Abstract: A display system mounted within a vehicle is provided, where the system monitors the user's position within the vehicle's seat and automatically adjusts the location of the display to compensate for variations in the size or seating position of the user, thereby helping to alleviate the eye strain, fatigue, neck and back pain that often accompany the improper use of a monitor for an extended period of time.

Abstract: An undercarriage-mounted battery pack is provided that includes a foot well cavity that is aligned with the foot well corresponding to one or more of the vehicle's seats, e.g., the rear vehicle seats. A portion of the battery pack is located in front of the foot well cavity while a second portion is located behind the foot well cavity, where the two portions are coupled together using conduits. The bottom surface of the battery pack may be shaped in order to minimize drag and enhance the flow of air under the vehicle. The battery pack may include cross-members, either interposed between battery subassemblies or incorporated into the subassembly enclosures, to increase side impact resistance and provide further protection to the batteries within the pack as well as the vehicle's occupants.

Abstract: An integrated drive system assembly is provided that combines an electric motor, a power inverter assembly and a gearbox into a single, multi-piece enclosure. Combining these components into a single enclosure reduces weight, reduces drive system complexity, reduces system volume, simplifies assembly integration into an electric vehicle, reduces manufacturing cost, allows the flexible and lengthy electrical cables between the power inverter and the electric motor to be replaced with short, low loss, rigid bus bars, and simplifies component cooling by allowing the use of a common thermal management system, i.e., a mutual thermal management system. The common thermal management system includes a liquid coolant loop that is thermally coupled to the electric motor, the power inverter assembly and the gearbox.

Abstract: A vehicle wheel suspension system that achieves increased width in the passenger and/or luggage compartment is provided. The suspension system utilizes a (i) a wheel support member that is positioned between the inner and outer tire planes; (ii) a plurality of linkage arms rotatably coupled to the wheel support member; (iii) a nonlinearly-shaped damper-spring support member that is attached to either an upper or lower linkage arm, where the support member includes a damper-spring mounting platform that is positioned above, and at least partially overlaps, the tire; and (iv) a damper-spring assembly mounted to the damper-spring mounting platform and coupled to a vehicle body structure.

Abstract: A vehicle wheel suspension system that achieves increased width in the passenger and/or luggage compartment is provided. The suspension system utilizes a (i) a wheel support member that is positioned between the inner and outer tire planes; (ii) a plurality of linkage arms rotatably coupled to the wheel support member; (iii) a nonlinearly-shaped damper-spring support member that is attached to either an upper or lower linkage arm (iv) a damper-spring mounting platform that is positioned above, and at least partially overlaps, the tire, and that is rotatably attached to the nonlinearly-shaped damper-spring support member; and (v) a damper-spring assembly mounted to the damper-spring mounting platform and coupled to a vehicle body structure.

Abstract: A battery pack protection system is provided for use with an electric vehicle in which the battery pack is mounted under the car. The system utilizes a ballistic shield that is configured to deform and absorb impact energy, thereby minimizing the transference of impact energy to the battery pack and the batteries contained within the pack. The ballistic shield is designed to hook into a mounting base attached to the battery pack, thereby simplifying both its installation and, when necessary, its replacement.

Abstract: A method is provided in which the ride height of a vehicle is automatically increased when an on-board sensor system detects an obstacle within the vehicle's pathway.

Abstract: A vehicle rocker panel is provided that is extruded as a single piece. As extruded, the rocker panel may include one or more interior reinforcing walls as well as interior and exterior design features.

Abstract: A vehicle wheel suspension system that achieves increased width in the passenger and/or luggage compartment is provided. The suspension system utilizes a (i) a wheel support member that is positioned between the inner and outer tire planes; (ii) a nonlinearly-shaped damper-spring support member that is attached to the wheel support member and includes a damper-spring mounting platform that is positioned above, and at least partially overlaps, the tire; and (iii) a damper-spring assembly mounted to the damper-spring mounting platform and coupled to a vehicle body structure.

Abstract: An integration assembly for a battery pack mounted between the passenger cabin floor panel of an electric vehicle and the driving surface is provided, the assembly utilizing a multi-layer thermal barrier interposed between the battery pack enclosure and the passenger cabin floor panel, where the multi-layer thermal barrier provides noise isolation, thermal isolation and vibration damping, and where the multi-layer thermal barrier is compressed when the battery pack enclosure is mounted to the vehicle. The multi-layer thermal barrier is comprised of a first layer formed from a compressible and conformable elastic material and a second layer formed from a conformable thermally insulating material. The multi-layer thermal barrier may also include a moisture barrier layer that encases the first and second layers, for example a moisture barrier layer fabricated from a plastic. A sealant may be used to seal and bond the moisture barrier layer to the battery pack enclosure.

Abstract: An improved integration system for a battery pack mounted between the passenger cabin floor panel of an electric vehicle and the driving surface is provided, the system utilizing at least one insulating layer interposed between the battery pack enclosure and the passenger cabin floor panel, where the insulating layer provides noise isolation, thermal isolation and vibration damping, and where the insulating layer is compressed when the battery pack enclosure is mounted to the vehicle.

