Abstract:
An electric charger resource sharing method and system comprise a charger that supplies electrical energy to a plurality of electric vehicles. The charger includes a robotic arm that articulates to be proximal to each of the electric vehicles for supplying the electrical energy to the electric vehicles and a docking interface at a distal end of the robotic arm that couples with a receptacle on each of the electric vehicles for transferring the electrical energy from the charger to the electric vehicles. A resource management device receives a bid from each electric vehicle, and allocates a portion of the electrical energy for a predetermined period of time to an electric vehicle of the plurality of electric vehicles in response to the bid of the electric vehicle.
Abstract:
A method and apparatus are provided for securing an electric vehicle from unwanted movement when the electric vehicle is parked. The electric vehicle includes a drive wheel and an electric motor for driving the drive wheel. The method includes the steps of: (a) placing the electric vehicle in an electronic park brake mode; (b) automatically detecting that the electric vehicle is rolling from an initial position; and (c) automatically causing the electric motor to apply a reverse torque to the drive wheel to return the electric vehicle to the initial position or automatically causing the electric motor to lock the drive wheel to inhibit further movement of the electric vehicle.
Abstract:
An onboard system includes a switch arranged on a vehicle at a location allowing for a user to operate the switch from outside the vehicle. A control unit allows for a vehicle power supply to be switched OFF if an operation performed on the switch is detected when a power supply plug is connected to a charge inlet.
Abstract:
A motorcycle comprises an electricity accumulator configured to supply electric power to driving devices required for driving of the motorcycle and to non-driving devices; a voltage detector configured to detect a voltage of the electricity accumulator; and a power supply controller configured to control supply of the electric power; the non-driving devices including electric motor devices in an electric motor braking system configured to be electrically driven to assist braking and non-driving electric motor devices other than the electric motor devices in the electric motor braking system; and the power supply controller being configured to inhibit the electric power from being supplied to at least one specified non-driving electric motor device of the non-driving electric motor devices, when the voltage of the electricity accumulator which is detected by the voltage detector is not more than a first predetermined voltage.
Abstract:
Systems, methods, devices, and computer-readable media secure a coupler 101 of an electric vehicle charging station 100 by locking the coupler 101 to the electric vehicle charging station 100 or an electric vehicle 210. A locking mechanism is provided within the coupler 101. The locking mechanism may include an actuator 432 configured to move between a lock and unlock position. When the actuator 432 is in the lock position, the coupler 101 may be locked to the charging station 100 or an electric vehicle 210. Whereas, when the actuator 432 is in the unlock position, the coupler 101 may be removed from the charging station 100 or electric vehicle 210. Further, the charging station 100 may include an identification device 437 for determining when to lock or unlock the coupler 101.
Abstract:
A charging system that significantly increases the anti-theft capability of a charging subject. The charging subject includes a rechargeable battery. The rechargeable battery of the charging subject is connected to a power supply of a house by power lines. An authentication management device performs authentication of the charging subject by communicating with the charging subject through the power lines and permits charging of the rechargeable battery with the power supply of the house only when the authentication is established.
Abstract:
A plug-in vehicle management system enables charging of a plug-in vehicle from a power supply station through an electric power line and power line communication between the power supply station and the vehicle. When a vehicle-side connector and a station-side connector are connected to enable the power-line communication between a vehicle-side power line communication section and a station-side power line communication section, a vehicle-side security control section and a station-side security control section cooperate so that one of a vehicle-side input/output section and a station-side input/output section receives an input signal and transmits it to the other of the vehicle-side input/output section and the station-side input/output section.
Abstract:
Illustrative embodiments manage an electric vehicle charging transaction. A set of principals associated with the electric vehicle charging transaction is identified. Electric vehicle charging information is retrieved from a set of sources. An energy transaction plan is generated using the electric vehicle charging information. A charging phase of the electric vehicle charging transaction is initiated for an electric vehicle connected to a charging station in accordance with the energy transaction plan. The charging phase comprises at least one of charging the electric vehicle with electricity, storing electricity in an electric storage mechanism associated with the electric vehicle, and removing electricity from the electric storage mechanism to de-charge the electric vehicle. In response to completion of the charging phase, the process then settles the financial obligations of a subset of principals in accordance with the energy transaction plan.
Abstract:
A computer manages network based preferences associated with charging transactions for electric vehicles. A network based energy preference service receives a request for a set of preferences for an identified principal having an interest in the charging transaction and associated with a charging transaction for an electric vehicle from a preference requesting service over a network connection. The charging transaction is a transaction associated with at least one of charging the electric vehicle, storing electric power in an electric storage mechanism associated with the electric vehicle, and de-charging the electric vehicle. The network based energy preference service retrieves the set of preferences from a data storage device associated with the preference service. A preference in the set of preferences specifies a parameter of the charging transaction that is to be minimized, maximized, or optimized. A vehicle transaction planner sends the set of preferences to the preference requesting service.
Abstract:
According to one embodiment of the present invention, a computer manages an electric vehicle charging transaction. A set of principals is identified associated with the charging transaction for an electric vehicle. A principal is an entity having an interest in the charging transaction. Electric vehicle charging information is retrieved from a set of sources. An energy transaction plan is generated during a pre-charge phase using the electric vehicle charging information and based on preferences of one or more principals to govern the charging transaction. The computer initiates a charging phase of the charging transaction for an electric vehicle connected to a charging station according to the energy transaction plan. The charging phase comprises charging the electric vehicle with electricity, storing electricity in the electric vehicle, and removing electricity to de-charge the electric vehicle. The computer settles financial obligations among principals according to the energy transaction plan.