Abstract: A fastening apparatus for fastening a high-voltage storage housing to a bodyshell component of a motor vehicle, includes a plurality of fastening elements, which can be connected to the bodyshell component of a motor vehicle, and a base element integrally formed with the fastening elements, by which the fastening apparatus can be connected to the high voltage storage housing. The base element has a framework structure having a plurality of webs, by which the fastening elements are connected to one another.

Abstract: An axially compressible energy absorbing member for a vehicle comprising a thin-walled tube having at least two adjacent, substantially parallel, axially-extending passageways defined by tube walls and separated where they are adjacent by a wall section, wherein the wall section includes one or more apertures of predetermined shape(s) and/or size(s), and wherein the thickness of the tube walls and of the wall section is substantially constant and the same.

Abstract: A side rail includes a reinforcement region having a closed-section structure by base members and reinforcement plate members having a greater plate thickness than a plate thickness of the base members. In the reinforcement region, in a state in which the reinforcement plate members are fitted in fitting portions provided at positions corresponding to respective corner portions in the base members, the base members and the reinforcement plate members are joined to each other by laser welding.

Abstract: A door beam includes an aluminum alloy extrusion body extended in a longitudinal direction and having a pair of webs and a pair of flanges to be positioned on an inner side and an outer side in a width direction of a vehicle body. The pair of webs connect the pair of flanges at joint portions of each of the pair of webs such that the pair of webs and the pair of flanges form a closed cross section in a direction perpendicular to the longitudinal direction, and the pair of webs do not have a welded portion.

Abstract: A vehicle body floor structure includes: a plurality of first vehicle body framework members extending along a vehicle body front-rear direction; a plurality of second vehicle body framework members extending along a vehicle width direction; a floor panel to which each of the first vehicle body framework members and the second vehicle body framework members is joined; and a vibration damping material that is applied to a surface of the floor panel. The floor panel includes a plurality of steps having ridge lines extending along a short-side direction of a first region. The first region is surrounded by the first vehicle body framework members and the second vehicle body framework members. The vibration damping material is applied along at least one outer edge portion of the first region.

Abstract: A vehicle body exoskeleton includes a plurality of nodes each defining a receptacle. A plurality of tubes have first and second end portions smaller than and tapering inwardly from a main portion. Each end portion is received in one of the receptacles. An adhesive is applied to the end portions filling a gap defined between the receptacles and the end portions to bond the tubes to the receptacles.

Abstract: A body mount bracket that is joined to a body mount fixed to a frame is provided at a bottom of a body. The body mount bracket has: a boss that is penetrated by a body fastening bolt of the body mount; and a longitudinal rib that extends from the boss in a longitudinal direction of the body mount bracket. The longitudinal rib is provided with a notch near the boss. When receiving a collision load, the body mount bracket is fractured at a position of the notch.

Abstract: A system for attaching a door to the body of a vehicle includes an inner pillar stiffener, an outer pillar stiffener laterally outward from the inner pillar stiffener, and an outer panel laterally outward from the outer panel stiffener. The system has a standoff structure located between the outer pillar stiffener and the outer panel, a door hinge, hinge bolts for fastening the door hinge to the standoff structure, the hinge bolts received through holes in the outer panel, the holes in the standoff structure, the holes in the outer pillar stiffener, and plate nuts for securing the hinge bolts to the outer pillar stiffener. The standoff structure includes a cup-shaped body having a bottom portion, a sidewall portion, and an edge, a flange extending around the edge of the cup-shaped body, holes in the cup-shaped body, and weld collars extending inward from the holes to the outer pillar stiffener.

Abstract: A bracket for a vehicle is provided including a four-way fastener locator portion and a slip plane portion. The fastener locator portion includes a cross-member configured to allow passage therethrough of a portion of a fastener received in the fastener-receiving portion on application of a force meeting or exceeding a predetermined impact load. Assemblies including the provided bracket are described.

Abstract: In a method for connecting an attachment part to a structural part of a bodywork, a wall of the structural part is formed to at least partly encircle a region of the structural part. A form element is arranged to a main body of the attachment part. The attachment part is placed in the region of the structural part such that the form element touches the wall of the structural part, and the attachment part is pushed into the region, thereby causing the form element to move in relation to the main body of the attachment part until reaching an aperture in the wall of the structural part so that the form element moves into the aperture and is arranged therein to thereby position the attachment part in the region of the structural part.

