CN111853087A - Double-input-shaft electromagnetic parallel double clutch - Google Patents

Double-input-shaft electromagnetic parallel double clutch Download PDF

Info

Publication number
CN111853087A
CN111853087A CN202010885425.0A CN202010885425A CN111853087A CN 111853087 A CN111853087 A CN 111853087A CN 202010885425 A CN202010885425 A CN 202010885425A CN 111853087 A CN111853087 A CN 111853087A
Authority
CN
China
Prior art keywords
clutch
driven
shaft
armature
flywheel
Prior art date
Legal status (The legal status is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the status listed.)
Withdrawn
Application number
CN202010885425.0A
Other languages
Chinese (zh)
Inventor
冯家任
田立红
冯海曦
Current Assignee (The listed assignees may be inaccurate. Google has not performed a legal analysis and makes no representation or warranty as to the accuracy of the list.)
BEIJING MINGZHENG WEIYUAN MOTOR TECH Ltd
Original Assignee
BEIJING MINGZHENG WEIYUAN MOTOR TECH Ltd
Priority date (The priority date is an assumption and is not a legal conclusion. Google has not performed a legal analysis and makes no representation as to the accuracy of the date listed.)
Filing date
Publication date
Application filed by BEIJING MINGZHENG WEIYUAN MOTOR TECH Ltd filed Critical BEIJING MINGZHENG WEIYUAN MOTOR TECH Ltd
Priority to CN202010885425.0A priority Critical patent/CN111853087A/en
Publication of CN111853087A publication Critical patent/CN111853087A/en
Withdrawn legal-status Critical Current

Links

Images

Classifications

    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16DCOUPLINGS FOR TRANSMITTING ROTATION; CLUTCHES; BRAKES
    • F16D27/00Magnetically- or electrically- actuated clutches; Control or electric circuits therefor
    • F16D27/12Clutch systems with a plurality of electro-magnetically-actuated clutches
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16DCOUPLINGS FOR TRANSMITTING ROTATION; CLUTCHES; BRAKES
    • F16D27/00Magnetically- or electrically- actuated clutches; Control or electric circuits therefor
    • F16D27/02Magnetically- or electrically- actuated clutches; Control or electric circuits therefor with electromagnets incorporated in the clutch, i.e. with collecting rings
    • F16D27/04Magnetically- or electrically- actuated clutches; Control or electric circuits therefor with electromagnets incorporated in the clutch, i.e. with collecting rings with axially-movable friction surfaces
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16DCOUPLINGS FOR TRANSMITTING ROTATION; CLUTCHES; BRAKES
    • F16D27/00Magnetically- or electrically- actuated clutches; Control or electric circuits therefor
    • F16D27/14Details
    • FMECHANICAL ENGINEERING; LIGHTING; HEATING; WEAPONS; BLASTING
    • F16ENGINEERING ELEMENTS AND UNITS; GENERAL MEASURES FOR PRODUCING AND MAINTAINING EFFECTIVE FUNCTIONING OF MACHINES OR INSTALLATIONS; THERMAL INSULATION IN GENERAL
    • F16DCOUPLINGS FOR TRANSMITTING ROTATION; CLUTCHES; BRAKES
    • F16D27/00Magnetically- or electrically- actuated clutches; Control or electric circuits therefor
    • F16D2027/002Electric or electronic circuits relating to actuation of electromagnetic clutches

Landscapes

  • Engineering & Computer Science (AREA)
  • General Engineering & Computer Science (AREA)
  • Mechanical Engineering (AREA)
  • Physics & Mathematics (AREA)
  • Electromagnetism (AREA)
  • Mechanical Operated Clutches (AREA)

Abstract

The invention discloses a double-input-shaft electromagnetic parallel double clutch which comprises a first driving shaft, a first flywheel, a first armature, a first bearing, a driven shaft, a second driving shaft, a left half part of a second flywheel, a right half part of the second flywheel, a second armature, a bearing support, a second bearing, a first clutch single-sheet driven disc, a first clutch magnetic yoke, a first clutch coil, a first spring, a first pin, a third bearing, a second clutch single-sheet driven disc, a second clutch magnetic yoke, a second clutch coil, a second spring, a second pin and a fourth bearing.

