Abstract:
The invention discloses a kind of electric automobile PWM rectification and converting voltage/current pulse charging system which is the charging system for large storage battery. The system includes rectifier module and charging module. The former links with AC network and charge module respectively. The said charging system also includes DC charging management module and the charging module is composed of DC input module and DC output module. The said rectifier module, DC input module and DC output module, DC charging management module are independent and connected together by CAN bus. The electric automobile PWM rectification and converting voltage/current pulse charging system of this invention is simply structured with a small size and features wide range of application e.g. charging for all lead and zinc storage batteries. It greatly reduces the duration for charging storage batteries and is worthy of scale popularizing.
Abstract:
Examples of systems and methods for controlling or monitoring a fleet of human-propelled, wheeled carts and cart retrievers are described. The carts can be shopping carts at a retail facility, and the cart retrievers can be used to collect and return the shopping carts from a parking lot near the facility to a cart collection area. The carts or cart retrievers can monitor various status or usage parameters (such as retriever battery charge, cart collection trip speed, cart collection path or duration, etc.) and transmit the parameters to a central control unit. The central control unit can analyze and process the status or usage parameters. The system can provide a user interface for access to the status or usage parameters of the cart and cart retriever fleet.
Abstract:
A wireless charging station, an electric vehicle charged wirelessly, and a method of charging an electric vehicle are provided. A wireless charging station include a charging unit configured to transmit power wirelessly to an electric vehicle, using a source resonator installed in the charging station; and a driving unit configured to move a target resonator connected to the source resonator from a position at which the target resonator is mounted on the charging unit to an installation space of the electric vehicle, when the electric vehicle is disposed in a charging area of the charging station.
Abstract:
Methods and systems are disclosed for a vehicle and for associated methods for handling contact detection of the vehicle. The vehicle includes a computer and a communications system. The communications system is configured to provide the computer of the vehicle with wireless communication with a cloud services system that includes a database that stores a user account that identifies the vehicles as registered with the cloud services system. The user account identifies settings for the vehicle and information for notifying a user of the vehicle. The vehicle includes a plurality of sensors associated to sides of the vehicle, such that contact with a specific side of the vehicle is identified using a sensor of the plurality of sensors. The vehicle further includes a plurality of cameras integrated in the vehicle to enable capturing of image data of an area around the vehicle. The computer is configured to receive data from the plurality of sensors of the vehicle to detect a contact with the vehicle and identify a side of the vehicle from which the contact was detected. The computer is configured to send data to the cloud services system which will then send the notification indicating that contact was detected with the vehicle. The cloud services system enables access to additional data and controls, including live feeds of the area around the vehicle.
Abstract:
Systems and methods that facilitate the charging of an electric vehicle battery while avoiding electric grid peak load difficulties are discussed. One such method may include generating charge instructions based on a historical load profile, forecast load profile, historical weather data, and/or forecast weather data, in the absence of real-time grid condition information.
Abstract:
A charging system includes a vehicle, a charging/discharging connector, a detector, and an informing portion. The vehicle is equipped with an electric power storage device, and also includes an inlet for charging the electric power storage device. The charging/discharging connector is a connector that is attached to and detached from the inlet and that is connected to the inlet in a fully fitted state, in which charging can be performed, and a half-fitted state, in which charging is not allowed. The detector includes an electronic control unit for detecting whether a connecting state of the charging/discharging connector is the fully fitted state or the half-fitted state. The informing portion includes an indicator for informing a user of abnormal connection of the charging/discharging connector on the basis of a detection result of the electronic control unit when connection of the charging/discharging connector is the half-fitted state.
Abstract:
Disclosed is a method for efficiently retrieving a charger to supply electric power to an electric vehicle and achieving maximum wireless recharging efficiency, using visible light communication, upon wirelessly recharging the electric vehicle. Wireless visible light communication can be realized, using the existing head lamp installed at the vehicle. Accordingly, it is unnecessary to provide separate communication equipment. In addition, enhanced physical security, efficient charger retrieval, and maximum wireless recharging efficiency can be achieved by virtue of straightness of light.
Abstract:
The invention relates to a method for dynamically providing up-to-date information about charging stations for electric vehicles. Charging station information including at least one charging station identification assigned to a respective charging station and location information assigned to the respective charging station is stored for a plurality of charging stations. A charge request containing identification of the mobile station and geographical information for the mobile station is received from a mobile station. A tuple of charging station information from the plurality of items of stored charging station information dependent on at least the received charge request is selected such that the received geographical information is compared with the respective location information of the charging stations and when the result of a comparison is positive the corresponding charging station information is added to the tuple and the tuple is sent to the mobile station using the identification of the mobile station.
Abstract:
One embodiment provides a charge/discharge instruction apparatus, including: a charge/discharge instruction unit which instructs a charge/discharge determination apparatus to perform a charge/discharge control of a battery; a charge/discharge information storage unit which stores charge/discharge information for charging/discharging the battery; a control unit which controls an access request to the battery based on the stored charge/discharge information and contents of the charge/discharge control; a generating unit which generates a communication message concerned with the access request controlled by the control unit; and a communication unit which transmits the communication message concerned with the access request to the charge/discharge determination apparatus.
Abstract:
A vehicle battery charger for providing a charging current to a rechargeable vehicle battery which stores electric traction power includes a relay for interrupting the charging current, and fault diagnosing means for switching an operating condition of the relay to thereby diagnose a fault in the relay. At a time of starting and/or stopping a supply of the charging current, if a given condition is satisfied, the fault diagnosing means executes a diagnosis of the fault, or if the given condition is not satisfied, the fault diagnosing means does not execute a diagnosis of the fault.