Abstract: Disclosed is a welded structural member production method comprises: a first preparation step of preparing a cross-sectionally hat-shaped first metal workpiece which has a first base wall, a pair of first standing walls and a pair of flanges; a second preparation step of preparing a cross-sectionally U-shaped second metal workpiece which has a second base wall, and a pair of second standing walls; a positioning step of positioning the first metal workpiece and the metal workpiece in such a manner that each of two pairs of distal edges of the second standing walls and inner edge regions of the flanges are butted against each other; and a joining step of externally welding a butted region of each of the pairs of the distal edges of the second standing walls and the inner edge regions of the flanges to thereby join the first and second metal workpieces together.

Abstract: A vehicle body exoskeleton includes a plurality of nodes each defining a receptacle. A plurality of tubes have first and second end portions smaller than and tapering inwardly from a main portion. Each end portion is received in one of the receptacles. An adhesive is applied to the end portions filling a gap defined between the receptacles and the end portions to bond the tubes to the receptacles.

Abstract: A panel for an aircraft wing, having a sandwich structure in which there is arranged a reinforcing part. When the panel is attached to a bracket so as to be articulated to another element, the reinforcing part is provided in order to distribute, over its entire surface, a force transmitted by the bracket to the panel.

Abstract: Vehicle structures for dissipating energy associated with a collision are disclosed herein. In one embodiment, a vehicle includes a side support that extends between a front suspension mount and a rear suspension mount of the vehicle. The side support includes a targeted energy absorption portion that defines a high-strength region of the side support. The vehicle also includes a cab mounting bracket coupled to the side support and extending outward from the side support. The cab mounting bracket includes a rearward attachment position on the side support and the rearward attachment position of the cab mounting bracket is positioned proximate to the high-strength region of the side support. The vehicle further includes a wheel assembly that is coupled to the front suspension mount and is positioned forward of the cab mounting bracket in a vehicle longitudinal direction.

Abstract: In one embodiment, a vehicle for transporting passengers can include a chassis, a support member, and a labyrinthine girder. The support member can be rigidly engaged to and project from the chassis. The labyrinthine girder can include a coupling platform that is coupled to the support member. The labyrinthine girder can form a partial enclosure that surrounds a portion of the frame rail. An offset distance can be disposed between the labyrinthine girder and the frame rail.

Abstract: A platform trailer includes a neck reinforcement structure located in the neck region. The neck reinforcement structure includes a first beam reinforcement structure located adjacent an inner side of the first beam that is oriented toward the second beam, and a second beam reinforcement structure located adjacent an inner side of the second beam that is oriented toward the first beam. A plurality of internal cross members extend between and interconnect the first and second beam reinforcement structures. A fifth wheel plate is fixedly secured to and that extends between both the first and second beams. A kingpin is connected to the fifth wheel plate and is adapted to be engaged by an associated tractor fifth wheel. The neck reinforcement structure allows for use of aluminum alloy beams with a reduced height in the neck region of the trailer.

Abstract: This disclosure relates to vehicle frame components that are comprised of composite materials. Vehicle frame component structures are disclosed that address the relative lack of the compressive strength of composites compared to conventional metal materials used in vehicle frames. One desirable frame structure is a box frame rail structure that is comprised of composite materials and that has an enhanced capacity to accommodate compressive loads. In addition, the disclosed box frame rail structures provide protective routing options for wiring and pneumatic plumbing.

Abstract: A box-type frame member assembly, and a method for assembling the box-type frame member. A first section, having a web, a pair of flanges and a number of holes with locators, is placed onto a fixture assembly with the holes fitting onto pilots. A spacer is placed over each of the pilots and engaged with the locator of the respective hole in the first section. A second section, having a web, a pair of flanges, and a number of holes with locators, is then placed onto the fixture assembly with the holes fitting onto the pilots, and second end of each spacer is engaged with the locator associated with the web of the second section. Finally, the flanges of the first and second sections are secured together.