Description

Double-input-shaft electromagnetic parallel double clutch
Technical Field
The invention relates to a double clutch, in particular to an electromagnetic parallel double clutch with double input shafts.
Background
Conventional power plants such as electric motors, internal combustion engines, etc. basically transmit torque and rotational speed to the load side at a single output. Accordingly, the conventional clutch also uses a single output shaft of the power plant as a single input shaft of the single clutch. The single clutch is input by using a single output shaft of the power equipment as a driving shaft, and is separated from or combined with a driven shaft of the load-side equipment. The invention provides a technical scheme of a double-input-shaft single-output-shaft electromagnetic double clutch, and particularly relates to a concentric nested double-input-shaft single-output-shaft electromagnetic double clutch. When the power equipment uses the concentric nested double output shafts as double power output, the double clutch separates or combines the double input shafts of the power equipment with the single driven shaft, can separate or combine any one driving shaft in the double input shafts with the single driven shaft, can simultaneously transmit or stop transmitting the transmission power simultaneously output by the double input shafts to the single driven shaft in a mode of combining or separating with the single driven shaft, and can also perform output conversion in a single outer shaft, a single inner shaft and double shaft power at any time. The invention provides a new technical scheme for selecting a double clutch required in the field of power transmission, particularly provides a novel electromagnetic type double clutch for devices on the load side such as a motor and the like to simultaneously receive and selectively receive various power transmission modes when being used in the fields of electric automobiles, ships, spaceflight, machine tools and the like.
Disclosure of Invention
In order to solve the problem of power transmission of multiple modes of a single driven shaft of equipment with a concentric nested double-output axial load side, such as an electric motor, the invention provides a double-input-shaft electromagnetic parallel double clutch, which adopts the following technical scheme:
a double-input-shaft electromagnetic parallel double clutch comprises a first driving shaft, a first flywheel, a first armature, a first bearing, a driven shaft, a second driving shaft, a left half part of a second flywheel, a right half part of the second flywheel, a second armature, a bearing support, a second bearing, a first clutch single-sheet driven plate, a first clutch magnetic yoke, a first clutch coil, a first spring, a first pin, a third bearing, a second clutch single-sheet driven plate, a second clutch magnetic yoke, a second clutch coil, a second spring, a second pin and a fourth bearing; the first driving shaft and the first flywheel adopt a splicing installation mode, a circle of countersunk head screw I is used for fastening in the radial direction, the outer ring of the first bearing is installed in the first flywheel, the inner ring of the first bearing is installed on the driven shaft, the first armature is fixed on the first flywheel through the screw I, the second driving shaft is in a sleeve shape and is sleeved outside the first driving shaft, the second driving shaft and the left half part of the second flywheel adopt a splicing installation mode, the first armature is fastened in the radial direction through the circle of countersunk head screw II, the left half part of the second flywheel and the right half part of the second flywheel adopt a splicing installation mode, the second flywheel is fastened in the radial direction through the circle of countersunk head screw III, the outer ring of the second bearing is installed on the right half part of the second flywheel, the inner ring of the second bearing is installed on the second bearing support, and the second bearing support is sleeved on the driven shaft, the second armature is fixed on the right half part of the second flywheel through a second screw; the first clutch single-sheet driven disc comprises a first driven plate, a first damper, a first driven disc hub, a first driven disc fastening screw and a first driven disc positioning pin, the first driven plate, the first driven disc hub and the first damper are fixedly connected through the first driven disc fastening screw and the first driven disc positioning pin, the first driven disc hub is mounted on the driven shaft through a spline structure, the first driven plate is clamped between the first armature and the first clutch magnetic yoke, the first clutch coil is embedded in the first clutch magnetic yoke, a circle of blind holes are formed in the end face of the first clutch magnetic yoke, the first spring is placed in the blind holes, then the first pin is placed, the first pin penetrates through the first driven plate of the first clutch driven disc to abut against the first armature, and the first clutch magnetic yoke is mounted on an outer ring of the third bearing, an inner ring of the third bearing is fixed on the driven shaft, an outer ring of the