CN213741423U - Drain valve and switch assembly thereof - Google Patents
Drain valve and switch assembly thereof Download PDFInfo
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- CN213741423U CN213741423U CN202022510515.XU CN202022510515U CN213741423U CN 213741423 U CN213741423 U CN 213741423U CN 202022510515 U CN202022510515 U CN 202022510515U CN 213741423 U CN213741423 U CN 213741423U
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Abstract
The utility model discloses a drain valve and switch module thereof, switch module includes: the knob body is provided with a hollow inner cavity; the knob is rotatably arranged on the knob body; the ejector rod is movably arranged on the knob body back and forth; the transmission mechanism is arranged in the hollow inner cavity, and the knob is linked with the ejector rod through the transmission mechanism so as to control the ejector rod to extend outwards relative to the knob body. The utility model discloses a knob control switch subassembly has filled the technique blank that does not have the rotation mode to open switch subassembly among the prior art, and operation mode is novel, can satisfy some users' diversified demand.
Description
Technical Field
The utility model relates to a bathroom technical field specifically is a switch module that relates to a drain valve and have this switch module's drain valve.
Background
The switch assembly of the drain valve for the existing toilet water tank adopts a manual switch and an electric control switch, wherein the manual switch mostly adopts a key or a wrench, and when the key is adopted, a full-discharge key and a half-discharge key are usually arranged to control different water discharge. The electric control switch adopts an induction type or a touch type.
SUMMERY OF THE UTILITY MODEL
One of the purposes of the utility model is to provide a switch module of drain valve that operation mode is different, it adopts the knob structure, through rotatory operation switch module to reach the purpose of opening to the drain valve.
The second purpose of the utility model is to provide a drain valve with a switch component with different operation modes.
In order to achieve the above object, according to the present invention, the technical solution of the present invention is:
a switch assembly for a water drain valve comprising:
the knob body is provided with a hollow inner cavity;
the knob rotates to be arranged on the knob body:
the ejector rod is movably arranged on the knob body back and forth;
the transmission mechanism is arranged in the hollow inner cavity, and the knob is linked with the ejector rod through the transmission mechanism so as to control the ejector rod to extend outwards relative to the knob body.
Preferably, the ejector rod is arranged on the knob body in a reciprocating sliding manner; still include an elasticity piece that resets, knob, drive mechanism and the ejector pin is in elasticity resets the effect of piece and resets automatically.
Preferably, the elastic reset piece is arranged between the knob body and the ejector rod; and/or the elastic reset piece is arranged between the knob body and the knob; and/or the elastic reset piece is arranged between the knob body and the transmission mechanism; and/or the elastic resetting piece is arranged in the transmission mechanism.
Preferably, the transmission mechanism comprises any one or a combination of a plurality of gear transmission mechanisms, cam transmission mechanisms and belt transmission mechanisms.
Preferably, the transmission mechanism comprises a bevel gear transmission pair, a transmission shaft rotatably arranged on the knob body and a transmission wheel arranged on the transmission shaft, the bevel gear transmission pair comprises a first bevel gear arranged at the inner end of the knob and a second bevel gear coaxially arranged on the transmission shaft, the knob is rotated, the transmission shaft is driven to rotate by the bevel gear transmission pair, and the transmission shaft is further linked with the ejector rod to extend outwards relative to the knob body through the transmission wheel.
Preferably, the transmission wheel is a gear, and the transmission mechanism further comprises a rack which is slidably arranged on the knob body and is in linkage fit with the ejector rod; or the transmission wheel is a turbine, and the transmission mechanism further comprises a worm which is movably arranged on the knob body and is in linkage fit with the ejector rod; or the transmission wheel is a cam.
Preferably, the transmission wheel is fixed on the transmission shaft so as to rotate along with the transmission shaft, or the transmission shaft is provided with a butt joint block, the transmission wheel is provided with a matching block, and the transmission shaft drives the transmission wheel to rotate through butt joint between the butt joint block and the matching block.
Preferably, the push rods comprise full-row push rods and half-row push rods, correspondingly, the transmission shafts comprise full-row transmission shafts and half-row transmission shafts which are mutually independently and rotatably arranged on the knob body, the second bevel gears are provided with two full-row transmission shafts and two half-row transmission shafts which are respectively and coaxially arranged on the full-row transmission shafts and the half-row transmission shafts, and the transmission wheels comprise full-row transmission wheels arranged on the full-row transmission shafts and half-row transmission wheels arranged on the half-row transmission shafts; the first helical gear is provided with a half circle of teeth, when the knob rotates forwards, the first helical gear is meshed with a second helical gear on the full-row transmission shaft to drive the full-row transmission shaft to rotate, and the full-row transmission shaft further drives the full-row ejector rods to extend outwards relative to the knob body through the full-row transmission wheels; when the knob rotates reversely, the first helical gear is meshed with the second helical gear on the half-row transmission shaft to drive the half-row transmission shaft to rotate, and the half-row transmission shaft further drives the half-row ejector rods to extend outwards relative to the knob body through the half-row transmission wheels.
