Abstract: An assembly for a vehicle to provide load distribution between the body of the vehicle and a battery contained in the vehicle includes a pair of body rockers, the body rockers being spaced apart and being substantially parallel to each other, a plurality of body cross bars that extend between the pair of body rockers, the plurality of body cross bars being spaced apart, substantially parallel to each other, and substantially perpendicular to the body rockers, and a plurality of battery cross bars that extend between the pair of body rockers, the plurality of battery cross bars being spaced apart, substantially parallel to each other, and substantially perpendicular to the body rockers, portions of the battery being located between adjacent battery cross bars. The plurality of battery cross bars, the plurality of body cross bars and the body rockers are configured to delay initiation of rocker plastic deformation.

Abstract: An assembly for a vehicle to provide load distribution between the body of the vehicle and a battery contained in the vehicle includes a pair of body rockers, the body rockers being spaced apart and being substantially parallel to each other, a plurality of body cross bars that extend between the pair of body rockers, the plurality of body cross bars being spaced apart, substantially parallel to each other, and substantially perpendicular to the body rockers, and a plurality of battery cross bars that extend between the pair of body rockers, the plurality of battery cross bars being spaced apart, substantially parallel to each other, and substantially perpendicular to the body rockers, portions of the battery being located between adjacent battery cross bars. The plurality of battery cross bars, the plurality of body cross bars and the body rockers are configured to delay initiation of rocker plastic deformation.

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 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 rail assembly configured to limit a lateral deformation of an intermediate portion of the rail assembly to a predetermined lateral deformation when the rail assembly is subjected to an external force includes an inner portion, an outer portion, and a web portion. The inner portion has an inner wall. The outer portion has an outer wall and is attached to the inner portion. The inner portion and the outer portion together form a hollow rail. The web portion is configured with a deformation initiator, disposed inside of the hollow rail, and attached to the inner wall of the inner portion and the outer wall of the outer portion. The web portion is configured to limit the lateral deformation of the intermediate portion of the rail assembly to the predetermined lateral deformation when the rail assembly is subjected to the external force.

Abstract: A rail assembly configured to limit a lateral deformation of an intermediate portion of the rail assembly to a predetermined lateral deformation when the rail assembly is subjected to an external force includes an inner portion, an outer portion, and a web portion. The inner portion has an inner wall. The outer portion has an outer wall and is attached to the inner portion. The inner portion and the outer portion together form a hollow rail. The web portion is configured with a deformation initiator, disposed inside of the hollow rail, and attached to the inner wall of the inner portion and the outer wall of the outer portion. The web portion is configured to limit the lateral deformation of the intermediate portion of the rail assembly to the predetermined lateral deformation when the rail assembly is subjected to the external force.

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: An impact receiving structure in a motor vehicle includes a vehicle frame having left and right frame rails extending longitudinally and cross frame rails extending transversely between the left and right frame rails. A vehicle body is mounted on the vehicle frame and has a transverse bulkhead and left and right A-pillars connected to the bulkhead. Left and right upper rails extend longitudinally above the front wheels and outboard of the left and right frame rails and are connected respectively to the left and right frame rails by left and right braces. Left and right deflector devices are mounted on the left and right frame rails forwardly of the front wheels and extend outwardly from the left and right frame rails to receive an impact force and transmit the impact force into the frame that would otherwise transmit through the left and right upper rail structures.

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: Data communication apparatus comprises a master unit (2) and at least one physically separate, passive slave unit (4). The master unit (2) has a first part (29) of an inductive communication system, and a processor (20) connected to the first part of the inductive communication system. The slave unit has a second part (40) of the inductive communication system, a data store (48), and a modulator (44,49) responsive to data from the data store and connected to the second part (40) of the inductive communication system. The first and second parts of the inductive communication system (29,40) are constructed so that when the slave unit (4) is brought into proximity with the master unit (2), power is inductively coupled from the master unit to the slave unit via the inductive communication system. The modulator (44,49) in the slave unit (4) is thereby activated to cause data from the store (48) to be inductively communicated from the slave unit (4) to the master unit (2) via the inductive communication system.