Abstract: A frame rail for a vehicle has a pair of elongated structural members, each one of the pair of elongated structural members having flanges protruding from lateral edges thereof. The flanges of one of the pair of elongated structural members extend in a direction toward the flanges of the other one of the pair of elongated structural members. The frame rail also has first and second metallic web panels interconnecting the pair of elongated structural members. Overall, the frame rail has a box beam structure, wherein at least a major portion of each one of the first and second metallic web panels has a material thickness that is less than a material thickness of at least a major portion of each one of the pair of elongated structural members.

Abstract: A reinforcement tube assembly for a fastener in a vehicle body structure is provided. The reinforcement tube assembly includes a reinforcement tube and a locator. The locator is affixed to the reinforcement tube. The reinforcement tube is operatively configured to receive a fastener and is operatively configured be installed at least partially within a vehicle body structure. The locator includes at least two mounting surfaces operatively configured to engage with a vehicle body structure. The locator includes at least two mounting surfaces operatively configured to engage with the vehicle body structure.

Abstract: A transport frame includes a plurality of beams interconnected to form the frame with a first group of the beams intersecting and extending through a second group of the beams. The first group of the beams is secured to the second group of beams at their respective intersections. At least one of the beams comprises a polymer beam.

Abstract: A robotic platform for autonomous automotive vehicle development. The platform includes a frame having a plurality of wheels rotatably mounted to the frame. A motor mechanism is associated with at least one of the wheels and the motor mechanism is responsive to drive signals to rotatably drive its associated wheel. At least one sensor is mounted to the vehicle which provides an output signal representative of a parameter relevant to the position of the robotic platform. A programmable control circuit is programmed to generate drive signals in response to the sensor output(s) to simulate the operation of an automotive vehicle for vehicle development.

Abstract: A pair of side frames extends longitudinally away from each other in a vehicle width direction, which includes a closed cross section formed by an outer panel having a U-shaped cross section with its vehicle's inward side opening and an inner panel having a U-shaped cross section with its vehicle's outward side opening. A cab-mount bracket is provided on a vehicle-outward side of a front portion of the side frame to support a cabin. The cab-mount bracket includes an upper portion which is joined to a side face of a side portion of the outer panel and extends in an outward direction, and a lower portion which includes an extension portion extending in a vehicle inward direction beyond the side face of the outer panel and be joined to a lower face of a bottom portion of the inner panel.

Abstract: The trailer chassis includes a plurality of frame members forming a substantially rectangular box frame. The rectangular box frame includes a central, elongate main sub-frame integral with a pair of spaced outboard frame rail sections where wheel wells are formed. The central main sub-frame is devoid of cross members to provide unhindered storage space. Select sections of the rectangular box frame are covered with rigid plating to strengthen the torsional rigidity of the trailer chassis. The front section of the rectangular box frame includes a raised platform with a hitch frame integral thereto for installing a hitch. The trailer chassis is detachably mounted to the trailer in order to permit separate shipment of the trailer chassis in a shipping container.

Abstract: A light weight beam, a truck frame utilizing a light weight beam, and a method of assembling a truck frame, each include a composite box beam.

Abstract: Described herein are several embodiments of a vehicle chassis with frame rails having a dropped center section. According to one embodiment, a motor vehicle chassis includes a forward frame rail section and a rear frame rail section that is spaced apart from the forward frame rail section. The chassis also includes a center frame rail section that is parallel to both the forward and rear frame rail sections and extends at least partially between the forward and rear frame rail sections. A forward portion of the center frame rail section can be positioned below a rear section of the forward frame rail section to form a forward overlapping section. The forward overlapping section can define a first open space between the two sections. Similarly, a rear portion of the center frame rail section is positioned below a front section of the rear frame rail section to form a rear overlapping section. The rear overlapping section can define a second open space between the two sections.

