Abstract: Collision control system (40) for controlling deflection of an instrument cluster (30) in a vehicle during collision. Said collision control system (40) comprises a steering assembly (10) including a steering wheel (12) and a steering column (11), a cross car beam (20) comprising a first sliding surface (22), and an instrument panel assembly (35) including an instrument cluster (30) and a second sliding surface (32), which is arranged to abut and slide along said first sliding surface (22) during said collision. During collision said steering column (11) is configured to move forward in a controlled manner and said steering column assembly (10) is arranged to push said instrument cluster (30), such that said second sliding surface (32) of said instrument panel assembly (35) slides along the first surface (22) for controlled deflection of the instrument cluster (30).

Abstract: A vehicle structure comprising a body including a wheel house, a fender and an energy absorption member. The fender has an exposed A-side surface and an opposed B-side surface, with the fender including a laterally inner edge extending fore-and-aft that defines a portion of a hood opening, and the B-side surface adjacent to the laterally inner edge spaced from the wheel house in a vertical direction to define a crush gap. The energy absorption member is located in the crush gap between the wheel house and the fender, with the energy absorption member having a fender attachment flange secured to the B-side surface of the fender adjacent to the laterally inner edge, a body attachment flange secured to the wheel house, and an energy absorbing portion extending between the fender attachment flange and the body attachment flange, with the energy absorbing portion being curved in the vertical direction.

Abstract: The invention concerns an elongated protective corner for the transport and/or packaging of products. The corner has at least two non-corrugated paperboard plies combined together to create two perpendicular wings and an apex. The plies form multiple ply sections, and at least one of the ply sections of a given ply overlaps another ply section of the same ply. This overlapping arrangement gives the apex a resistance force of about 100 to about 500 lbs. The thickness of the corner can vary, with each wing being in the range of about 100 to about 250 points, and each ply is made from paperboard having a grammage of about 120 to about 380 g/m2. The resistance force can be determined by mounting the corner upon two blocks, and applying a force to the apex at a middle of the corner until a fracture is detected.

Abstract: A vehicle body assembly including a frame with an outrigger secured to the frame below a passenger compartment. The passenger compartment includes a plurality of pillars supporting a roof, a first rocker assembly and a second rocker assembly disposed on opposite sides of the passenger compartment. The outrigger is secured to the frame below the passenger compartment, inboard of the rocker assembly and outboard of the roof to protect the roof in side impact collisions. The outriggers transfer the side impact loads to the frame rails that are disposed inboard of the roof rails.

Abstract: A bumper apparatus for a vehicle may include an airbag module and a rotary member. The airbag module has an airbag cushion to be deployed through a bumper. The rotary member rotatably is provided on a vehicle body, and coupled at an end to a bumper portion that is removable by a force generated when the airbag cushion is deployed. The rotary member is rotatable about the vehicle body along with the bumper portion when the airbag cushion is deployed.

Abstract: A fiber-reinforced vehicle body structure includes a first frame made of fiber-reinforced plastic or carbon fiber-reinforced plastic and having multiple sections, and a second frame that continuously extends from any one of the multiple sections of the first frame.

Abstract: A vehicle includes a fender panel support assembly including a hood that at least partially covers an engine compartment. A front fender structure includes a connecting wall portion located at least partially below the hood in a vehicle vertical direction. A side structural member extends in a vehicle longitudinal direction. A deforming fender attachment bracket mounts the front fender structure to the side structural member. The deforming fender attachment bracket includes a fender attachment portion connected to the connecting wall portion of the front fender structure at a connecting location. A support leg is connected to the side structural member. The support leg extends toward the side structural member from a lateral edge of the fender attachment portion. The support leg has a width in a vehicle lateral direction that is defined by flexure and shear formulas in response to a target vehicle lateral force applied to the fender attachment portion.

Abstract: A ratcheting tie down apparatus and system. Embodiments include a ratchet assembly affixed to a tie down shaft having a longitudinal axis, the ratchet assembly including a ratchet gear, a ratchet head, a ring pawl between the ratchet gear and the ratchet head, and a compression spring between the ring pawl and the ratchet head. A plurality of ramped protrusions of the ring pawl engage a plurality of ramped indentations in a back surface of the ratchet gear, such that when the ratchet head is rotated in a first direction, the ring pawl engages the ratchet gear so that the ratchet head and ratchet gear rotate as a single unit, and when the ratchet head is rotated in a second direction the ring pawl disengages from the ratchet gear such that the ratchet head and ratchet gear rotate independently.

Abstract: A motor vehicle body structure is provided. The motor vehicle body structure includes an outer side wall, a lateral floor reinforcement for absorbing forces in the event of an impact event, an inner side wall with a lateral sill region and a wheel housing region, which at least partially forms a wheel housing of the vehicle. A body reinforcement element is connected to the wheel housing region of the inner side wall and to the lateral floor reinforcement in a positively joined, non-positively joined and/or materially joined manner.

Abstract: A device for securing a mobility device in a mobility vehicle or on a lifting device that is installed in or on a mobility vehicle or trailer. The securing device comprises a docking assembly, a locking assembly and a guide assembly. The locking assembly includes a receiving member having an interior passageway and a locking pin. The guide assembly includes a support plate attachable to the mobility device and an alignment rod whereby the alignment rod extends out from one side of the mobility device and engages the receiving member. The alignment rod is sized and configured to extend into the interior passageway thereby allowing the locking pin to extend into the interior passageway to secure the alignment rod.

