Abstract: Various disclosed embodiments include illustrative panel systems, structures, and vehicles. In an illustrative embodiment, a panel system includes a panel configured to rotatably connect to a structure and a panel cable assembly. The panel cable assembly includes a first cable having a first end and a second end, a first connector couplable to the first end of the first cable and the panel or the structure. The panel cable assembly also includes a second connector couplable to the second end of the first cable and the panel or the structure. The second connector is configured to have a predefined number of orientations. The second connector includes an outer portion coupled to the first cable and an inner portion received within the outer portion in one of the predefined number of orientations. Each of the predefined number of orientations results a different distance value between the panel and the structure responsive to full extension of the cable.

Abstract: Disclosed embodiments include computer-implemented methods, systems, and vehicles for determining a travel range of a vehicle. In an illustrative embodiment, a perimeter is determined indicating a travel range of a vehicle from a starting location based on the capacity of the battery system. At least one charging location is identified within the perimeter. An option is provided to generate an extended perimeter indicating an extended travel range of the vehicle travel from the starting location based on a recharge of the battery system at the at least one charging location. Map data is generated including at least one visualized travel range chosen from the perimeter and the extended perimeter.

Abstract: Systems and methods are provided for presenting information related to electric charging stations for charging an electric vehicle. A first plurality of icons corresponding to an identified plurality of electric charging stations may be generated for presentation on a display. A zoom command to modify a zoom level of the map interface may be received, and in response to receiving the zoom command, a subset of the plurality of electric charging stations having a charging speed above a threshold charging speed may be identified, and a second plurality of icons, corresponding to the identified subset of the plurality of electric charging stations, may be generated for presentation at the display on a zoomed-out view of the map interface. Selectable options to display a detailed view of information related to an electric charger associated with an electric charger category from among multiple electric charger categories may be provided.

Abstract: A vehicle includes an occupant compartment, a storage compartment, one or more frame elements, a seat assembly, and a door. The frame element forms at least a part of the storage compartment, which is arranged adjacent to an occupant compartment. The frame element includes an opening between the storage compartment and the occupant compartment. The seat assembly is arranged in the occupant compartment, and optionally includes a console. A threshold element is optionally included to provide an interface to the occupant compartment. The door is configured to block and unblock the opening such that an occupant can access the storage compartment from the occupant compartment. The door is configured to rotate, slide, fold, or otherwise be reconfigured, under manual or automatic operation, to unblock the opening. The door is not part of the seat assembly, and interfaces to the frame element or a threshold element affixed to the frame.

Abstract: Various disclosed embodiments include illustrative controller modules, direct current (DC) fast charging devices, and methods. In an illustrative embodiment, a controller module for a DC-DC converter includes a controller and computer-readable media configured to store computer-executable instructions configured to cause the controller to receive an input voltage Vin to the DC-DC converter, receive an output DC voltage Vo from the DC-DC converter, generate control signals configured to control a charging output of the DC-DC converter responsive to the received input voltage Vin and output voltage Vo, and output the generated control signals to the DC-DC converter.

Abstract: A kitchen module for a vehicle includes a frame system for providing structural support, a rail system affixed to the frame system and the vehicle, and a plurality of kitchen components mounted to the frame system. The rail system is configured to allow the frame system to move relative to the vehicle. The plurality of kitchen components include a sink, a potable water tank, a waste-water tank, a rangetop, at least one drawer, a countertop, lights, any other suitable component, or any combination thereof. The vehicle, which may be an electric vehicle having a battery module, can include an electrical extension connecting an electric power source of the vehicle to the kitchen module. The electrical extension may be coupled to at least one of an actuator of the rail system and a rangetop.

Abstract: A laser welding mask and a method for facilitating laser welding are provided. The laser welding mask includes a guide plate, a number of clamp plungers, and a number of clamp springs. The guide plate is attached to a load plate. The guide plate defines a number of openings that extend from an upper surface to a lower surface. Each clamp plunger is disposed within one of the openings in the guide plate, and each clamp plunger defines at least one passage configured to pass a laser welding beam. At least one clamp spring is disposed between each clamp plunger and the load plate.