Abstract: Rigidity of a frame of a working vehicle is improved by a simple structure and production costs are reduced by reducing the number of parts of a working vehicle. Pipes 66 are provided on both left and right sides at the center in the front-rear direction of a side frame 62, and each pipe 66 has a rectangular cross-section and penetrates an intermediate partition in the front-rear direction from a mast section 64 up to a transmission section. Tie-down holes are formed in a front face plate 61 to which the front end of a frame 9 is connected, and a plate 64b connected to a side frame 62 is provided at the bottom surface of each mast section 64 protruding outward from the side frame 62. Tanks installed on the working vehicle are suspended from the plate bodies 64b, and a lift arm installation boss provided at each mast section 64 is supported at both ends. A U-shaped reinforcement member 81 connects the upper surface of mast partition plate of a mast section 64 and left and right bosses.

Abstract: A transport frame includes a plurality of polymer beams interconnected to form the frame with a first group of the polymer beams intersecting and extending through a second group of the polymer beams. The first group of the polymer beams is secured to the second group of polymer beams by an adhesive at their respective intersections. At least one of the polymer beams provides a non-conductive raceway for routing electrical wires or cables through the frame.

Abstract: A track driven vehicle has an undercarriage transmission assembly that has a central transmission housing forming a one piece all welded housing. The central transmission housing has upright side wall portions with multiple layers of plates or walls in a sandwich construction on which drive motors are mounted. The drive motors are on the interior of the transmission housing, with track driven sprocket assemblies on the exterior of the side walls. Track mounting pods or frames are welded to the exterior of the side walls of the transmission housing.

Abstract: One embodiment of a modular base assembly comprises a frame and leveler assemblies used to support a vehicle model. The frame has a frame segment with several parts including a cross-support and a side-support having a surface defining a plurality of holes where model-making components can be attached and unattached thereto. Leveler assemblies level the base assembly, and each can include a wheel hub locator that adjustably fixes a hub along a longitudinal horizontal, a vertical, and a lateral horizontal direction. Another embodiment comprises a motorized vehicle undercarriage that carries a frame. The frame has a platform with a top surface defining a plurality of holes in the form of a matrix. Model-making components can be attached and unattached thereto.

Abstract: A hollow-bodied component, which includes at least two die-cast shell elements (1, 2), is suitable in particular for use as a steering component in motor vehicle running-gear assemblies. The hollow-bodied component has a connection zone (5, 6, 18, 19) configured on the shell elements (1, 2) to be interconnected. One connection zone (5) has one first contact area (7) with an essentially U-shaped cross-section that is located on the respective shell element (1) and the other connection zone has at least one strut-type second contact area (8) that engages in the space in the U-shaped first contact area (7) and that is located on the respective other shell element (2). The connection zones (5, 6, 18, 19) are joined in a force fit in a cold welding process that uses a contact pressure (F1, F2), whose value is a multiple of the separating force components (Fr) that act on the connection zones (5, 6, 18, 19) during operation. A method is provided for producing the component.

Abstract: A square shaped sub-frame for a vehicle manufactured from an especially designed aluminium profile (1). The profile comprises a first and a second channel (11, 13) separated by an intervening channel (12). Said first and second channels (11, 13) are separated in localized areas by removing wall material from the intervening channel (12). Then, the profile (1) is bent into a U-shaped or square, closed frame, said second channel (13) defining a load carrying frame. The first channel (11) is machined into mounting brackets for control arms etc.

Abstract: A vehicle chassis assembly includes a frame assembly having a plurality of frame members connected together, a drivetrain, a suspension system, and an exhaust system. The connection of the frame members provides a low-profile configuration for reduced step height and a kick-up portion to allow ascent of steeper inclines. The frame further includes an exhaust pipe supported within a frame member and two castings bolted to removable wheel arches. The exhaust pipe has a circular cross-section that changes to a rectangular cross-section near the back of the chassis assembly.

Abstract: A motor vehicle frame includes a pair of longitudinal frame members. A cross member is provided to maintain the frame members in a spaced apart condition. The cross member has a first end configured to mount to a first one of the longitudinal frame members and a second end configured to engage a steering gear housing. The second end sandwiches steering gear housing as the second end is fastened to a second one of the frame members.

Abstract: A three-dimensional joint structure of a support frame for vehicles can include two hollow profiles, of which the first hollow profile has at least one planar side and is cut through around its circumference except for a web lying in this planar side and is bent around this web. The second hollow profile has at least two planar sides that press against the ends of the first hollow profile resulting from the cutting and bending. The two hollow profiles are integrally joined to one another at the edge region of the ends.

