Patent classifications
B60R19/04
VEHICLE FRONT STRUCTURE
A vehicle front structure including a left and right pair of front side members, a bumper reinforcement and a power unit. The bumper reinforcement includes a first breakage initiation point at a position at one vehicle width direction side relative to a vehicle width direction center position of the vehicle, and a second breakage initiation point at a position at the other vehicle width direction side. The first breakage initiation point is a region at which bending yield strength is lower than other regions of the bumper reinforcement. The second breakage initiation point is a region with lower bending yield strength than the other regions but higher bending yield strength than the first breakage initiation point. The bumper reinforcement includes a bumper reinforcement main body with a chamber structure and a bracing member inside the bumper reinforcement main body at the vehicle width direction center position of the vehicle.
VEHICLE FRONT STRUCTURE
A vehicle front structure including a left and right pair of front side members, a bumper reinforcement and a power unit. The bumper reinforcement includes a first breakage initiation point at a position at one vehicle width direction side relative to a vehicle width direction center position of the vehicle, and a second breakage initiation point at a position at the other vehicle width direction side. The first breakage initiation point is a region at which bending yield strength is lower than other regions of the bumper reinforcement. The second breakage initiation point is a region with lower bending yield strength than the other regions but higher bending yield strength than the first breakage initiation point. The bumper reinforcement includes a bumper reinforcement main body with a chamber structure and a bracing member inside the bumper reinforcement main body at the vehicle width direction center position of the vehicle.
VEHICLE REAR BUMPER ASSEMBLY
A vehicle rear bumper assembly includes a vehicle body structure, an exhaust system and a rear bumper fascia. The exhaust system is attached to the vehicle body structure and has an exhaust pipe. The rear bumper fascia has a main body and a finisher extension. The main body is attached to the vehicle body structure and has a recessed area shaped and dimensioned to complement the shape of the exhaust pipe. The finisher extension extends away from the main body proximate the recessed area. The main body and the finisher extension are formed with a living hinge therebetween such that the finisher extension is pivotable about the living hinge from an extending orientation to a finishing orientation. In the extending orientation, the finisher extension is spaced apart from the recessed area. In the finishing orientation, the finisher extension is located within the recessed area adjacent to the exhaust pipe.
VEHICLE REAR BUMPER ASSEMBLY
A vehicle rear bumper assembly includes a vehicle body structure, an exhaust system and a rear bumper fascia. The exhaust system is attached to the vehicle body structure and has an exhaust pipe. The rear bumper fascia has a main body and a finisher extension. The main body is attached to the vehicle body structure and has a recessed area shaped and dimensioned to complement the shape of the exhaust pipe. The finisher extension extends away from the main body proximate the recessed area. The main body and the finisher extension are formed with a living hinge therebetween such that the finisher extension is pivotable about the living hinge from an extending orientation to a finishing orientation. In the extending orientation, the finisher extension is spaced apart from the recessed area. In the finishing orientation, the finisher extension is located within the recessed area adjacent to the exhaust pipe.
Vehicle front structure for improved compatibility during a frontal crash
The present disclosure relates to a Vehicle front structure as defined above is provided, in which the front structure comprises: a side member for supporting a vehicle bumper beam, the side member extending along a longitudinal axis between a first end for connecting to the vehicle bumper beam and a second end for connecting to a bulkhead, and a lateral extension member extending substantially perpendicular with respect to the longitudinal axis of the side member and outward with respect to the vehicle front structure, the lateral extension member is connected to the side member such that the lateral extension member can exert a bending moment to the side member, and a bending strength of the lateral extension member in backward direction towards the side member is higher compared to a bending strength in the forward direction away from the side member.
Techniques for handling network traffic
To handle network traffic, a Deep Packet Inspection (DPI) node receives, from a Policy and Charging Rules Function (PCRF) network node, packet inspection control data that maps a specific service to an identifier. The DPI node identifies that a data packet pertains to the specific service. The identifying comprises performing DPI on at least a data section of the data packet. The DPI node notifies the PCRF network node that the DPI node received the data packet and that the data packet pertains to the specific service. The DPI node marks the data packet with the identifier in accordance with the packet inspection control data received from the PCRF network node.
Bumper crossmember, and vehicle rear arrangement with bumper crossmember
A bumper crossmember for a vehicle, with a hollow profile body which has a vehicle frame-side proximal vertical wall and a distal vertical wall which are connected to one another by way of transverse walls and extend along a vertical direction. The transverse walls laterally delimit hollow chambers which are arranged in the hollow profile body. The center longitudinal direction of the hollow chambers are oriented in each case along the vertical direction, and the hollow chambers are open on the end side.
Bumper crossmember, and vehicle rear arrangement with bumper crossmember
A bumper crossmember for a vehicle, with a hollow profile body which has a vehicle frame-side proximal vertical wall and a distal vertical wall which are connected to one another by way of transverse walls and extend along a vertical direction. The transverse walls laterally delimit hollow chambers which are arranged in the hollow profile body. The center longitudinal direction of the hollow chambers are oriented in each case along the vertical direction, and the hollow chambers are open on the end side.
TAILORED BLANK, TAILORED BLANK MANUFACTURING METHOD, PRESSED ARTICLE, AND PRESSED ARTICLE MANUFACTURING METHOD
A tailored blank including a first steel sheet having a carbon content of 0.27 mass % or more, and a second steel sheet that is butt welded to the first steel sheet and that has a carbon content of 0.20 mass % or less, wherein the tailored blank includes an elongated future top plate portion, a future sidewall portion, and a future flange portion, a first steel sheet region that is configured by the first steel sheet is formed spanning part or all of a length direction of the future top plate portion, and a second steel sheet region that is configured by the second steel sheet is formed at the future flange portion to be joined by welding to another member, and wherein part or all of a length direction of the first steel sheet region is positioned within a length direction range of the second steel sheet region.
Impact attenuation structure
An impact structure for attenuating longitudinally-directed vehicle impacts, comprising first and second attenuation plates, where the plates are spaced apart from each other at a mounting region of the impact structure and fixed to each other at an impact region of the impact structure, and the impact region is longitudinally distal from the mounting region. There is an aperture pattern on each attenuation plate, wherein each aperture of the aperture pattern on each attenuation plate has an aspect ratio defined by the maximum size of the aperture in the longitudinal direction divided by the maximum size of the aperture in the direction perpendicular to the longitudinal direction; and the aspect ratio of the apertures of the aperture pattern on each attenuation plate generally increases or decreases in the longitudinal direction between the mounting region and the impact region.