Abstract: Various disclosed embodiments include illustrative vehicle charging connectors, vehicle charging connector systems, and vehicle charging systems. In an illustrative embodiment a vehicle charging connector includes at least two electrical contacts configured to electrically connect with electrical contacts of a vehicle charge port. At least one controllable electromagnet may be configured to attract the vehicle charging connector to contact a charge port of an electric vehicle. The connector also includes at least one controllable electrically actuated mechanical connector configured to provide mechanical engagement and disengagement between the vehicle charging connector and the charge port.

Abstract: A system is provided. The system can include a charger. The charger can electrically connect with a vehicle. The charger can transmit, responsive to occurrence of a triggering event, a first signal to the vehicle. The first signal can have a first voltage to cause the vehicle to direct a first power to the charger. The charger can transmit a second signal to the vehicle. The second signal can have a second voltage to cause the vehicle to direct a second power to the charger. The charger can supply the second power to a load connected to the charger.

Abstract: Systems and methods are presented herein for an airbag shell. The airbag shell comprises a u-shaped channel formed of moldable fabric. The moldable fabric is configured to become malleable when exposed to temperatures exceeding a melting point of the moldable fabric. An external surface of the u-shaped channel is configured to interface with a roof rail. An inner surface of the u-shaped channel is configured to receive an airbag.

Abstract: An apparatus can include one or more valves to couple with a thermal line of a battery pack. The apparatus can include one or more coolant channels to couple with one or more thermal components of the battery pack. The one or more valves can modify coolant flow from the thermal line to the one or more coolant channels.

Abstract: A battery system of a vehicle may include a main battery pack, a secondary battery pack, and one or more secondary contactors. The main battery pack is integrated into the vehicle and includes a first plurality of battery cells, a first DC bus coupled to the first plurality of battery cells, and main contactors coupled to the first DC bus to form a switched DC bus. The secondary battery pack includes a second plurality of battery cells, and a second DC bus coupled to the second plurality of battery cells. The second DC bus of the secondary battery pack is electrically coupled to the switched DC bus of the main battery pack via the secondary contactors. In some embodiments, the main battery pack includes control circuitry configured to communicate with control circuitry of the secondary battery pack to manage or monitor coupling of the battery packs.

Abstract: The present solution provides calibration for a battery model of an electric vehicle battery. One or more processors of an electric vehicle coupled with memory can identify, for the electric vehicle, a model configured to determine performance of a battery of the electric vehicle based on a function. The function can generate values for a parameter of the model across a range of states of charges and a range of temperatures. The one or more processors can generate, based on input from a sensor of the electric vehicle, a value of performance of the electric vehicle via the model. The one or more processors can provide an action for the electric vehicle based on the value of the performance.

Abstract: A vehicle includes a battery system arranged in a central region. The battery system includes corners corresponding to corners of an end of the vehicle, and respective chassis components are arranged at each corner. Respective shear brackets are affixed to the vehicle frame to a respective chassis component. The shear brackets are configured to absorb energy from the chassis components during deceleration events. The chassis components may include a knuckle configured to engage with the frame at an interface, to which the shear bracket may be added. Each shear bracket is formed from metal, such as sheet metal, and includes mounting features such as holes or studs to affix to the frame. The shear brackets are configured to limit intrusion of the chassis components into the battery system by absorbing energy. A bolt or fastener affixing a chassis component to the frame is strengthened by the shear bracket.

Abstract: Various disclosed embodiments include illustrative drive unit controllers, drive units, and vehicles. In an illustrative embodiment, a drive unit controller includes a processor having computer-readable media configured to store computer-executable instructions configured to cause the processor to receive free-wheel tow mode activation information, activate a hold mode based on the received free-wheel tow mode activation information, generate a zero-speed command in response to the hold mode being activated, and send the generated zero-speed command to a stabilizing system of the associated vehicle.

Abstract: A frame is described for positioning a battery using a vision system to determine at least one weld point on the battery. The frame includes at least one visual reference feature detectable by the vision system. The reference feature is used by the vision system to determine the weld point(s). For example, the at least one visual reference feature includes a pair of stubs that define a line, and the at least one weld point is determined based on the line. In a further example, the pair of stubs correspond to respective batteries, which are arranged adjacent to one another within the frame. In a further example, respective centers of the stubs are lined up along a center line extending from respective centers of respective end faces of the respective batteries. The vision system includes vision circuitry, processing circuitry coupled to the vision circuitry, and a weld system.