Abstract: A frame for a vehicle includes a first frame member having a square tube-like joint end portion and a second frame member having a square tube-like joint end portion. The joint end portion of the first frame member and the joint end portion of the second frame member are butt-welded to each other. The joint end portions of the first and second frame members each has circumferentially continuous first-fourth edges and the first-fourth edges are inclined when the joint end portions are viewed radially in any direction.

Abstract: A vehicle front body structure which includes: a longitudinal structural member provided at a front end thereof with a bracket which has a portion projecting downward from a lower side face of the longitudinal structural member; a transverse member connected to the longitudinal structural member at the bracket thereof; and a suspension member mounted to the longitudinal structural member with a front portion thereof fixed to the lower side face of the longitudinal structural member at a position in the vicinity of a rear side face of the downward projecting portion of the bracket.

Abstract: A short span fifth wheel hitch comprising a hitch plate, at least one back rib, a peripheral flange connected to ends of the back rib, and a main rib extending between the back rib and a portion of the peripheral flange, with the main rib being connected to ends of the peripheral flange. The fifth wheel hitch also includes skirts extending from the hitch plate adjacent the back rib. At least two pairs of mounting ribs are located interior of the peripheral flange and the back rib, each pair of mounting ribs including aligned apertures for accepting a mounting pin therein, whereby a mounting bracket can be inserted into a space between the mounting ribs of each pair of mounting ribs and the mounting pin can be placed through the aligned apertures and the mounting bracket to connect the fifth wheel hitch to a tractor.

Abstract: The present apparatus and method relates to improvements in stiffening elements within a vehicle body structure at a sub-frame attachment point. In a first embodiment of the improved apparatus and method, a long mounting pin is used in combination with a generally planar shear bulkhead. The pin fits partially into a channel within the shear bulkhead. The pin is welded, near its bottom, to a sub-frame mounting bracket. The long mounting pin extends to the upper part of the vehicle frame and is also welded thereto. The shear bulkhead abuts a generally middle section of the mounting pin and two additional welds are placed securing the mounting pin to the shear bulkhead.

Abstract: In a self-traveling working machine such as a crane, a working attachment such as a boom is arranged to transversely extend below an operator's cabin in such a manner that part of the cabin overlaps the attachment, it being arranged that during crane operation, the cabin is moved widthwise outside the working machine to avoid interference with the boom.

Abstract: A frame structure for a vehicle body frame includes a first and second hollow member, wherein a plate thickness of the second hollow member is greater than the plate thickness of the first hollow member. A heavy body is supported on a side of the first hollow member.

Abstract: A movable subframe or slider box for tractor-trailers includes a pair of elongated, longitudinally-extending, spaced-apart, parallel main members, and a plurality of cross members which extend between and are attached to the main members to form a rigid slider box structure. The slider box includes a retractable pin mechanism for selectively positioning the slider box beneath the trailer. The slider box supports one or more axle/suspension systems which in turn support the vehicle wheels and tires. The slider box is free of hangers for pivotally mounting beams of the axle/suspension systems on the slider box. The beams instead are pivotally mounted directly on the main members. Each main member has an inverted generally U-shaped configuration which forms a channel, so that a bushing assembly end of each beam nests within the channel of its respective main member and is pivotally attached thereto.

Abstract: In a crawler frame in which legs in a center frame are formed from cast steel, a simple structure is achieved by reducing the number of components. To this end, the crawler frame, which has a center frame composed of a central frame section for supporting a swing bearing and legs located on the right and left sides of the central frame section; and track frames disposed on the sides of the distal ends of the legs, respectively, of the center frame, is designed such that each of the legs is bifurcated into front and rear leg sections and the front and rear leg sections are respectively formed from cast steel.

