Abstract:
A vehicle includes a body having a first outer periphery in a first plane parallel to a surface on which the vehicle moves in a horizontal direction; a bumper assembly having a second outer periphery in a second plane parallel to the first plane and including portions that extend beyond the first outer periphery; one or more flexible couplings coupling the bumper assembly to the body and allowing for horizontal planar deflection of the bumper assembly relative to the body when the bumper assembly impacts an obstacle; one or more sensors mounted to detect planar deflection of the bumper assembly and being configured to generate signals indicating the bumper assembly has deflected at least a threshold amount; and a drive system configured to propel the vehicle and, in response to the signals indicating the bumper assembly has deflected at least a threshold amount, cause the vehicle to stop moving.
Abstract:
A bracket adapted to attach a running board to a rocker of a vehicle includes a body having a plurality of running board deflection-inducing portions. The body may include a torsional buckling-inducing portion comprising a rocker mounting portion defining an included angle to a vehicle y-axis and to a vehicle x-axis when mounted to the rocker. The body may further include a rotational moment-inducing portion comprising a stepped segment interposed between the rocker mounting portion and a running board-carrying portion. The rotational moment-inducing portion may further include a rocker mounting tab disposed adjacent to the stepped segment and a flange disposed at an interface of the stepped segment and the running board-carrying portion.
Abstract:
A door blocker for a vehicle includes a rotation platform positioned between first and second lateral drive members. The rotation platform is operably coupled to the first and second lateral drive members. An actuator has a first end operably coupled to the rotation platform. A reaction block has a slot that receives a second end of the actuator. The door blocker may be transformable to a power running board.
Abstract:
An impact absorbing system includes a first rocker panel and a second rocker panel spaced from the first rocker panel, a housing including a bottom extending between the first and second rocker panels and a side extending from the bottom, and an energy absorber that is deformable relative to the side and defines a repeating pattern of cells. The energy absorber is bonded to the side between the side and the first rocker panel and each cell has a central axis transverse to the side.
Abstract:
A rescue system includes an inflatable rescue cushion at the bottom of an automobile, which includes air cushion storage chambers in front, back, left, and right of the bottom of the automobile. A gas generator is correspondingly arranged in the air cushion storage chamber in each position, for inflating and opening air cushions in the corresponding air cushion storage chambers to form a front, back, left and right air cushion. The system also includes an electronic early warning and central processing collaboration part, which includes an external water level sensor, central collaborative processing unit, first grade early warning signal light, and a switch. The external water level sensor is connected to the central collaborative processing unit, which is connected to the warning signal light, the gas generator, and the automobile computer board. The switch is positioned in the automobile and is connected to the gas generators.
Abstract:
Disclosed is a vehicle side wing anti-collision system, including a telescopic assembly fixed on a vehicle frame; and a collision panel located in a groove of a vehicle side body and provided correspondingly to the telescopic assembly. The groove is provided with a connection hole and the telescopic assembly is extended out of the connection hole towards two sides in a transverse direction of the vehicle to drive the collision panel to extend out of the groove till protruding from the vehicle side body when the collision panel is subjected to a collision. Through the telescopic assembly and the collision panel, protection layers are formed on two sides of the vehicle, and thus the anti-collision ability of the vehicle side wing is enhanced.
Abstract:
The present disclosure is directed to a pedestrian protection system that includes a first sensor that generates a first signal indicating a hazard condition in front of a vehicle. The pedestrian protection system may also include an external airbag system that deploys an external airbag outside of the vehicle. In operation, a processor receives the first signal from the first sensor, processes the first signal to detect the hazard condition, and activates the external airbag system in response to the detected hazard condition to protect at least one of a pedestrian and the vehicle.
Abstract:
A cushioning assembly includes a vehicle that has at least two doors. A first shield apparatus and a second shield apparatus are each coupled to the vehicle. The first shield apparatus and the second shield apparatus are positionable to cover the doors. The first shield apparatus and the second shield apparatus shield the doors from impact damage. A pump is coupled to the vehicle. The pump is in fluid communication with the first shield apparatus and the second shield apparatus. The pump selectively inflates and deflates the first shield apparatus and the second shield apparatus. A control is provided for selectively actuating and de-actuating the pump.
Abstract:
The inventive device disclosed in the present application is a set of shock-absorbent panels that attach to the doors of a vehicle. The system is designed so each of the panels may be easily hooked onto the car doors and locked in place when the doors are closed, protecting the vehicle from collisions and objects which may inadvertently bump the doors, causing unsightly dents and scratches.
Abstract:
A supplemental impact protection system for an automotive vehicle includes an external energy management structure having a first position for normal vehicle operation and a second position for deployment during an impact event. A mounting system allows selective positioning of the energy management structure in either the first or second position, as determined by a controller which assesses an impact potential of the vehicle and operates the mounting system to move the energy management structure to the second, or deployed, position in the event that the assessed impact potential satisfies a predetermined threshold.