member, a bumper reinforcement that is disposed at a front end side of the vehicle body front section, and a crash box that is disposed between front ends of the front side member and the gusset, and an outer side section of the bumper reinforcement, that couples both of the front ends and the outer side section together, and undergoes compressive plastic deformation due to collision load. A flat portion is integrally formed at an end of the bumper reinforcement, with a front face of the flat portion extending along the vehicle width direction and a vehicle up-down direction and, in vehicle front view, overlapping with a side wall portion at the vehicle width direction outer side of the crash box.

Abstract: In a vehicle front part structure of a vehicle body, a gusset member is disposed in front of a front pillar. The gusset member is positioned so as to overlap with at least a front tire in the vertical direction of the vehicle body. The gusset member covers at least a portion of a lower portion of the front pillar on a front side in the longitudinal direction of the vehicle body. The gusset member has a stepped portion on a front side thereof in the longitudinal direction of the vehicle body. The stepped portion extends in the vertical direction of the vehicle body and makes a portion of the gusset member disposed inside in the vehicle width direction positioned relatively in front of a portion of the gusset member disposed outside in the vehicle width direction in the longitudinal direction of the vehicle body.

Abstract: A vehicle includes a side support extending in a vehicle longitudinal direction, a drive unit spaced apart from the side support in a vehicle lateral direction, where the drive unit includes a crankshaft extending in the vehicle lateral direction, and a spacer member positioned between the side support and the drive unit in the vehicle lateral direction, where the spacer member coupled to one of the drive unit and the side support, and the spacer member is detached and spaced apart from the other of the drive unit and the side support, and where the spacer member is positioned rearward of the crankshaft in the vehicle longitudinal direction.

Abstract: A vehicle front section structure includes a front side member, a gusset that juts out from a side face of a front end of the front side member, a bumper reinforcement that is disposed at a front end side of the vehicle body front section, and a crash box that is disposed between front ends of the front side member and the gusset, and an outer side section of the bumper reinforcement, that couples both of the front ends and the outer side section together, and undergoes compressive plastic deformation due to collision load. A flat portion is integrally formed at an end of the bumper reinforcement, with a front face of the flat portion extending along the vehicle width direction and a vehicle up-down direction and, in vehicle front view, overlapping with a side wall portion at the vehicle width direction outer side of the crash box.

Abstract: A method according to an exemplary aspect of the present disclosure includes, among other things, activating hazard lights of an electrified vehicle in response to a high voltage battery disconnect event.

Abstract: A driving unit and a power-generating unit are separately supported on a sub-frame in such a manner to isolate vibration and are spaced away from each other in a vehicle front-rear direction, to realize good noise/vibration control ability. With respect to an external input acting in the vehicle front-rear direction, a weakened part of a mount bracket extended over the power-generating unit to the driving unit induces and promotes a buckling distortion, to demonstrate good energy absorption ability.

Abstract: A vehicle includes a vehicle body that includes a rocker fixed to an underbody. The rocker and the under body at least in part define a front wheel well of the vehicle. A rim engagement member is cantilevered from the underbody and extends into the wheel well. The rim engagement member snags a rim of a front wheel of the vehicle and directs movement of a front wheel of the vehicle away from intrusion into a floor and/or dash of the vehicle.