Abstract: A multi-channel seat mounting wire retention bracket for a vehicle subjectable to an external force event and including a body structure and a seat having a seat mounting wire includes a body structure attachment portion and a wire retention portion. The body structure attachment portion is attachable to the body structure. The wire retention portion is configured to form a wire installation channel and a wire catch channel. The wire installation channel is configured to receive and retain the seat mounting wire when the seat is installed in the vehicle and to allow removal of the seat mounting wire when the seat is removed from the vehicle. The wire catch channel is configured to receive and retain the seat mounting wire during the external force event.

Abstract: A tether hook bracket for a vehicle subjectable to an external force event, followed by a rebound event, and having a body structure and a child seat connectable to the body structure via a tether having a tether hook includes a body structure attachment portion, a tether hook connection portion, and a tether hook rebound blocker portion. The body structure attachment portion is configured to be attachable to the body structure. The tether hook connection portion is configured to receive the tether hook, such that the tether hook is connected to the tether hook bracket. The tether hook rebound blocker portion is disposed between the body structure attachment portion and the tether hook connection portion and is configured to maintain the connection of the tether hook to the tether hook bracket when the vehicle is subjected to the rebound event.

Abstract: A tether hook bracket for a vehicle subjectable to an external force event, followed by a rebound event, and having a body structure and a child seat connectable to the body structure via a tether having a tether hook includes a body structure attachment portion, a tether hook connection portion, and a tether hook rebound blocker portion. The body structure attachment portion is configured to be attachable to the body structure. The tether hook connection portion is configured to receive the tether hook, such that the tether hook is connected to the tether hook bracket. The tether hook rebound blocker portion is disposed between the body structure attachment portion and the tether hook connection portion and is configured to maintain the connection of the tether hook to the tether hook bracket when the vehicle is subjected to the rebound event.

Abstract: An energy management system for a vehicle includes a load-bearing component operatively positioned in a wheel cavity rearward of a tire and wheel assembly in the wheel cavity. The load-bearing component is configured to limit movement of the tire and wheel assembly in the wheel cavity under a load applied to the vehicle forward of the tire and wheel assembly and offset from a longitudinal centerline of the vehicle.

Abstract: An energy management system for a vehicle limits movement of a tire and wheel assembly in a wheel cavity. The vehicle has a wheel well structure that defines the wheel cavity. The energy management system includes a tether attached to the tire and wheel assembly. The tether is configured to limit movement of the tire and wheel assembly within the wheel cavity under a predetermined load that is applied to the vehicle forward of the tire and wheel assembly and offset from a longitudinal centerline of the vehicle.

Abstract: An energy management system for a vehicle limits movement of a tire and wheel assembly in a wheel cavity. The vehicle has a wheel well structure that defines the wheel cavity. The energy management system includes a tether attached to the tire and wheel assembly. The tether is configured to limit movement of the tire and wheel assembly within the wheel cavity under a predetermined load that is applied to the vehicle forward of the tire and wheel assembly and offset from a longitudinal centerline of the vehicle.

Abstract: An energy management system for a vehicle includes a load-bearing component operatively positioned in a wheel cavity rearward of a tire and wheel assembly in the wheel cavity. The load-bearing component is configured to limit movement of the tire and wheel assembly in the wheel cavity under a load applied to the vehicle forward of the tire and wheel assembly and offset from a longitudinal centerline of the vehicle.

Abstract: A sound-damped vehicle panel assembly, such as a dash panel, is attached to a structural member with one or more weld joints. The vehicle panel assembly may include a main panel member, a sound-damping patch, and a sound-damping adhesive layer arranged therebetween, where the patch covers at least a portion of an acoustically active region of the main panel member. The weld joints that attach the vehicle panel assembly to the structural member are preferably located at weld openings formed in the sound-damping patch and/or the sound-damping adhesive layer so that the weld joint can be formed without melting and vaporizing the adhesive during the welding operation, as such an operation would likely require additional ventilation equipment and could impact the quality of the weld joint.

Abstract: A sound-damped vehicle panel assembly, such as a dash panel, is attached to a structural member with one or more weld joints. The vehicle panel assembly may include a main panel member, a sound-damping patch, and a sound-damping adhesive layer arranged therebetween, where the patch covers at least a portion of an acoustically active region of the main panel member. The weld joints that attach the vehicle panel assembly to the structural member are preferably located at weld openings formed in the sound-damping patch and/or the sound-damping adhesive layer so that the weld joint can be formed without melting and vaporizing the adhesive during the welding operation, as such an operation would likely require additional ventilation equipment and could impact the quality of the weld joint.

Abstract: A reinforcement and method for reinforcing a hollow tubular structure includes a first sheet of flexible fiber material impregnated with resin. The first sheet is rolled into a tubular shape and a seam is provided between first and second lateral edges of the first sheet to form a tubular reinforcement. An inflatable bladder extends through the tubular reinforcement and is inflated to press the tubular reinforcement into contact with the inside wall of the tubular structure. Curing of the resin will bond the first sheet to the inside wall to reinforce the tubular structure. The first sheet can have a region of built-up thickness to provide additional reinforcement. The seam between the lateral edges of the first sheet can be a separable seam that separates when the bladder is inflated to allow the first sheet to contact with a region of the tubular structure that is of larger circumference than the circumference of the tubular reinforcement.

Abstract: An energy absorbing device includes a longitudinal extending tubular outer shell assembly tapered from a smaller end to a larger end so that upon the imposition of a longitudinal applied force on the ends thereof the tubular outer shell will collapse progressively from the smaller end toward the larger end. At least one reinforcing web is located within the tubular structure and is shorter in length than the tubular structure and has an end spaced from the one smaller end of the tubular structure that first collapses so that the web is subjected to progressive energy absorbing collapse only after the tubular outer shell assembly has begun to collapse. One or more such webs can be employed to sequentially and progressively collapse and deform to absorb the longitudinal applied force in a preferred manner.

Abstract: An energy absorbing device includes a longitudinal extending tubular outer shell assembly tapered from a smaller end to a larger end so that upon the imposition of a longitudinal applied force on the ends thereof the tubular outer shell will collapse progressively from the smaller end toward the larger end. At least one reinforcing web is located within the tubular structure and is shorter in length than the tubular structure and has an end spaced from the one smaller end of the tubular structure that first collapses so that the web is subjected to progressive energy absorbing collapse only after the tubular outer shell assembly has begun to collapse. One or more such webs can be employed to sequentially and progressively collapse and deform to absorb the longitudinal applied force in a preferred manner.

Abstract: An HVAC duct is mounted within a pillar providing a frame element of a framing structure defining a passenger compartment of a vehicle such as a van, an SUV or a station wagon. The HVAC duct is stabilized within the pillar by a layer of structural foam or other cellular structure which is adhered to the interior surface of a wall of the pillar, for example, by heat expanded epoxy adhesive. In a method of assembling the HVAC duct and pillar, the duct is mounted on an interior wall portion of the pillar prior to enclosing the duct in the pillar by welding an exterior wall portion of the pillar to the interior wall portion of the pillar. Upon heating the pillar to bake the frame assembly after painting the frame assembly, the heat expandable epoxy expands and adheres to interior surfaces of the pillar walls. The resulting structure reduces structural intrusion into the passenger compartment by the duct and pillar assemblage, while increasing the cross-sectional area of the pillar.