Abstract: A pallet adapter kit for aircraft cargo pallets, with a plurality of beams each with a top side and an underside, wherein the beams comprise at least one peg beam which on the underside comprises a first peg receiver and a second peg receiver each for receiving a peg, and on the top side a first beam peg and a second beam peg for engagement in container corners, in particular corners of ISO containers, wherein the first beam peg is arranged offset in relation to the first peg receiver and/or the second beam peg is arranged offset in relation to the second peg receiver in the longitudinal direction of the peg beam.

Abstract: An aerodynamic structure attached to the sides and top of a truck cargo body (either a stand-alone trailer or a “straight truck” with the cab and cargo area as a fixed vehicle) at the aftmost region, which rear typically contains a rolling door assembly, which rolls upwardly. An aerodynamic structure is permanently attached to the sides and top of the trailer in a manner that extend past the aftmost plane of the truck cargo body and retract to the aftmost plane of the truck cargo body when subjected to a force, allowing this device to be backed into structures. The retracted orientation allows for the rear of the trailer to be fully accessible for loading and unloading, and does not reduce the size of the opening of the trailer. The various embodiments of the invention allow for automated deployment once the force used to compress the structure is removed.

Abstract: A cargo rack for transferring loads between a marine vessel and an offshore marine platform (for example, oil and gas well drilling or production platform) provides a frame having a front, a rear, and upper and lower end portions. The lower end of the frame has a perimeter beam base, a raised floor and a pair of open-ended parallel fork tine tubes or sockets that communicate with the perimeter beam at the front and rear of the frame, preferably being structurally connected (e.g., welded) thereto. Openings in the perimeter beam base align with the forklift tine tubes or sockets. The frame includes a plurality of fixed side walls extending upwardly from the perimeter beam that include at least left and right side walls.

Abstract: A vehicle includes a body that extends along a longitudinal axis, between a forward end and a rearward end. A front bumper assembly is disposed at the forward end of the body. The front bumper assembly includes a B-shaped structure that defines a channel that extends transversely across the body, relative to the longitudinal axis. A heat exchanger is disposed within the channel of the bumper structure. The heat exchanger is operable to transfer heat from a fluid circulating through the heat exchanger to a flow of air passing across the heat exchanger. The fluid may include, but is not limited to, engine oil, transmission fluid, power steering fluid, or an engine coolant from a low temperature coolant loop.

Abstract: A vehicle lower structure includes: a passenger compartment front wall lower portion separating a vehicle-body front portion and a passenger compartment; and a tunnel portion extending toward a vehicle rear side from a central part of the passenger compartment front wall lower portion in a vehicle width direction and projecting toward a vehicle upper side relative to a vehicle body floor. The tunnel portion includes: a rear tunnel constituent portion, a sectional shape thereof perpendicular to an extending direction of the tunnel portion being a semipolygonal shape; and a front tunnel constituent portion, the front tunnel constituent portion being adjacent to a vehicle front side of the rear tunnel constituent portion, a sectional shape thereof perpendicular to the extending direction of the tunnel portion being a semipolygonal section and the number of corners thereof being larger than the number of corners of the rear tunnel constituent portion.

Abstract: A system for mounting a windshield to a small vehicle such as an all-terrain vehicle (“ATV”), a utility-terrain vehicle (“UTV”), or a snowmobile comprising a pair of receiving members configured to be mounted to, or integrated with, the vehicle and a corresponding pair of mounting members mounted to, or integrated with, the windshield panel or panel assembly. The receiving member may be integrated to the lighting pod of the vehicle. The mounting members of the system are configured to be respectively releasably received into the receiving members. Each receiving member comprises a receiving cavity and at least one locking opening, and each mounting member comprises at least one resilient locking arm configured to releasably engage the at least one locking opening such that the mounting members can respectively engage the receiving members in a releasable locking engagement.

Abstract: A coupling assembly includes a hook, a base defining a base cavity, a link interconnecting the hook and the base, and a fastener movably coupled to the base. The fastener is movable relative to the base along an axis between a locked position and an unlocked position. In the locked position, the fastener extends through the base cavity. In the unlocked position, the fastener is outside the base cavity. The coupling assembly further includes a casing fixed to the base such that the base remains stationary relative to the casing. The fastener is partially disposed within the casing. The coupling assembly also includes a biasing member operatively coupled between the casing and the fastener such that the biasing member biases the fastener toward the locked position.

Abstract: Low drag low noise devices are described herein that use passive jet flow control to reduce the drag and noise created by devices (e.g., motor vehicle side view mirrors) while the devices travel through fluid. The low drag low noise devices described herein comprise a lengthwise axis, an outer body, and an inner body. The outer body and the inner body cooperatively define a channel through which fluid can pass during use.

Abstract: A pet fence includes a first part having multiple first bars, and two second parts each having multiple second bars are slidably connected to the first part. Two positioning tubes are connected to the first part and each have first holes and second holes. Multiple adjustment units connect the first part to the second parts, and each adjustment unit is cooperated with a locking unit which extends through one of the first holes the positioning tubes. When the locking unit is loosened, the two second parts are movable relative to the first part to adjust the width of the pet fence. At least one clamp unit is connected to one of the second holes of the positioning tube to secure the at least one clamp unit to the headrest rod the seat of a vehicle.

Abstract: A hail cover for a vehicle is provided having a deformable, inflatable body member with attachment straps and an inflation tube extending therefrom. The body member has a plurality of apertures disposed therethrough. The body member is placed over top portions of a vehicle and secured thereto with the attachment straps. Once secured a user can enter their vehicle and inflate the cover to create a protective layer for the vehicle while safely inside of the vehicle. The plurality of apertures provide for a fluid-dynamic structure to the cover to assist with stabilizing the position of the cover during turbulent winds.