Abstract:
A driving system of an electric vehicle and an electric vehicle comprising the same are provided. The driving system comprises: a driving motor (1), a transmission (40) and a hydraulic system (50). The transmission (40) may include an input shaft (2), an output shaft (9), a first transmission unit (B1), a first clutch (6), a second transmission unit (B2) and a second clutch (3).
Abstract:
A drive system of an electric vehicle includes a drive motor, a transmission and a hydraulic system. The transmission has an input shaft, a countershaft, an output shaft, a first transmission unit placed between the countershaft and the output shaft, a first clutch, a second transmission unit placed between the countershaft and the input shaft, and a second clutch. The drive motor is attached to the input shaft, which is attached to the countershaft to provide power of the drive motor to the countershaft; the first clutch is configured for linking or cutting off the power transmission between the countershaft and the first transmission unit; and the second clutch is configured for linking or cutting off the power transmission between the countershaft and the second transmission unit. The first transmission unit has a first transmission ratio greater than a second transmission ratio of the second transmission unit.
Abstract:
A driving system of an electric vehicle and an electric vehicle comprising the same are provided. The driving system comprises: a driving motor (1), a transmission (40) and a hydraulic system (50). The transmission (40) may include an input shaft (2), an output shaft (9), a first transmission unit (B1), a first clutch (6), a second transmission unit (B2) and a second clutch (3).
Abstract:
A drive system of an electric vehicle includes a drive motor, a transmission and a hydraulic system. The transmission has an input shaft, a countershaft, an output shaft, a first transmission unit placed between the countershaft and the output shaft, a first clutch, a second transmission unit placed between the countershaft and the input shaft, and a second clutch. The drive motor is attached to the input shaft, which is attached to the countershaft to provide power of the drive motor to the countershaft; the first clutch is configured for linking or cutting off the power transmission between the countershaft and the first transmission unit; and the second clutch is configured for linking or cutting off the power transmission between the countershaft and the second transmission unit. The first transmission unit has a first transmission ratio greater than a second transmission ratio of the second transmission unit.
Abstract:
A hybrid power drive system comprises an engine (10), a first motor (30), a first clutch(20) operatively coupled between the engine (10) and the first motor (30); a first decelerating mechanism (50) which has an input portion and an output portion,wherein the input portion operatively couples between the first clutch (20) and the first motor (30) and configures to receive rotational power from the first motor (30) and /or the engine (10), and the output portion operatively drives at least one first wheel (30); a second motor (70) operatively coupled to at least one second wheel (90) via a second decelerating mechanism (80); and an energy storage device (100) electrically coupled to the first motor (30) and the second motor (70) respectively, for storing or supplying energy to the first motor (30) and second motor (70) respectively. A plurality of operating modes is provided to meet energy efficiency requirements.
Abstract:
A tri-state overrunning clutch is provided, which comprises an outer race (1), an inner race (2), a plurality of wedges (3) arranged between the outer race (1) and the inner race (2), wherein each wedge (3) has a first end (31) and a second end (32) that are opposite to each other and contact with the corresponding working faces of the outer race (1) and the inner race (2), and a retainer (4) arranged between the outer race (1) and the inner race (2) for retaining the wedges (3). The wedges (3) can rotate between the outer race (1) and the inner race (2) such that the second end (32) may leave from its corresponding working face, and thus the disengaged state of the tri-state overrunning clutch is obtained.
Abstract:
A vehicle drive device comprises a main shaft (1), a countershaft (2), a differential device (3) and a parking mechanism. The main shaft (1) has a driving gear (101) and it is suitable for the connection to the motor of the vehicle, the countershaft (2) has a driven gear (102) and a driving gear (104), the countershaft driven gear (102) is engaged with the main shaft driving gear (101), the differential device (3) has a driven gear (103) and a half axle gear, the driven gear (103) of the differential device (3) is engaged with the driving gear (104) of the countershaft (2), and the half axle gear of the differential device (3) is suitable for driving vehicle wheels, the parking mechanism is connected with the countershaft (2) to lock the countershaft (2) in parking mode. The structure of the vehicle drive device is simple and easy to control, thus satisfying parking demand of a normal vehicle. Meanwhile, a vehicle comprising the drive device as described hereinabove is also provided.
Abstract:
A hybrid vehicle has a power system (102) with a torsional coupling (206). The power system (102) includes a battery system (110) for receiving, storing and providing electrical power, an internal combustion engine (104) configured to provide rotational power through a flywheel (1804), a first motor-generator (106), a second motor-generator (108), a control system (202), and a torsional coupling (206). The torsional coupling (206) may absorb rotational shock caused by angular or rotational speed differences between the engine (104) and the first motor-generator (106). The torsional coupling (206) includes a driven plate assembly (1806), a cover assembly (1808) and an interconnecting plate assembly (1810). The interconnecting plate assembly (1810) may include a plurality of shock absorbing elements (1910) that absorb shock and vibration between the engine (104) and the motor-generator (106; 108).
Abstract:
A gearshift power compensator, comprising: a power supply unit, an electronic control unit, and a motor; wherein, said power supply unit supplies electric power to said motor via said electronic control unit; said motor receives the electric power supplied from said power supply unit and provides compensating power to a driven unit; said electronic control unit is designed to judge the actions of the clutch which connects a drive unit with said driven unit, when the clutch is switched from engaged state to disengaged state, said electronic control unit controls said power supply unit to supply electric power to said motor; when said clutch is switched from disengaged state to engaged state, said electronic control unit controls said power supply unit to stop supplying electric power to said motor. For automobile gear shifting, the power compensator provided in the present invention can essentially prevent impact during the gearshift process and improve comfort of driving.