Abstract:
A method of autonomously charging an electric vehicle having a charge port is provided. The method comprises providing an electric charge system having a first controller and a second controller. The first controller is in communication with an electric charger and a movable charge arm. The movable charge arm is connected to the electric charger extends to an arm end comprising a charge plug and a camera. The movable charge arm has an idle position defining a charging zone and is movable via a predetermined number of degrees of freedom to connect the charge plug with the charge port for electrically charging the electric vehicle. The second controller disposed in the vehicle and in communication with the first controller. The method further comprises aligning the charge port with the charging zone by vehicle movement and aligning the charge plug with the charge port by the charge arm movement. The method further comprises connecting the charge plug to the charge port to electrically charge the electric vehicle.
Abstract:
A vehicle charging station includes a track configured to extend across a plurality of vehicle parking spaces. The charging station further includes a movable charging apparatus supported by the track and translatable along the track between the plurality of vehicle parking spaces. The charging station further includes a first contact wire extending approximately parallel to the track. The charging station further includes a first conductor pole configured to couple the movable charging apparatus to the first contact wire at a plurality of locations along a width of the first contact wire. The first conductor pole is configured to move with the movable charging apparatus. In such a manner, a one-to-many charging station can be accomplished.
Abstract:
Methods and systems for transporting an object may include a plurality of transport vehicles. A transport vehicle may be autonomous, and may have one or more wheels extending from a body for engaging a ground surface. A method may include providing a destination for the object to the plurality of transport vehicles, wherein the plurality of transport vehicles determines a route to the destination, dividing the route into one or more route segments for the plurality of transport vehicles, encountering an obstacle with a first one of the transport vehicles while traveling along one of the route segments, and sending a location of the obstacle from the first transport vehicles to at least a second one of the transport vehicles. A second one of the transport vehicles may modify at least one of the route segments to avoid the obstacle based upon the provided location.
Abstract:
A remote smart-power server receives reservation data indicating parameters for a planned vehicle use, such as pick-up time, pick-up location, and drop-off time. Systems of the present technology are in various embodiments used in connection with electric vehicles. The server interacts with a smart-powering station system to determine available vehicles at the location, including vehicles having sufficient charge, or chargeable to sufficient charge by the pick-up time. The server presents available vehicles to a user device and receives selection of a preferred vehicle. The server sends the selection to the smart-powering station, which implements a charging sequence to ensure the preferred vehicle is charged as needed for the planned vehicle use. Charging is in various implementations performed automatically, such as by computing controls and robotic machinery. The technology in various embodiments includes any of the relevant apparatus of the arrangement, code and algorithms thereof, and processes performed thereby.
Abstract:
An assembly for a vehicle includes a first member including a plurality of elastically deformable locating protrusions extending outward, and a second member defining a cavity extending inward and including a plurality of elastically deformable compression features disposed within the cavity. The locating protrusions of the first member are disposed within the cavity of the second member in press fit engagement with the compression features of the second member to secure the first member relative to the second member. The average of the elastic deformation between all of the locating protrusions of the first member and all of the compression features of the second member precisely aligns the first member relative to the second member. The assembly may include but is not limited to a multiple unit battery pack, a multiple unit fuel cell pack, a dashboard assembly or adjoining body panels.
Abstract:
A robotic system for forming a moldable workpiece is provided. The robotic system includes a robot, an end effector, an adjustment module, and a control module. The robot is configured to pass the workpiece through a machine. The end effector is configured to be attached to the robot and configured to grasp and release the workpiece. The end effector is adjustable to a plurality of different configurations. The adjustment module is configured to determine a change in the workpiece from (a) a first form of the workpiece prior to the passing of the workpiece through the machine to (b) a second form of the workpiece after passing of the workpiece through the machine. The control module is configured to adjust a present configuration of the end effector to a second configuration based on the change in the workpiece from (a) the first form to (b) the second form.
Abstract:
Example methods and systems may transport an object with a plurality of transport vehicles. An example transport vehicle may be autonomous, and may have one or more wheels extending from a body for engaging a ground surface. Example methods may include providing a destination for the object to the plurality of transport vehicles, wherein the plurality of transport vehicles determines a route to the destination, dividing the route into one or more route segments for the plurality of transport vehicles, encountering an obstacle with a first one of the transport vehicles while traveling along one of the route segments, and sending a location of the obstacle from the first transport vehicles to at least a second one of the transport vehicles. A second one of the transport vehicles may modify at least one of the route segments to avoid the obstacle based upon the provided location.
Abstract:
Systems for use in connection with custom powering of a vehicle that includes a charging station track and a charging base positioned at or along the charging station track at an available parking position. The system a controller having a processing hardware unit and a non-transitory storage device comprising computer-executable code that when executed causes the processing hardware unit performs operations including (i) receiving a power level indicating a current power level of the vehicle and/or a time stamp indicating an arrival time of the vehicle to a location proximate to the charging station track, (ii) sending a first signal to the vehicle causing the vehicle to move to the available position along the charging station track, (iii) charging the vehicle to a predetermined power level using the charging base, and (iv) sending a second signal to the vehicle causing the vehicle to move out of the available position at the charging station.
Abstract:
A vehicle charging station includes a track configured to extend across a plurality of vehicle parking spaces and a movable charging apparatus supported by the track. The movable charging apparatus is translatable along the track between the plurality of vehicle parking spaces to charge one or more vehicles. The movable charging apparatus includes a base slidably coupled with the track, an end effector in mechanical communication with the base and configured to electrically couple with an electric vehicle disposed within one of the plurality of vehicle parking spaces, and a power delivery circuit configured to receive an electrical charge from a power source and to controllably provide the electrical charge to the electric vehicle.
Abstract:
A battery module includes a plurality of battery cells arranged in a stack, each of the battery cells including a pair of spaced apart tabs extending therefrom, a rigid support plate coupled to at least one of the tabs, and a busbar coupled to at least one of the tabs of each of a pair of adjacent battery cells.