Abstract:
A transmission unit includes: input shafts; output shafts configured to transmit with a corresponding input shaft via gears; a reverse output gear fitted over one output shaft; a reverse synchronizer; a reverse shaft configured to rotate together with a input shaft and a reverse output gear; a motor power shaft; a first and a second motor gears fitted over the motor power shaft; the second motor gear configured to rotate together with a shift driven gear; and a motor synchronizer. A power transmission system including the transmission unit and a vehicle including the power transmission system are also provided.
Abstract:
An operation mechanism for a double-action clutch assembly is provided. The double-action clutch assembly comprises a first clutch (1) having a first clutch bearing(l l), and a second clutch (2) having a second bearing (21). The operation mechanism comprises: a supporting member (33); a first operation member (31) adapted to rotatably couple with the supporting member (33) and to act onto the first clutch bearing (11); and a second operation member (32) adapted to rotatably couple with the supporting member (33) and to act onto the second clutch bearing (21). The second operation member (32) is always spaced a predetermined distance from the first operation member (31) in an operation direction.
Abstract:
Disclosed is an oil pump comprising a housing (1), a mounting passage (114), a piston (116) and an elastic member (115). The mounting passage (114) may be formed in the housing (1) defining a first end communicated with a high pressure oil chamber (112) and a sealed second end. The mounting passage (114) may be formed with at least one oil release port (119) and at least one pressure relief port (117) adjacent to the second end for communicating with a low pressure oil chamber (113). The piston (116) may be slidable along the mounting passage (114), and the elastic member (115) may elastically press against the pistion to close the first end. Further, an engine comprising the oil pump and a vehicle comprising the engine are also provided.
Abstract:
A multistage shock absorbing device (100) and a clutch device are disclosed. The multistage shock absorbing device (100) comprises a clutch hub (5), a first clamp disc (1), a second clamp disc (3) and elastic members (8). The clutch hub (5) have at least three hub openings (6) spaced apart in a circumferential direction thereof with circumferential lengths of the hub openings being decreased in turn. The first and second clamp discs (1, 3) are provided at opposite sides of the clutch hub (5) respectively and detachably connected with each other. The hub openings (6) is not less than circumferential lengths of the first and second spring windows (1, 3). The multistage shock absorbing device (100) and the clutch device have a good effect of reducing resonance.
Abstract:
The present invention discloses a locking device, a power assembly, a power transmission system and a vehicle. The locking device includes: a first flange and a second flange; and first and second flange locking structures, the first and second flange locking structures each being used for selectively locking the first flange and the second flange to be adapted to rotate the second flange synchronously with the first flange or adapted to rotate the first flange synchronously with the second flange; wherein the first and second flange locking structures each include: a synchronizing ring, the synchronizing ring being normally connected to the corresponding flange to be adapted to rotate synchronously with the corresponding flange, and the synchronizing ring being slidable relative to the corresponding flange; and a driving component, the driving component selectively pushing the synchronizing ring to slide from an unlocked position to a locked position in an axial direction of the corresponding flange, wherein when the synchronizing ring is in the locked position, the two synchronizing rings are connected to be adapted to rotate the other flange synchronously with the flange corresponding to the synchronizing ring. The locking device according to embodiments of the present invention can realize the two-way locking function, and is simple in structure.
Abstract:
A transmission unit includes: input shafts; output shafts configured to transmit with a corresponding input shaft via gears; a reverse output gear fitted over one output shaft; a reverse synchronizer; a reverse shaft configured to rotate together with a input shaft and a reverse output gear; a motor power shaft; a first and a second motor gears fitted over the motor power shaft; the second motor gear configured to rotate together with a shift driven gear; and a motor synchronizer. A power transmission system including the transmission unit and a vehicle including the power transmission system are also provided.
Abstract:
An operation mechanism for a double-action clutch assembly is provided. The double-action clutch assembly comprises a first clutch (1) having a first clutch bearing(l l), and a second clutch (2) having a second bearing (21). The operation mechanism comprises: a supporting member (33); a first operation member (31) adapted to rotatably couple with the supporting member (33) and to act onto the first clutch bearing (11); and a second operation member (32) adapted to rotatably couple with the supporting member (33) and to act onto the second clutch bearing (21). The second operation member (32) is always spaced a predetermined distance from the first operation member (31) in an operation direction.
Abstract:
The present invention discloses a locking device, a power assembly, a power transmission system and a vehicle. The locking device includes: a first flange, the first flange being adapted to be fixed on the first shaft; a second flange, the second flange being adapted to be fixed on the second shaft; a synchronizing ring, the synchronizing ring being normally connected to the first flange to be adapted to rotate synchronously with the first flange, and the synchronizing ring being slidable relative to the first flange; and a driving component, the driving component selectively pushing the synchronizing ring to slide from an unlocked position to a locked position in an axial direction of the first flange. When the synchronizing ring is in the locked position, the synchronizing ring is connected to the second flange be adapted to rotate the second flange synchronously with the first flange. When the synchronizing ring is in the unlocked position, the synchronizing ring is separated from the second flange. The locking device according to embodiments of the present invention can realize the single-way locking function, and is simple in structure.
Abstract:
The present disclosure provides a power drive system and a vehicle. The power drive system includes an engine; a plurality of input shafts, the engine being arranged to selectively engage with at least one of the plurality of input shafts, and a plurality of gear driving gears being arranged on each of the input shafts; a plurality of output shafts, a plurality of gear driven gears being arranged on each of the output shafts, the plurality of gear driven gears being correspondingly meshed with the plurality of gear driving gears, a reverse gear output gear being idly mounted on one of the plurality of output shafts and a reverse gear synchronizer for engaging with the reverse gear output gear being further arranged on the output shaft, a gear portion being arranged at one side of one of the plurality of gear driven gears to form a dual gear, and the reverse gear output gear being meshed with the gear portion; a motor power shaft, a motor-power-shaft first gear and a motor-power-shaft second gear being idly mounted on the motor power shaft, where the motor-power-shaft second gear is arranged to be linked with one of the plurality of gear driving gears; and a first motor generator, the first motor generator being arranged to be linked with the motor power shaft.
Abstract:
The present disclosure discloses a power drive system and a vehicle. The power drive system has seven forward gears, and includes: an engine configured to selectively engage at least one of a plurality of input shafts; a plurality of output shafts, the input shafts and the output shafts being driven by gear pairs, and a reverse output gear and a reverse-gear synchronizer being arranged on one of the output shafts; a reverse shaft, the reverse shaft linking with one of the input shafts and the reverse output gear; a motor power shaft, a motor-power-shaft first gear, a motor-power-shaft second gear and a motor power shaft synchronizer located therebetween being idly mounted on the motor power shaft, and the motor-power-shaft second gear linking with one of gear driven gears; and a first motor generator, the first motor generator linking with the motor power shaft.