Abstract: A body structure defines a passenger cabin. An interior portion is located in the passenger cabin, and a support portion that includes a surface and an adjustable support assembly is located in the passenger cabin. The surface is located adjacent to the interior portion, the adjustable support assembly includes actuators, and the adjustable support assembly is configured to move the surface with respect to the interior portion. Sensors are configured to generate sensor outputs, and a controller detects an event based on the sensor outputs. In response to the detection of the event, the controller outputs a control signal that controls the adjustable support assembly so that the adjustable support assembly moves at least part of the surface away from the interior portion.

Abstract: A support assembly includes a bracket coupled to a structural portion. The bracket is configured to prevent relative motion between the end portion and the bracket when a first load is applied in a first direction, and the bracket is configured to allow relative motion between the end portion and the bracket when a second load is applied in a second direction that is different than the first direction. In some implementations, relative motion may be allowed when the second load exceeds a threshold value.

Abstract: A first object includes an internal support and an exterior portion coupled to the internal support. A prediction may be made that contact between the exterior portion and a second object will occur. A sensor is configured to output a force signal that indicates the contact between the exterior portion and the second object has occurred, and the controller is configured to take an action based on the prediction and the force signal.

Abstract: An object includes an internal support and an exterior portion coupled to the internal support. A deformation portion includes a top portion and a bottom portion, and a force imparted to a first location of the exterior portion causes the bottom portion of the deformation portion to contact the exterior portion. The contact causes a deformation of the exterior portion that moves a second location of the exterior portion downward relative to the first location.

Abstract: An apparatus for resisting entry of objects through a panel. The apparatus includes a weakened portion that extends laterally across a width dimension of the panel. The apparatus includes a stop structure spaced from the weakened portion that extends laterally across the width dimension of the panel to limit deformation. A bottom edge of the panel is configured to rotate about an axis extending along the weakened portion to abut the stop structure.

Abstract: A system includes a body structure that defines a cabin, a seat assembly that is located in the cabin, and a support structure that includes a top portion and an adjustable support assembly. The support structure is located adjacent to the seat assembly, the adjustable support assembly includes actuators, and the adjustable support assembly is configured to move the top portion with respect to the seat assembly. The system also includes sensors that are configured to generate sensor outputs regarding an environment outside of the system, and a controller that detects an event based on the sensor outputs. In response to the detection of the event, the controller outputs a control signal that controls the adjustable support assembly so that the adjustable support assembly moves at least part of the top portion away from the seat assembly.

Abstract: A system may have structure. The structures may include laminated structures formed by attaching inner and outer layers together with a layer of adhesive. The inner and outer layers in a structure may be formed from polymer such as polycarbonate. Forming the structure layers from polymer may allow the structure to have desired curvature. To improve safety and/or acoustic performance of the structure, the inner and outer structure layers may be formed from different materials. The outer polymer layer may be formed from polycarbonate and the inner polymer layer may be formed from a more brittle polymer such as polymethyl methacrylate (PMMA).

Abstract: A system includes a body structure, an assembly that is connected to the body structure, an airbag assembly that includes a housing that is located behind a first portion of the body structure and a deployable structure. The deployable structure is located in the housing in a stowed position and extends outward relative to the housing in an inflated position. The deployable structure includes a main chamber that is located adjacent to the seat assembly in the inflated position, and a reaction chamber that is spaced from the seat assembly by the main chamber in the inflated position. The deployable structure is configured so that forces that are applied to the main chamber of the deployable structure in a longitudinal direction of the vehicle cause the reaction chamber to move in a lateral direction so that the reaction chamber engages the body structure.

Abstract: A restraint system includes a restraint configured to deploy from an interior surface and restrain motion of an occupant and a support including a door coupled to an upper portion of the restraint. The door is configured to rotate about a pivot. The door includes a telescoping panel configured to telescopically extend from a stowed position behind the interior surface to a deployed position spaced apart from the interior surface in unison with deployment of the restraint so that the anchor reaches the deployed position after the door rotates about the pivot. The support is configured to orient the upper portion of the restraint in respect to motion of the occupant.

Abstract: A safety system for a vehicle includes a work table, an airbag, and a controller that includes a processor. The work table is disposed in an extended position and is movable to a reaction position and a stowed position. The processor is configured to receive information indicative of a vehicle event. The processor is further configured to send a command to deploy the airbag based on the information indicative of the vehicle event. When deployed, the airbag expands to abut a bottom surface of the work table and move the work table from the extended position to the reaction position such that the bottom surface of the work table in the reaction position serves as a reaction surface for the airbag.

Abstract: A vehicle includes a body structure that defines a passenger cabin, a seat assembly that is located in the passenger cabin, and a table that includes a table top and an adjustable support assembly. The table top is located adjacent to the seat assembly, the adjustable support assembly includes actuators, and the adjustable support assembly is configured to move the table top with respect to the seat assembly. The vehicle also includes sensors that are configured to generate sensor outputs regarding an environment outside of the vehicle, and a controller that detects a vehicle event based on the sensor outputs. In response to the detection of the vehicle event, the controller outputs a control signal that controls the adjustable support assembly so that the adjustable support assembly moves at least part of the table top away from the seat assembly.

Abstract: A safety system includes a restraint configured to secure an occupant to a seat, an anchor coupled to the restraint and movable along an anchor guide, an anchor energy-absorbing (EA) device configured to control movement of the anchor along the anchor guide, and a controller that includes a processor configured to receive information indicative of an imminent vehicle event, receive information indicative of a recline angle of the seat being above a recline threshold, and send a command to enable the anchor to move along the anchor guide under control of the anchor EA device based on the information indicative of the imminent vehicle event and the recline angle being above the recline threshold.

Abstract: Occupant safety systems suitable for use in both traditional and opposed seating systems include various combinations of passive safety components: sensors that provides an output signal indicative of an imminent collision, seats selectively moveable relative to seat support structures in response to the output signal, inflatable restraints deployable from lap portions of a tensioned restraint based on the output signal, airbags deployable from a roof of a vehicle based on the output signal, cabin dividers deployable from a side of a cabin of the vehicle or the roof of the vehicle based on the output signal, and curtain airbags deployable between an occupant and the side of the cabin of the vehicle based on the output signal.

Abstract: An apparatus for resisting entry of objects through a windshield of a vehicle that has a passenger cabin. The apparatus includes an instrument panel that is located between the windshield and the passenger cabin, and an airbag that is deployable into an area above the instrument panel to resist entry of objects into the passenger cabin.

Abstract: Occupant safety systems suitable for use in both traditional and opposed seating systems include various combinations of passive safety components: sensors that provides an output signal indicative of an imminent collision, seats selectively moveable relative to seat support structures in response to the output signal, inflatable restraints deployable from lap portions of a tensioned restraint based on the output signal, airbags deployable from a roof of a vehicle based on the output signal, cabin dividers deployable from a side of a cabin of the vehicle or the roof of the vehicle based on the output signal, and curtain airbags deployable between an occupant and the side of the cabin of the vehicle based on the output signal.

Abstract: A vehicle includes a vehicle body having an outer surface, and a sensor that is arranged to observe an environment. The sensor is located within the vehicle body. The vehicle also includes a movement mechanism for moving the sensor from an outward position to an inward position relative to the vehicle body. The movement mechanism moves the sensor from the outward position to the inward position in response to a signal. In an alternative implementation, the sensor is disposed in a sensor module, and the sensor module is able to move relative to the vehicle body from an outboard position to an inboard position in response to application of an external force to the sensor module.