third bearing can axially float relative to the inner ring, a first sliding ring is arranged on an inner ring of a magnetic yoke of the first clutch, and a second sliding ring is arranged in the middle of the driven shaft between the first driven disk hub and the third bearing; the second clutch single-sheet driven disc comprises a second driven plate, a second damper, a second driven disc hub, a second driven disc fastening screw and a second driven disc positioning pin, the second driven plate, the second driven disc hub and the second damper are fixedly connected through the second driven disc fastening screw and the second driven disc positioning pin, the second driven disc hub is mounted on the driven shaft through a spline structure, the second driven plate is clamped between the second armature and a second clutch magnetic yoke, the second clutch coil is embedded in the second clutch magnetic yoke, the second clutch magnetic yoke is provided with a circle of blind holes on one side end face of the second clutch single-sheet driven disc, the second spring is placed in the blind holes, the second pin is placed, and the second pin penetrates through the second driven plate of the second clutch single-sheet driven disc to abut against the second armature, the second clutch magnetic yoke is arranged on an outer ring of the bearing IV, an inner ring of the bearing IV is fixed on the driven shaft, the outer ring of the bearing IV can axially float relative to the inner ring, and a slip ring III is arranged on the outer edge of the second clutch magnetic yoke; when the first clutch coil is electrified, attraction force exists between the first clutch magnetic yoke and the first armature, the first clutch magnetic yoke is attached to the first clutch single-sheet driven disc and the first armature, the first driving shaft transmits power to the first driven plate on the first clutch single-sheet driven disc through the first flywheel and the first armature, the first driven plate and the first driven disc hub transmit power to the driven shaft, the driven shaft obtains power and then transmits the power to load-side equipment, the first spring in the first clutch magnetic yoke is in a squeezed state at the moment, when the first clutch coil is powered off, attraction force does not exist between the first clutch magnetic yoke and the first armature, and the first spring in the first clutch magnetic yoke rebounds from the squeezed state to a normal state, the first clutch yoke is pushed to reset by the elastic force generated by the first spring, and the driven plate of the first clutch single-sheet driven disc does not have extrusion force from two sides generated by the suction force acted by the first clutch yoke and the first armature and does not transmit the power of the first flywheel any more, so that the power of the first driving shaft cannot be transmitted to the driven shaft; when the second clutch coil is powered on, attraction force is formed between the second clutch magnetic yoke and the second armature, so that the second clutch magnetic yoke is attracted with the second clutch single-sheet driven disc and the second armature, the second driving shaft transmits power to the second driven plate on the second clutch single-sheet driven disc through the second flywheel left half part, the second flywheel right half part and the second armature, the second driven plate and the second driven disc hub transmit power to the driven shaft, the driven shaft obtains power and transmits the power to load side equipment, at the moment, the second spring in the second clutch magnetic yoke is in a squeezed state, when the second clutch coil is powered off, attraction force does not exist between the second clutch magnetic yoke and the second armature, and the first spring in the second clutch magnetic yoke rebounds to a normal state from the squeezed state, the second clutch magnetic yoke is pushed to reset by elastic force generated by the second spring, the second driven plate of the second clutch single-sheet driven disc does not have extrusion force from two sides generated by attraction force acted by the second clutch magnetic yoke and the second armature, the power of the left half part of the second flywheel and the power of the right half part of the second flywheel are not transmitted any more, and the power of the second driving shaft cannot be transmitted to the driven shaft.
The driven shaft obtains the power of the first driving shaft when the first clutch coil is electrified and the second clutch coil is not electrified; the first clutch coil is not electrified, and when the second clutch coil is electrified, the driven shaft obtains the power of the second driving shaft; when the first clutch coil is electrified and the second clutch coil is also electrified, the driven shaft simultaneously obtains the power of the first driving shaft and the second driving shaft; when the first clutch coil is not energized and the second clutch coil is not energized, the driven shaft does not receive any power.
The driven shaft center has the through-hole to provide the passageway for the circuit.
Drawings
