Patent classifications
B60L58/00
METHOD FOR MANUFACTURING A BATTERY, BATTERY, AND MOTOR VEHICLE
A battery for a motor vehicle, in which electrical connections of a plurality of battery cells, are connected by at least one electrically conducting connection element. The battery cells have a galvanic element. The battery cells are connected so that a rated voltage is provided by the battery which is greater than the rated voltage of one of the battery cells. After connecting the electrical connection terminals of at least two battery cells, a switching element of one of the battery cells, arranged between an arrester of the galvanic element and one of the electrical connection terminals, is brought into a switching state in which an electrically conducting connection between an arrester of the galvanic element and at least one of the electrical connection terminals of the battery cell is produced.
Optimizations for an electric utility vehicle
Systems, methods, assemblies, and devices for monitoring and controlling a battery notification system for an electric utility vehicle. A battery level and vehicle range may be determined and monitored over time. A notification may be generated including information indicative of the battery level and vehicle range to thereby prevent electrical operations from draining the battery level below a predetermined threshold while the vehicle is parked.
Optimizations for an electric utility vehicle
Systems, methods, assemblies, and devices for monitoring and controlling a battery notification system for an electric utility vehicle. A battery level and vehicle range may be determined and monitored over time. A notification may be generated including information indicative of the battery level and vehicle range to thereby prevent electrical operations from draining the battery level below a predetermined threshold while the vehicle is parked.
METHOD AND SYSTEM FOR CONTROLLING CHARGING OF LOW-VOLTAGE BATTERY
A system and method for controlling charging of a low-voltage battery are provided. The method includes determining a state of charge of the low-voltage battery of a vehicle based on a voltage of the low-voltage battery and determining a state of charge of the low-voltage battery based on a magnitude of consumed power of a low-voltage direct current (DC) converter (LDC) providing charged power to the low-voltage battery during a period in which vehicle start-up is performed. A charged voltage of the low-voltage battery is then set based on a determination result of the state of charge of the low-voltage battery.
ENERGY STORAGE DEVICE HAVING A POSITIONAL SENSOR FOR USE IN A BICYCLE
An energy storage device for a bicycle includes a housing moveable between at least a first position and a second position, at least one battery cell disposed in the housing, and a heat sink coupled to the housing. The heat sink is in a heat dissipation position when the housing is in the first position and the heat sink is in a non-heat dissipation position when the housing is in the second position. The energy storage device includes a positional sensor coupled to the housing and configured to sense when the housing is in the second position. In various embodiments, the positional sensor may be configured as an orientation sensor or as a proximity sensor. A bicycle communication system may include a Wi-Fi enabled energy storage system.
OPTIMIZATIONS FOR AN ELECTRIC UTILITY VEHICLE
Systems, methods, assemblies, and devices for monitoring and controlling a battery notification system for an electric utility vehicle. A battery level and vehicle range may be determined and monitored over time. A notification may be generated including information indicative of the battery level and vehicle range to thereby prevent electrical operations from draining the battery level below a predetermined threshold while the vehicle is parked.
OPTIMIZATIONS FOR AN ELECTRIC UTILITY VEHICLE
Systems, methods, assemblies, and devices for monitoring and controlling a battery notification system for an electric utility vehicle. A battery level and vehicle range may be determined and monitored over time. A notification may be generated including information indicative of the battery level and vehicle range to thereby prevent electrical operations from draining the battery level below a predetermined threshold while the vehicle is parked.
Method for reducing wear of an energy storage device
The present invention relates to a method for reducing wear of an energy storage device in an energy storage system connected to a load, the energy storage system comprising at least two energy storage devices. The method comprising: connecting (S1) the energy storage system to an electrical energy source, and electrically powering (S2) the load via the energy storage system by connecting at least one of the energy storage devices to transfer electrical energy from the electrical energy source to the load, and disconnecting at least one other energy storage device to not transfer any electrical energy from the electrical energy source to the load.
Vehicle, Computing System, Operating Method of Computing System and Computer Program
A vehicle includes a battery and a computing system that analyzes a first calculation related to driving control of the vehicle and a second calculation related to energy management of the vehicle, obtains driving information related to driving of the vehicle, and manages processing of the first calculation and the second calculation based on the driving information.
System and method for heating battery in vehicle using big data
A system for heating a battery in a vehicle supplying driving power by a motor as a vehicle-driving source is provided. The system includes a big-data server configured to receive driving information of the vehicle and to determine an estimated driving start time of the vehicle and required output required at an initial driving stage of the vehicle based on the received driving information, and a controller, installed in the vehicle and configured to provide the driving information to the big-data server, to receive the estimated driving start time and the required output provided from the big-data server, and to derive a heating time of the battery, required to ensure the required output, based on the a temperature and an SoC of the battery installed in the vehicle.