Abstract: A battery pack with a compact and robust bus bar assembly is provided. The batteries within the pack are divided into groups, where the batteries within each battery group are connected in parallel and the groups are connected in series. A repetitive sequence of overlapping bus bars is used, with each bus bar comprised of upper and lower segments coupled together via a step segment. The overlapping design allows the upper surface of the upper segment of each of the repetitive bus bars to be aligned within an upper plane, and the lower surface of the lower segment of each of the repetitive bus bars to be aligned within a lower plane.

Abstract: An energy absorbing and distributing side impact system for use with a vehicle is provided, the system utilizing a battery pack enclosure that includes a plurality of cross-members that transverse the battery pack enclosure and absorb and distribute at least a portion of the load received when either the first or second side of the vehicle receives a side impact. The battery pack enclosure is positioned between the front and rear vehicle suspension assemblies and mounted between, and mechanically coupled to, vehicle structural members (e.g., rocker panels) located on either side of the vehicle. In addition to providing rigidity, strength and impact resistance, the battery pack cross-members segregate the batteries contained within the battery pack enclosure into battery groups.

Abstract: A reinforced B-pillar assembly that achieves improved side impact resistance is provided in which the B-pillar assembly is mechanically coupled to an outer mounting surface of the rocker panel as well as to an extended brace that is attached to the upper and rear mounting surfaces of the rocker.

Abstract: An energy absorbing and distributing side impact system for use with a vehicle is provided, the system utilizing a collapsible side sill along with multiple vehicle cross-members to achieve the desired level of vehicle side impact resistance, the combination of these elements absorbing and distributing the impact load throughout the vehicle structure. A battery pack enclosure that includes a plurality of cross-members that transverse the battery pack enclosure also help to absorb and distribute at least a portion of the load received when either the first or second side of the vehicle receives a side impact. In this configuration the battery pack enclosure is positioned between the front and rear vehicle suspension assemblies and mounted between, and mechanically coupled to, the side sill assemblies. In addition to providing rigidity, strength and impact resistance, the battery pack cross-members segregate the batteries contained within the battery pack enclosure into battery groups.

Abstract: A rear structure for a vehicle is provided, the structure including (i) a pair of single piece rear torque boxes; (ii) a pair of rocker panels mechanically coupled to the rear torque boxes; (iii) a pair of rear rails mechanically coupled to the rear torque boxes; and (iv) at least one cross-member interposed between and mechanically coupled to the rear torque boxes.

Abstract: A system for absorbing and distributing front impact forces in a vehicle is provided, the system including a primary impact system and a secondary impact system, each of which includes a bumper and a structure for transferring impact loads. The primary impact system includes a primary bumper and a pair of front rails spaced apart in a widthwise direction with each rail extending lengthwise, where one end portion of each rail is mechanically coupled to the vehicle's bumper and the other end portion of each rail is mechanically coupled to a torque box. The secondary impact system includes a secondary bumper and an assembly of sub-frame components separate from the front rails that allow impact loads to be transferred in parallel through the front rails and the sub-frame.

Abstract: A front structure for a vehicle is provided, the structure including (i) a pair of front rails spaced apart in a widthwise direction with each rail extending lengthwise, and where each rail is comprised of a polygonal-shaped upper hollow channel and a polygonal-shaped lower hollow channel with the upper and lower channels sharing a common wall; and (ii) a pair of curvilinear torque boxes, where one curvilinear torque box is mechanically attached to the upper and lower polygonal-shaped channels of each front rail, where each curvilinear torque box is mechanically coupled to a rocker panel, where the upper polygonal-shaped channel of each front rail is in a horizontal plane located above the top surface of the corresponding rocker panel, and where the lower polygonal-shaped channel of each front rail is in a horizontal plane that is aligned with the corresponding rocker panel.

Abstract: A control system for use with a vehicle's dual hinged door assembly is provided, the control system including a door switch, upper and lower door portions, primary and secondary door drive systems and a controller. The upper door portion pivots about a primary axis formed by its juncture with a structural member in the roof while the lower door portion pivots about a secondary axis formed by its juncture with the upper door portion. Primary and secondary drive systems provide independent powered motion of the upper and lower door portions. The controller monitors door switch activation and determines whether activation corresponds to a door open or door closed command; performs preset door opening and closing sequences using the drive systems; and modifies the preset door opening and closing sequences based on data from proximity sensors, pinch sensors, latch sensors, drive system motor speed and the current draw by the drive systems.

Abstract: A dual hinged door assembly for a vehicle is provided, the assembly including an upper door portion and a lower door portion. The upper door portion, which may include a window, pivots about a primary axis formed by its juncture with a structural member in the roof. The lower door portion, which may include a window, pivots about a secondary axis formed by its juncture with the upper door portion. Primary and secondary drive systems may be used to provide independent powered motion of the upper and lower door portions. Each drive system may include a powered strut, e.g., a hydraulic strut, and a non-powered strut, e.g., a gas strut.