In order to more clearly illustrate the technical solutions in the embodiments of the present invention, the drawings needed to be used in the description of the embodiments will be briefly introduced below, and it is obvious that the drawings in the following description are only some embodiments of the present invention, and it is obvious for those skilled in the art to obtain other drawings based on these drawings without creative efforts.
Fig. 1 is a cross-sectional view of a dual-input-shaft electromagnetic parallel dual clutch provided by an embodiment of the invention
In the drawings, the reference numerals represent the following list of components:
11 a first drive shaft, 12 a first flywheel, 13 a first armature, 14 a bearing I, 15 a driven shaft, 16 a second drive shaft, 17 a second flywheel left half, 18 a second flywheel right half, 19 a second armature, 20 a bearing support, 21 a bearing II, 22 a first clutch one-piece driven disk, 23 a first clutch yoke, 24 a first clutch coil, 25 a spring I, 26 a pin I, 27 a bearing III, 28 a second clutch driven disk, 29 a second clutch yoke, 30 a second clutch coil, 31 a spring II, 32 a pin II, 33 a bearing IV, 34 a countersunk screw I, 35 a countersunk screw II, 36 a countersunk screw III, 37 a screw I, 38 a screw II, 39 a driven plate I, 40 a damper I, 41 a disc driven hub I, 42 a disc driven plate fastening screw I, 43 a driven plate positioning pin I, 44 a slip ring I, 45 a 46 a driven plate II, 47 a damper II, 48 a disc driven plate hub II, 49 driven disc fastening screws II, 50 driven disc positioning pins II and 51 slip rings III.
Detailed Description
In order to make the objects, technical solutions and advantages of the present invention more apparent, embodiments of the present invention will be described in detail with reference to the accompanying drawings.
As shown in fig. 1, the dual-input-shaft electromagnetic parallel dual clutch provided by the embodiment of the present invention includes a first driving shaft 11, a first flywheel 12, a first armature 13, a first bearing 14, a driven shaft 15, a second driving shaft 16, a second flywheel left half 17, a second flywheel right half 18, a second armature 19, a bearing bracket 20, a second bearing 21, a first clutch single-plate driven plate 22, a first clutch yoke 23, a first clutch coil 24, a first spring 25, a first pin 26, a third bearing 27, a second clutch single-plate driven plate 28, a second clutch yoke 29, a second clutch coil 30, a second spring 31, a second pin 32, and a fourth bearing 33; the first driving shaft 11 and the first flywheel 12 adopt a plug-in mounting mode, a circle of countersunk head screws 34 are used for fastening in the radial direction, the outer ring of a first bearing 14 is mounted in the first flywheel 12, the inner ring of the first bearing 14 is mounted on the driven shaft 15, the first armature 13 is fixed by a first screw 37 on the first flywheel 12, the second driving shaft 16 is in a sleeve shape and is sleeved outside the first driving shaft 11, the second driving shaft 16 and the left half part 17 of the second flywheel adopt a plug-in mounting mode, the first flywheel is fastened by a circle of countersunk head screws 35 in the radial direction, the left half part 17 of the second flywheel and the right half part 18 of the second flywheel adopt a plug-in mounting mode, the first flywheel is fastened by a circle of countersunk head screws 36 in the radial direction, the outer ring of the second bearing 21 is mounted on the second bearing 21 support by the right half part 18 of the second flywheel, and the inner ring of the second bearing 21 is mounted on the second bearing 21 support, the second bearing 21 bracket is sleeved on the driven shaft 15, and the second armature 19 is fixed on the second flywheel right half part 18 by a second screw 38; the first clutch single-plate driven disc 22 comprises a driven plate I39, a damper I40, a driven disc hub I41, a driven disc fastening screw I42 and a driven disc positioning pin I43, the driven plate I39, the driven disc hub I41 and the damper I40 are fixedly connected by the driven disc fastening screw I42 and the driven disc positioning pin I43, the driven disc hub I41 is mounted on the driven shaft 15 through a spline structure, the driven plate I39 is clamped between the first armature 13 and the first clutch yoke 23, the first clutch yoke 23 is embedded with the first clutch coil 24, the end face of the first clutch yoke 23 is provided with a blind hole, the spring I25 is placed in the blind hole, then the pin I26 is placed, the pin I26 penetrates through the driven plate I39 of the first clutch driven disc 22 to abut against the first armature 13, the first clutch yoke 23 is mounted on an outer ring of the bearing III 27, an inner ring of the bearing III 27 is fixed on the driven shaft 15, the outer ring of the bearing III 27 can axially float relative to the inner ring, a first slip ring 44 is mounted on the inner ring of the first clutch yoke 23, and a second slip ring 45 is mounted at the middle position of the driven shaft 15 between the driven disk hub 41 and the bearing III 27; the second clutch single-plate driven disc 28 comprises a second driven plate 46, a second damper 47, a second driven disc hub 48, a second driven disc fastening screw 49 and a second driven disc positioning pin 50, the second driven plate 46, the