Abstract: A structural load path assembly includes an upper rail configured to be coupled to a suspension system, a lower rail spaced apart from the upper rail along a vertical direction, a first outer bracket interconnecting the upper rail and the lower rail, a second outer bracket interconnecting the upper rail and the lower rail, a first inner bracket interconnecting the upper rail and the lower rail, wherein the first inner bracket is spaced apart from the first outer bracket along a horizontal direction, and the horizontal direction is perpendicular to the vertical direction, a second inner bracket interconnecting the upper rail and the lower, and a box section sized to receive a shock absorber.

Abstract: A partition separates a cabin space from a bed space on a vehicle having a first side body and a second side body. The partition includes a forward-opening receptacle fixable to the first side body and to the second side body to span between the first side body and the second side body and includes a rear panel. The partition includes a modular assembly securable as a unit to a forward side of the receptacle. The modular assembly includes a front panel and a window glass configured to be translatably supported by the modular assembly between the front panel and the rear panel.

Abstract: A structural load path assembly includes an upper rail configured to be coupled to a suspension system, a lower rail spaced apart from the upper rail along a vertical direction, a first outer bracket interconnecting the upper rail and the lower rail, a second outer bracket interconnecting the upper rail and the lower rail, a first inner bracket interconnecting the upper rail and the lower rail, wherein the first inner bracket is spaced apart from the first outer bracket along a horizontal direction, and the horizontal direction is perpendicular to the vertical direction, a second inner bracket interconnecting the upper rail and the lower, and a box section sized to receive a shock absorber.

Abstract: A body structure for an automotive vehicle includes an enclosure for a power source, an upper shear structure assembly and a lower shear structure assembly. The enclosure includes a front cross-member, a rear cross-member, a left rocker and a right rocker. The upper and lower shear structure assemblies are disposed across the top and bottom of the enclosure, respectively, and are fastened to respective top and bottom surfaces of the cross-members and rockers. The upper and lower shear structure assemblies may include respective front and rear generally trapezoidal sections configured for attachment to respective front and rear box structures. Each of the shear structure assemblies is effective to dissipate in-plane a portion of an external load imposed upon the enclosure.

Abstract: A structural arrangement for a vehicle includes a body structure defining a longitudinal vehicle body axis and a lateral vehicle axis orthogonal to the longitudinal vehicle body axis. The body structure includes a lattice shear structure having a first structural member extending laterally from one side to an opposite side of the vehicle and a second structural member parallel to and longitudinally spaced apart from the first structural member, an upper shear panel extending longitudinally and laterally across the vehicle and joined to the lattice shear structure, and a seat attachment structure having a first end and a second end opposite the second end. The seat attachment structure is oriented longitudinally and is joined to both of the first and second structural members.

Abstract: A barrier assembly for an energy storage system includes a panel and an energy storage pack. The panel includes an outer surface and an inner surface opposing the outer surface. The energy storage pack is spaced from the panel relative to the inner surface of the panel. The barrier assembly further includes an intermediate structure disposed between the inner surface of the panel and the energy storage pack. The intermediate structure is configured to absorb energy when a load is applied to the outer surface of the panel and configured to redistribute the load along a plurality of load paths through the intermediate structure as the load is applied to the panel. A vehicle includes the barrier assembly discussed above. The vehicle includes a support structure and the barrier assembly is coupled to the support structure. The inner surface of the panel faces toward the support structure.

Abstract: A body structure for an automotive vehicle includes an enclosure for a power source, an upper shear structure assembly and a lower shear structure assembly. The enclosure includes a front cross-member, a rear cross-member, a left rocker and a right rocker. The upper and lower shear structure assemblies are disposed across the top and bottom of the enclosure, respectively, and are fastened to respective top and bottom surfaces of the cross-members and rockers. The upper and lower shear structure assemblies may include respective front and rear generally trapezoidal sections configured for attachment to respective front and rear box structures. Each of the shear structure assemblies is effective to dissipate in-plane a portion of an external load imposed upon the enclosure.

Abstract: A partition separates a cabin space from a bed space on a vehicle having a first side body and a second side body. The partition includes a forward-opening receptacle fixable to the first side body and to the second side body to span between the first side body and the second side body and includes a rear panel. The partition includes a modular assembly securable as a unit to a forward side of the receptacle. The modular assembly includes a front panel and a window glass configured to be translatably supported by the modular assembly between the front panel and the rear panel.

Abstract: A barrier assembly for an energy storage system includes a panel and an energy storage pack. The panel includes an outer surface and an inner surface opposing the outer surface. The energy storage pack is spaced from the panel relative to the inner surface of the panel. The barrier assembly further includes an intermediate structure disposed between the inner surface of the panel and the energy storage pack. The intermediate structure is configured to absorb energy when a load is applied to the outer surface of the panel and configured to redistribute the load along a plurality of load paths through the intermediate structure as the load is applied to the panel. A vehicle includes the barrier assembly discussed above. The vehicle includes a support structure and the barrier assembly is coupled to the support structure. The inner surface of the panel faces toward the support structure.

Abstract: A structural arrangement for a vehicle includes a body structure defining a longitudinal vehicle body axis and a lateral vehicle axis orthogonal to the longitudinal vehicle body axis. The body structure includes a lattice shear structure having a first structural member extending laterally from one side to an opposite side of the vehicle and a second structural member parallel to and longitudinally spaced apart from the first structural member, an upper shear panel extending longitudinally and laterally across the vehicle and joined to the lattice shear structure, and a seat attachment structure having a first end and a second end opposite the second end. The seat attachment structure is oriented longitudinally and is joined to both of the first and second structural members.