Abstract: A vehicle body and frame assembly includes a pair of longitudinally extending side rails having a plurality of transverse cross members extending therebetween. The cross member is a multiple piece structure, including a central portion having a pair of end portions secured thereto. The central portion of the cross member is preferably formed from a first metallic material, while the end portions are preferably both formed from a second metallic material. The end portions of the cross member are preferably formed from the same metallic material as the respective side rails to which they are secured. The end portions of the cross member can be secured to the ends of the central portion by any desired process, such as by magnetic pulse welding. Similarly, the cross member can be secured to the side rails by any desired process, such as by magnetic pulse welding or by conventional welding. The end portions of the cross member can extend either partially or completely through the respective side rails.

Abstract: A frame assembly for a motor vehicle comprises a forward module and a rearward module. The forward module comprises a pair of forward side rail portions, which are interconnected by a cross portion. The forward side rail portions are angularly disposed with respect to one another such that they have an increasing distance therebetween as they extend rearwardly. Rearward ends of the forward side rail portions are connected to associated forward ends of the rearward side rail portions. At least one of the forward and rearward side rail portions has a notch formed therein permitting an end portion thereof to be bent laterally to permit interface with the associated side rail portion connected thereto. The end portion is then bent back and is welded to the associated side rail portion connected thereto.

Abstract: A piping structure of a crawler driving hydraulic motor able to reduce a reduction in strength of a vehicle body frame and shorten the exposure length of a hydraulic piping in the exterior of the vehicle body frame, and reduce a damage opportunity due to an external obstacle, etc. Therefore, the hydraulic piping is connected from a hydraulic pump arranged within the vehicle body frame to left-hand and right-hand crawler driving hydraulic motors respectively attached to one-end sides of left-hand and right-hand crawler track frames arranged on left-hand and right-hand outsides of the vehicle body frame. The hydraulic piping extends through a frame rear wall constituting the vehicle body frame, and is taken out to the exterior of the vehicle body frame, and is connected to the left-hand and right-hand crawler driving hydraulic motors.

Abstract: A reinforced structural assembly is provided including a hollow structure having a cavity with a hole. A bag is inserted into the cavity using a tube. The bag has an end with an opening extending out of the cavity through the hole. A device injects a structural foam such as a two-part epoxy into the bag. The bag is closed and the end of the bag is inserted into the cavity. A cap is installed over the hole. The foam expands to fill the cavity but is contained within the bag thereby providing localized reinforcement in the desired area.

Abstract: A closed channel structural member, such as a side rail or a cross member, for use in such a vehicle body and frame assembly that includes an internal reinforcing structure to increase the strength and rigidity thereof. The side rail can be generally rectangular in cross sectional shape, including first and second side rail sections having generally C-shaped cross sectional shapes. The reinforcing structure can be generally hat-shaped or W-shaped in cross sectional shape, including a central reinforcing portion extending between a pair of base portions. The central reinforcing portion can either be laterally spaced apart from or directly abut a central web portion of one of the side rail sections. The base portions can be generally L-shaped in cross sectional shape, including legs that terminate adjacent to the ends of the other of the side rail sections to facilitate the assembly process. A pair of such reinforcing structures can be disposed within the side rail and abut one another in end-to-end fashion.

Abstract: There is provided a hook mounting structure that comprises a vehicle body structural member having a bottom part and two side parts that extend upward from both side edges of the bottom part to be joined to a lower surface of a floor; a tow hook mounted on a lower surface of the bottom part of the vehicle body structural member; and a reinforce having a bottom part joined to the bottom part of the vehicle body structural member and two side parts joined respectively to the two side parts of the vehicle body structural member, at least one of the side parts and the bottom part of the reinforce being connected to each other via a continuous part extending diagonally therebetween.

Abstract: The invention is directed to providing a frame structure of a crawler type construction machine vehicle facilitating a degree of freedom of reforming in accordance with a variation of vehicle kind. The frame structure is capable of setting a vehicle body gravitational center position to an optimum portion by use of an upper vehicle frame at an arbitrary position that is capable of strengthening total rigidity by an integrated structure. The frame structure has left and right track frames, and front and rear cross beams for coupling the left and right track frames in a shape of a lattice. A vehicle body frame is disposed between inner sides of the left and right track frames and coupled thereto in the shape of a lattice above the front and rear cross beams and the left and right track frames. The front and rear cross beams and the vehicle body frames are integrally constituted.