second driven disc hub 48 and the second damper 47 are connected and fixed by the second driven disc fastening screw 49 and the second driven disc positioning pin 50, the second driven disc hub 48 is mounted on the driven shaft 15 through a spline structure, the second driven plate 46 is clamped between the second armature 19 and the second clutch yoke 29, the second clutch yoke 29 is embedded with the second clutch coil 30, the second clutch yoke 29 is provided with a circle of blind holes on one side end face of the second clutch single-plate driven disc 28, the spring second 31 is placed in the blind holes, then the pin second 32 is placed, the pin second 32 penetrates through the second driven plate 46 of the second clutch single-plate driven disc 28 and is pressed against the second armature 19, the second clutch yoke 29 is arranged on an outer ring of the bearing four 33, an inner ring of the bearing four 33 is fixed on the driven shaft 15, the outer ring of the bearing four 33 can axially shift relative to the inner ring, and a slip ring three 51 is arranged on the outer edge of the second clutch yoke 29; when the first clutch coil 24 is powered on, attraction force exists between the first clutch yoke 23 and the first armature 13, so that the first clutch yoke 23 is attached to the first clutch single-piece driven disc 22 and the first armature 13, the first driving shaft 11 transmits power to the driven plate 39 on the first clutch single-piece driven disc 22 through the first flywheel 12 and the first armature 13, the driven plate 39 and the driven disc hub 41 transmit power to the driven shaft 15, the driven shaft 15 obtains power and transmits the power to a load-side device, at this time, the first spring 25 in the first clutch yoke 23 is in a squeezed state, when the first clutch coil 24 is powered off, no attraction force exists between the first clutch yoke 23 and the first armature 13, the first spring 25 in the first clutch yoke 23 rebounds from the squeezed state to a normal state, the first clutch yoke 23 is pushed to reset by the elastic force generated by the first spring 25, the first driven plate 39 of the first clutch single-plate driven disc 22 does not have two-side extrusion force generated by attraction force acting together between the first clutch yoke 23 and the first armature 13, the power of the first flywheel 12 is not transmitted, and the power of the first driving shaft 11 cannot be transmitted to the driven shaft 15; when the second clutch coil 30 is energized, an attraction force is generated between the second clutch yoke 29 and the second armature 19, so that the second clutch yoke 29 is attracted with the second clutch single-plate driven plate 28 and the second armature 19, the second driving shaft 16 transmits power to the driven plate two 46 on the second clutch single-plate driven plate 28 through the second flywheel left half portion 17, the second flywheel right half portion 18 and the second armature 19, the driven plate two 46 and the driven plate hub 48 transmit power to the driven shaft 15, the driven shaft 15 obtains power and transmits the power to a load-side device, at this time, the spring two 31 in the second clutch yoke 29 is in a compressed state, when the second clutch coil 30 is de-energized, no attraction force is generated between the second clutch yoke 29 and the second armature 19, the first spring 25 in the second clutch yoke 29 rebounds from the pressed state to the normal state, the second spring 31 generates an elastic force to push the second clutch yoke 29 to return, the second driven plate 46 of the second clutch single-plate driven disc 28 does not have pressing forces from two sides generated by the attraction force of the second clutch yoke 29 and the second armature 19, the power of the second left flywheel half 17 and the power of the second right flywheel half 18 are not transmitted, and the power of the second driving shaft 16 cannot be transmitted to the driven shaft 15.
When the first clutch coil 24 is electrified and the second clutch coil 30 is not electrified, the driven shaft 15 obtains the power of the first driving shaft 11; when the first clutch coil 24 is not electrified and the second clutch coil 30 is electrified, the driven shaft 15 obtains the power of the second driving shaft 16; when the first clutch coil 24 is electrified and the second clutch coil 30 is also electrified, the driven shaft 15 simultaneously obtains the power of the first driving shaft 11 and the power of the second driving shaft 16; when the first clutch coil 24 is not energized and the second clutch coil 30 is not energized, the driven shaft 15 does not receive any power.
The driven shaft 15 is provided with a through hole in the center thereof for providing a passage for a line.
The above-mentioned serial numbers of the embodiments of the present invention are merely for description and do not represent the merits of the embodiments.
The above description is only for the purpose of illustrating the preferred embodiments of the present invention and is not to be construed as limiting the invention, and any modifications, equivalents, improvements and the like that fall within the spirit and principle of the present invention are intended to be included therein.