Abstract: A method for controlling an automatic liftgate in a vehicle includes detecting a garage door frame of a garage using a front camera or a rear camera mounted on the vehicle, determining a garage height of the garage door frame, determining whether the vehicle has entered the garage, and setting a custom height to which the automatic liftgate can open to the garage height of the garage door frame when the vehicle has entered the garage.

Abstract: A system and method are provided for aiding an operator in operating a vehicle. In one embodiment, a system includes a sensor system configured to generate sensor data sensed from an environment of the vehicle. The system further includes a control module configured to, by a processor, to determine a scene of the environment based on the sensor data, determine a terrain feature in the environment based on the sensor data, alter a graphic of a vehicle component based on the terrain feature, and generate display data to display the altered graphic and the terrain feature in the scene for viewing by the operator of the vehicle.

Abstract: A method for controlling an automatic liftgate in a vehicle includes detecting a garage door frame of a garage using a front camera or a rear camera mounted on the vehicle, determining a garage height of the garage door frame, determining whether the vehicle has entered the garage, and setting a custom height to which the automatic liftgate can open to the garage height of the garage door frame when the vehicle has entered the garage.

Abstract: A method of calculating at least one dimension of a towed vehicle includes sensing an image of the towed vehicle with an image sensing device. A feature on the towed vehicle in the sensed image of the towed vehicle is identified with a controller using a dimension determination algorithm. The dimension of the towed vehicle is determined from the identified feature of the towed vehicle, with the controller using the dimension determination algorithm. The dimension of the towed vehicle may be input into a vehicle tow controller, to enable the vehicle tow controller to control the tow vehicle.

Abstract: A rear vision system for a host vehicle and a method of using the same, where the rear vision system includes an electronic display mirror that is designed to replace a traditional rearview mirror. The electronic display mirror has an integrated electronic video display that is coupled to a rearward facing camera at the back of the vehicle and displays a video feed from the camera to the driver in real time. The electronic display mirror can display enhanced video output that shows the area behind the host vehicle, along with performance metrics that are superimposed on the video and provide relevant information to the driver. For example, the enhanced video output may include an estimated time difference between the host vehicle and the closest trailing vehicle superimposed on the video; this may be particularly useful when the host vehicle is involved in a performance driving event, like a race.

Abstract: A side rear view camera is located at a driver or passenger side of the vehicle, captures video beside and behind the vehicle, and has a predetermined field of view (FOV). The predetermined FOV is defined by a first predetermined horizontal angle of view (AOV) and a first predetermined vertical AOV. A display is located and visible within a passenger cabin of the vehicle. A display module, on the display: displays a first portion of the video from within a first predetermined portion of the predetermined FOV, the first predetermined portion of the predetermined FOV being defined by a second predetermined horizontal AOV and a second predetermined vertical AOV; and selectively displays a second portion of the video from within a second predetermined portion of the predetermined FOV, the second predetermined portion of the predetermined FOV being defined by a third predetermined horizontal AOV and a third predetermined vertical AOV.

Abstract: A smart sensor-cover apparatus for covering a sensor, such as a vehicle sensor, includes controllable layers, responsive to inputs, such as a wavelength-filtering controllable layer to selectively filter out select wavelengths of light; a polarizing layer controllable layer to selectively polarize or allow through light; a concealing controllable layer to change between a visible state and a concealed state; and an outermost, cleaning, layer configured to melt incident ice. The outermost layer in various embodiments has an outer surface positioned generally flush with an outer vehicle surface for operation of the apparatus, to promote the concealing effect when the concealing layer is not activate. The outermost layer may be configured to self-mend when scratched, and in some cases is hydrophobic, hydrophilic, or super hydrophilic outer surface. An insulating component, such as a glass or polycarbonate layer, is positioned between each adjacent controllable layer.

Abstract: A cargo box for a vehicle includes a base member having a first edge portion, a second edge portion, a first side edge portion and an opposing second side edge portion. A first cross sill extends across the base member. A second cross sill extends across the base member. A side panel member is coupled to the base member along one of the first and second side edge portions. The side panel member includes an opening. A step assembly includes a first step support coupled to the first cross sill, a second step support coupled to the second cross sill and at least one step member coupled to and extending between the first step support and second step support. The step member is arranged at the opening in the side panel member. The step member is decoupled from the side panel member.

Abstract: A system according to the present disclosure includes a trailer distance module, a trailer contact module, a trailer distance module, and at least one of a driver warning module, a brake control module, and a steering control module. The trailer distance module determines a distance from a cab of a truck to a fifth wheel trailer attached to the truck based on an input from a sensor. The trailer contact module identifies potential contact between the trailer and the truck cab based on the cab-to-trailer distance. The driver warning module warns a driver of the potential contact. The brake control module applies a brake of at least one of the truck and the trailer when potential contact is identified. The steering control module increases an amount of driver effort required to steer the truck in at least one direction when potential contact is identified.

Abstract: A vehicle occupant viewing system and a corresponding method for displaying a vehicle occupant on an image display unit. The system may comprise one or more vehicle interior cameras for obtaining occupant images of one or more occupants in rear seats of the vehicle. The system may include two vehicle interior cameras, one in a forward facing orientation and another in a rear facing orientation, which can capture occupant images of occupants in forward facing positions and occupants in rear facing positions such as infants in car seats. The system may also include one or more modular vehicle interior cameras that are moveable between various orientations in order to capture occupant images of either forward or rear facing passengers. Adjustments can be made to display the occupant images to the driver in a more intuitive arrangement.