Abstract:
A charging system for a vehicle, a vehicle comprising the charging system, and a method for controlling charging a vehicle with the charging system are provided. The charging system comprises: a battery (1); a first charging branch (2) comprising a first rectifying unit (21) and a first charging interface (22), in which the battery (1) is connected with the first charging interface (22) via the first rectifying unit (21); a second charging branch (3) comprising a second rectifying unit (31) and a second charging interface (32), in which the battery (1) is connected with the second charging interface (32) via the second rectifying unit (31); and a control unit (4) connected with the first rectifying unit (21) and the second rectifying unit (31) respectively and configured to control the first charging branch (2) and the second charging branch (3) to charge the battery (1).
Abstract:
A charging system for a vehicle, a charging system for a battery of a vehicle, a charging device for a vehicle, and a vehicle comprising the same are provided. The charging system for the vehicle comprises: a battery (1) configured to output a DC voltage; a charging interface (5) connected with the vehicle; a converting unit (3) connected with the battery (1) and the charging interface (5) respectively; and a control unit (4) connected with the converting unit (3), and configured to control the converting unit (3) to convert the DC voltage outputted by the battery (1) to an AC voltage and to charge the vehicle via the charging interface (5) with the AC voltage.
Abstract:
A method and apparatus for controlling a motor of an electric vehicle. A current acceleration a of the motor is calculated in real time according to detected rotor position values. If the current acceleration a is greater than a predetermined forward acceleration a 0, then the motor output torque is decreased. If the acceleration a is less than a predetermined backward acceleration a 1, then the motor output torque is increased. Thus, when the vehicle travels from a normal road surface to a slippy road surface or on the contrary, decreasing or increasing the motor output torque may suppress an abrupt variation of vehicle speed. According to a preferred embodiment, reducing output torque during early period may suppress current abrupt variation, protect the power device, and avoid the vehicle being out-of-control caused by a rotor blocking or a motor skidding.
Abstract:
The present disclosure discloses a motor controller and a vehicle with the same. The motor controller includes: a box, the box including a first housing, the first housing being provided with a cooling chamber, two opposite sidewalls of the cooling chamber being respectively provided with an insertion-in hole and an insertion-out hole; an IGBT module, the IGBT module being arranged in the box and inserted into the cooling chamber through the insertion-in hole, two opposite side surfaces of the IGBT module in a thickness direction and an inner wall of the cooling chamber forming liquid passing gaps, two ends of the IGBT module being sealed with the first housing to seal the insertion-in hole and the insertion-out hole; a control board and a drive board, the control board and the drive board being arranged in the box, the control board being located on a side of the drive board facing away from the IGBT module, the drive board being connected to the control board and the IGBT module, respectively; and a capacitor module, the capacitor module being located on a side of the first housing facing away from the drive board, the capacitor module being connected to the IGBT module and dissipating heat through a coolant in the cooling chamber.
Abstract:
The present disclosure relates to the technical field of vehicles, and provides a cable assembly and a vehicle charging system. The cable assembly includes: a power supply plug, adapted to a discharging outlet of a discharging vehicle; a charging plug, adapted to a charging outlet of a to-be-charged vehicle; and a cable, connected between the power supply plug and the charging plug.
Abstract:
A charging system for a vehicle, a vehicle comprising the charging system, and a method for controlling charging a vehicle with the charging system are provided. The charging system comprises: a battery; a first charging branch comprising a first rectifying unit and a first charging interface, in which the battery is connected with the first charging interface via the first rectifying unit; a second charging branch comprising a second rectifying unit and a second charging interface, in which the battery is connected with the second charging interface via the second rectifying unit; and a control unit connected with the first rectifying unit and the second rectifying unit respectively and configured to control the first charging branch and the second charging branch to charge the battery.
Abstract:
The present invention provides an apparatus and method for controlling an accelerator for electric vehicles. The method comprises steps of: acquiring an actual accelerator pedal depth value and a current vehicle speed; determining a maximum output torque of motor under the current vehicle speed based on the current vehicle speed; and controlling the output torque of motor in such a way that the growth rate of the output torque higher than that of the actual accelerator pedal depth value at the beginning and then closed to that of the actual accelerator pedal depth value during the actual accelerator pedal depth value growing. The invention makes the output torque grown rapidly within the shallow range of accelerator pedal depth, while makes the output torque grown closed to that of the accelerator pedal depth within the relative deep range of accelerator pedal depth. Thus during the initial stage of acceleration, the vehicle may rapidly output a bigger torque, with an excellent dynamic response, to improve the driving comfort.
Abstract:
A control method of the electromotor comprises the following steps: setting an alternating axis target current according to the rotor angular velocity of the motor and setting a direct axis target current according to the torque of the motor; detecting and collecting the three-phase currents of the electromotor, simultaneously detecting the degree of the electromotor rotor position; converting the three-phase currents of the electromotor to an alternating axis actual current and a direct axis actual current by Park conversion and Clark conversion according to the degree of the rotor position; setting the difference between the target current and the actual current as the input of the current loop, outputting the required direct axis current and the required alternating axis current by PI regulation; calculating the three phase voltage according to the required direct axis current and the required alternating axis current output by PI regulation and the degree of the electromotor rotor position; obtaining PWM control waveform through three-phase voltage, the said PWM control waveform controlling the conversion from the direct current to the alternating current, and the converted alternating current driving the electromotor.
Abstract:
The present invention provides a motor control system and a vehicle. The motor control system (1) includes a motor drive module (10), a multi-core processing module (20), and a safety logic module (30). The multi-core processing module (20) includes a main function core (21) and a lockstep monitoring core (22). The main function core (21) is configured to obtain sampling data, and when any one of the sampling data, a running status of the main function core (21), a motor control signal, and a running status of a motor is abnormal, the lockstep monitoring core (22) outputs a safety trigger signal; and the safety logic module (30) is configured to output an instruction for prohibiting execution of the motor control signal to the motor drive module (10) when receiving the safety trigger signal.