Claims (5)

1. The double-input-shaft electromagnetic parallel double clutch is characterized by comprising a first driving shaft, a first flywheel, a first armature, a first bearing, a driven shaft, a second driving shaft, a left half part of the second flywheel, a right half part of the second flywheel, a second armature, a bearing support, a second bearing, a first clutch single-sheet driven disc, a first clutch magnetic yoke, a first clutch coil, a first spring, a first pin, a third bearing, a second clutch single-sheet driven disc, a second clutch magnetic yoke, a second clutch coil, a second spring, a second pin and a fourth bearing; the first driving shaft and the first flywheel adopt a splicing installation mode, a circle of countersunk head screw I is used for fastening in the radial direction, the outer ring of the first bearing is installed in the first flywheel, the inner ring of the first bearing is installed on the driven shaft, the first armature is fixed on the first flywheel through the screw I, the second driving shaft is in a sleeve shape and is sleeved outside the first driving shaft, the second driving shaft and the left half part of the second flywheel adopt a splicing installation mode, the first armature is fastened in the radial direction through the circle of countersunk head screw II, the left half part of the second flywheel and the right half part of the second flywheel adopt a splicing installation mode, the second flywheel is fastened in the radial direction through the circle of countersunk head screw III, the outer ring of the second bearing is installed on the right half part of the second flywheel, the inner ring of the second bearing is installed on the second bearing support, and the second bearing support is sleeved on the driven shaft, the second armature is fixed on the right half part of the second flywheel through a second screw; the first clutch single-sheet driven disc comprises a first driven plate, a first damper, a first driven disc hub, a first driven disc fastening screw and a first driven disc positioning pin, the first driven plate, the first driven disc hub and the first damper are fixedly connected through the first driven disc fastening screw and the first driven disc positioning pin, the first driven disc hub is mounted on the driven shaft through a spline structure, the first driven plate is clamped between the first armature and the first clutch magnetic yoke, the first clutch coil is embedded in the first clutch magnetic yoke, a circle of blind holes are formed in the end face of the first clutch magnetic yoke, the first spring is placed in the blind holes, then the first pin is placed, the first pin penetrates through the first driven plate of the first clutch driven disc to abut against the first armature, and the first clutch magnetic yoke is mounted on an outer ring of the third bearing, an inner ring of the third bearing is fixed on the driven shaft, an outer ring of the third bearing can axially float relative to the inner ring, a first sliding ring is arranged on an inner ring of a magnetic yoke of the first clutch, and a second sliding ring is arranged in the middle of the driven shaft between the first driven disk hub and the third bearing; the second clutch single-sheet driven disc comprises a second driven plate, a second damper, a second driven disc hub, a second driven disc fastening screw and a second driven disc positioning pin, the second driven plate, the second driven disc hub and the second damper are fixedly connected through the second driven disc fastening screw and the second driven disc positioning pin, the second driven disc hub is mounted on the driven shaft through a spline structure, the second driven plate is clamped between the second armature and a second clutch magnetic yoke, the second clutch coil is embedded in the second clutch magnetic yoke, the second clutch magnetic yoke is provided with a circle of blind holes on one side end face of the second clutch single-sheet driven disc, the second spring is placed in the blind holes, the second pin is placed, and the second pin penetrates through the second driven plate of the second clutch single-sheet driven disc to abut against the second armature, the second clutch magnetic yoke is arranged on an outer ring of the bearing IV, an inner ring of the bearing IV is fixed on the driven shaft, the outer ring of the