Abstract:
A method for starting an engine of a hybrid vehicle is provided. The method includes: detecting a speed of the hybrid vehicle when receiving an instruction to start the engine; and outputting an inertia torque generated by a transmission of the hybrid vehicle to a crankshaft of the engine to start the engine when the speed is larger than or equal to a predetermined speed. Further, a system for starting an engine of a hybrid vehicle and a hybrid vehicle including the system are provided.
Abstract:
A hybrid electric vehicle, a drive control method and a drive control device of the hybrid electric vehicle are provided. The method includes: obtaining a current gear position of the hybrid electric vehicle and a current electric charge level of a power battery; determining whether the hybrid electric vehicle is within a speed start-stop interval according to the current gear position of the hybrid electric vehicle and the current electric charge level of the power battery; obtaining a slope of a road on which the hybrid electric vehicle is driving and a current speed of the hybrid electric vehicle, if the hybrid electric vehicle is within the speed start-stop interval; and controlling a working state of an engine and/or a motor of the hybrid electric vehicle according to the slope of the road on which the hybrid electric vehicle is driving and the current speed of the hybrid electric vehicle.
Abstract:
A hybrid vehicle, an air conditioning system and a method for controlling the air conditioning system are provided. The air conditioning system includes: an electric compressor (1); a mechanical compressor (2), connected with the electric compressor (1) in parallel; a power battery (3), connected with the electric compressor (1) and configured to supply power to the electric compressor (1); an engine (4), connected with the mechanical compressor (2) and configured to supply a power source to the mechanical compressor (2); an engine controller (5), connected with the engine (4) and configured to start the engine (4) when the mechanical compressor (2) is to be started; a battery manager (6), connected with the power battery (3) and configured to detect a state of charge of the power battery (3); and a controller (7), connected with the engine controller (5) and the battery manager (6) and configured to start the electric compressor (1) and the mechanical compressor (2) at different time according to the state of charge of the power battery (3). The air conditioning system can provide the passengers a comfortable and energy-saving ride environment.
Abstract:
A hybrid electric vehicle, a drive control method and a drive control device of a hybrid electric vehicle are provided. The drive control method includes: obtaining a current gear position of the hybrid electric vehicle and a current electric charge level of a power battery; obtaining a slope of a road on which the hybrid electric vehicle is driving, if the current gear position of the hybrid electric vehicle and the current electric charge level of the power battery meet a preset requirement; and controlling an engine and/or a motor of the hybrid electric vehicle to operate according to the slope of the road on which the hybrid electric vehicle is driving.
Abstract:
The present disclosure provides a hybrid electric vehicle, a drive control method and a drive control device of a hybrid electric vehicle. The drive control method includes: obtaining a current gear position of the hybrid electric vehicle and a current electric charge level of a power battery; obtaining a slope of a road on which the hybrid electric vehicle is driving, if the current gear position of the hybrid electric vehicle and the current electric charge level of the power battery meet a preset requirement; and causing a working state of an engine and/or a motor of the hybrid electric vehicle according to the slope of the road on which the hybrid electric vehicle is driving.
Abstract:
An engine compartment of a hybrid power automobile, comprising an engine compartment metal plate (11) and a front subframe (12); the engine compartment is provided with an engine (20), an electric motor (30), an electric motor controller (31), a transmission (40), and a support assembly (5) therein; the electric motor (30) and the engine (20) are respectively connected to the transmission (40); the engine (20) is disposed at the right hand side of the engine compartment; the transmission (40) is disposed at the left side of the engine compartment; the electric motor (30) is disposed at the left side of the engine compartment and is located above the transmission (40); and the electric motor controller (31) is disposed above the transmission (40) and is located in front of the electric motor (30). Also disclosed is a hybrid power automobile comprising the engine compartment. The engine compartment of the hybrid power automobile improves space utilization of the engine compartment, with each component being stably arranged in the engine compartment, thus ensuring uniform mass distribution of the engine compartment, and providing a balanced temperature field.
Abstract:
An energy conversion device is provided. The energy conversion device includes a reversible pulse-width modulation (PWM) rectifier (102) and a motor coil (103). The motor coil (103) includes L sets of winding units, and each set of windings is connected with the reversible PWM rectifier (102), where L≥2 and is a positive integer. At least two sets of heating circuits of a to-be-heated device are formed by an external power supply (100), the reversible PWM rectifier (102), and the winding units in the motor coil (103). The energy conversion device controls the reversible PWM rectifier (102) according to a control signal, so that a current outputted from the external power supply (100) flows through at least two sets of winding units in the motor coil (103) to generate heat, and a vector sum of resultant current vectors of the at least two sets of the winding units on a quadrature axis of a synchronous rotating reference frame based on rotor field orientation of the motor is zero.
Abstract:
The disclosure relates to the field of electronic technologies, and provides a motor and an energy conversion device therefor. The motor includes a motor coil. The motor coil includes x sets of windings. A number of phases of the x sets of windings is m x . In each of the x sets of windings, each phase winding includes n x coil branches. A first end of each of the n x coil branches of each phase winding is connected with a first end of a coil branch separated from the coil branch by an electrical angle of 360 degrees, to form m x phase endpoints. A second end of each of the n x coil branches of each phase winding is further connected with a second end of a coil branch separated from the coil branch by an electrical angle of P ∗ (360 ∗ k 1 + 360/m x ) degrees to form n x neutral points, n x ≥ m x ≥ 2, n x ≥ 3, p = ± 1, 1 ≤ k 1 ≤ ( n x -1), and m x n x , and k 1 are all integers.
Abstract:
A method for starting an engine of a hybrid vehicle is provided. The method includes: detecting a speed of the hybrid vehicle when receiving an instruction to start the engine; and outputting an inertia torque generated by a transmission of the hybrid vehicle to a crankshaft of the engine to start the engine when the speed is larger than or equal to a predetermined speed. Further, a system for starting an engine of a hybrid vehicle and a hybrid vehicle including the system are provided.
Abstract:
An energy conversion apparatus includes: a first switch module (10); a motor inverter (20), having a first bus terminal connected with a first end of a battery (70) and a second bus terminal connected with a second end of the battery, where the first switch module (10) controls the connection and disconnection between the first bus terminal and the first end of the battery (70); or the first switch module (10) controls the connection and disconnection between the second bus terminal and the second end of the battery; or the first switch module (10) controls the connection and disconnection between the first bus terminal and the first end of the battery (70) and the connection and disconnection between the second bus terminal and the second end of the battery; a motor winding (30), having a first end connected with a midpoint end of the motor inverter (20); and a second switch module (40) and a first capacitor (50) connected in series. A first end of the serial-connected second switch module (40) and the first capacitor (50) is connected with a second end of the motor winding (30). A second end of the serial-connected second switch module and the first capacitor is connected with the second bus terminal.