bearing IV can axially float relative to the inner ring, and a slip ring III is arranged on the outer edge of the second clutch magnetic yoke; when the first clutch coil is electrified, attraction force exists between the first clutch magnetic yoke and the first armature, the first clutch magnetic yoke is attached to the first clutch single-sheet driven disc and the first armature, the first driving shaft transmits power to the first driven plate on the first clutch single-sheet driven disc through the first flywheel and the first armature, the first driven plate and the first driven disc hub transmit power to the driven shaft, the driven shaft obtains power and then transmits the power to load-side equipment, the first spring in the first clutch magnetic yoke is in a squeezed state at the moment, when the first clutch coil is powered off, attraction force does not exist between the first clutch magnetic yoke and the first armature, and the first spring in the first clutch magnetic yoke rebounds from the squeezed state to a normal state, the first clutch yoke is pushed to reset by the elastic force generated by the first spring, and the driven plate of the first clutch single-sheet driven disc does not have extrusion force from two sides generated by the suction force acted by the first clutch yoke and the first armature and does not transmit the power of the first flywheel any more, so that the power of the first driving shaft cannot be transmitted to the driven shaft; when the second clutch coil is powered on, attraction force is formed between the second clutch magnetic yoke and the second armature, so that the second clutch magnetic yoke is attracted with the second clutch single-sheet driven disc and the second armature, the second driving shaft transmits power to the second driven plate on the second clutch single-sheet driven disc through the second flywheel left half part, the second flywheel right half part and the second armature, the second driven plate and the second driven disc hub transmit power to the driven shaft, the driven shaft obtains power and transmits the power to load side equipment, at the moment, the second spring in the second clutch magnetic yoke is in a squeezed state, when the second clutch coil is powered off, attraction force does not exist between the second clutch magnetic yoke and the second armature, and the first spring in the second clutch magnetic yoke rebounds to a normal state from the squeezed state, the second clutch magnetic yoke is pushed to reset by elastic force generated by the second spring, the second driven plate of the second clutch single-sheet driven disc does not have extrusion force from two sides generated by attraction force acted by the second clutch magnetic yoke and the second armature, the power of the left half part of the second flywheel and the power of the right half part of the second flywheel are not transmitted any more, and the power of the second driving shaft cannot be transmitted to the driven shaft.
2. The dual-input-shaft electromagnetic parallel double clutch according to claim 1, wherein when the first clutch coil is energized and the second clutch coil is not energized, the driven shaft obtains power from the first driving shaft; the first clutch coil is not electrified, and when the second clutch coil is electrified, the driven shaft obtains the power of the second driving shaft; when the first clutch coil is electrified and the second clutch coil is also electrified, the driven shaft simultaneously obtains the power of the first driving shaft and the second driving shaft; when the first clutch coil is not energized and the second clutch coil is not energized, the driven shaft does not receive any power.
3. The dual-input-shaft electromagnetic parallel dual clutch as claimed in claim 1, wherein the driven shaft has a through hole in the center thereof for providing a passage for a line.
4. A dual input shaft electromagnetic twin clutch in parallel as claimed in claim 1 wherein the first clutch single plate driven discs can be replaced by two or more plate driven discs.
5. A dual input shaft electromagnetic twin clutch in parallel as claimed in claim 1 wherein the second clutch single plate driven discs can be replaced by two or more plate driven discs.
CN202010885425.0A 2020-08-28 2020-08-28 Double-input-shaft electromagnetic parallel double clutch Withdrawn CN111853087A (en)

Priority Applications (1)

Application Number Priority Date Filing Date Title
CN202010885425.0A CN111853087A (en) 2020-08-28 2020-08-28 Double-input-shaft electromagnetic parallel double clutch

Applications Claiming Priority (1)

Application Number Priority Date Filing Date Title
CN202010885425.0A CN111853087A (en) 2020-08-28 2020-08-28 Double-input-shaft electromagnetic parallel double clutch

Publications (1)

Publication Number Publication Date
CN111853087A true CN111853087A (en) 2020-10-30

Family

ID=72968431

Family Applications (1)

Application Number Title Priority Date Filing Date
CN202010885425.0A Withdrawn CN111853087A (en) 2020-08-28 2020-08-28 Double-input-shaft electromagnetic parallel double clutch

Country Status (1)

Country Link
CN (1) CN111853087A (en)

Similar Documents

Publication Publication Date Title
EP1893883B1 (en) Rotational electromagnetic coupling device
CN107923446B (en) Clutch device for hybrid drive train
EP1893880B1 (en) Rotational coupling device
US10914347B2 (en) Clutch system
EP1893884B1 (en) Rotational electromagnetic coupling device
CN101836003A (en) Power transmitter
CN211117250U (en) Two-stage clutch device
EP2350484A1 (en) Dual electromagnetic clutch assembly
CN109882523B (en) Two-gear output electromagnetic clutch and control method thereof
CN212297336U (en) Double-input-shaft electromagnetic parallel type double clutch
CN212337954U (en) Double-input-shaft electromagnetic parallel double clutch
CN111853086A (en) Double-input-shaft and single-output-shaft electromagnetic type double clutch
CN102384194A (en) Electromagnetic clutch with brake
US6415901B1 (en) Hydraulic-applied magnetic-released torque transmitter
CN111853087A (en) Double-input-shaft electromagnetic parallel double clutch
CN212318584U (en) Double-input-shaft and single-output-shaft electromagnetic type double clutch
CN111853085B (en) Double-input-shaft electromagnetic parallel double clutch
CN212337955U (en) Electromechanical parallel double clutch with double input shafts
CN212479953U (en) Double-input shaft membrane spring parallel type double clutch
CN212318585U (en) Double-input-shaft electromechanical parallel double clutch
CN111853089A (en) Electromechanical parallel double clutch with double input shafts
CN212318586U (en) Dual-input-shaft single-output-shaft electromechanical double clutch
JP2024500891A (en) Variable speed power transmission clutch system with multiple output structure
CN201763861U (en) Electromagnetic clutch with brake
US20070209896A1 (en) Rotational coupling device

Legal Events

Date Code Title Description
PB01 Publication
PB01 Publication
SE01 Entry into force of request for substantive examination
SE01 Entry into force of request for substantive examination
WW01 Invention patent application withdrawn after publication
WW01 Invention patent application withdrawn after publication

Application publication date: 20201030