Preferably, the ejector rods comprise full rows of ejector rods and half rows of ejector rods, correspondingly, the transmission wheels comprise full rows of transmission wheels and half rows of transmission wheels, the full rows of transmission wheels and the half rows of transmission wheels can be rotatably arranged on the same transmission shaft, full rows of abutting blocks and half rows of abutting blocks are arranged on the transmission shaft, full rows of matching blocks are arranged on the full rows of transmission wheels, half rows of matching blocks are arranged on the half rows of transmission wheels, and when the transmission shaft rotates forwards, the full rows of abutting blocks abut against the full rows of matching blocks so as to drive the full rows of transmission wheels to rotate; when the transmission shaft rotates reversely, the half-row abutting block abuts against the half-row matching block so as to drive the half-row transmission wheel to rotate.
Preferably, when the transmission shaft rotates forwards, the half-row butt joint blocks are separated from the half-row matching blocks, and when the transmission shaft rotates backwards, the full-row butt joint blocks are separated from the full-row matching blocks; the full-row torsion spring and the half-row torsion spring are also included; one end of the full-row torsion spring is connected with the full-row butting block, the other end of the full-row torsion spring is connected with the full-row matching block, so that elastic force in the butting direction is applied to the full-row butting block and the full-row matching block, and the full-row torsion spring is elastically deformed when the full-row butting block is separated from the full-row matching block; half one end of arranging the torsional spring is connected half butt joint piece, and the other end is connected half cooperation piece of arranging, in order to right half butt joint piece and half cooperation piece of arranging exert the elastic force toward the direction of looks butt joint, half butt joint piece of arranging with make during half cooperation piece phase separation half torsional spring elastic deformation of arranging.
Preferably, the full-row ejector rods and the half-row ejector rods are respectively provided with a second limiting part which is in limiting fit with the first limiting part on the knob body;
when the transmission shaft rotates forwards, the second limiting part on the half-row ejector rod is in limiting fit with the first limiting part to limit the half-row ejector rod to slide along the direction opposite to the extending direction of the half-row ejector rod, so that the half-row abutting block is separated from the half-row matching block;
when the transmission shaft reverses, the second limiting part on the full-row ejector rod is matched with the first limiting part in a limiting mode to limit the full-row ejector rod to slide along the direction opposite to the extending direction of the full-row ejector rod, so that the full-row abutting block is separated from the full-row matching block.
Preferably, the ejector rods comprise full-row ejector rods and half-row ejector rods, the knob is rotated in the forward direction and linked with the full-row ejector rods to extend outwards relative to the knob body, the knob is rotated in the reverse direction and linked with the half-row ejector rods to extend outwards relative to the knob body; or when the knob is rotated to a first angle in the first direction, the knob is linked with the full-row ejector rods to extend outwards relative to the knob body, and when the knob is rotated to a second angle in the first direction, the knob is linked with the half-row ejector rods to extend outwards relative to the knob body.
Furthermore, according to another aspect of the present invention, the present invention also provides a drain valve, including a drain valve main body and a switch assembly of the drain valve, wherein the switch assembly drives the drain valve main body to open the drain, and the switch assembly adopts any one of the above-mentioned switch assemblies of the drain valve.
Compared with the prior art, the beneficial effects of the utility model are that:
1. the utility model discloses a knob control switch subassembly has filled the technique blank that does not have the rotation mode to open switch subassembly among the prior art, and operation mode is novel, can satisfy some users' diversified demand.
2. The transmission mechanism comprises a bevel gear transmission pair, a transmission shaft and a transmission wheel, and has the advantages of simple and compact structure, reliable function and ingenious conception.
3. Set up a transmission shaft, be equipped with all-row butt piece and half row butt piece on the transmission shaft, thereby during the transmission shaft corotation, thereby arrange all-row cooperation piece of butt piece butt and drive all-row drive wheel rotation, during the transmission shaft reversal, thereby half row of cooperation piece of half row butt drives half row drive wheel rotation to the realization is to arranging all and half independent control of arranging, owing to set up a transmission shaft, and the structure is simple more compact.
4. Two mutually independent transmission shafts are arranged, the first bevel gear is provided with a half-circle of teeth, and when the knob rotates forwards, the first bevel gear is meshed with the second bevel gear on the full-row transmission shaft to drive the full-row transmission shaft to rotate; when the knob rotates reversely, the first bevel gear is meshed with the second bevel gear on the half-row transmission shaft to drive the half-row transmission shaft to rotate, and the rotary transmission mechanism is simple in structure, ingenious in design and reliable in function.
5. The full-row ejector rods and the half-row ejector rods are respectively provided with a second limiting part in limiting fit with the first limiting part on the knob body, so that when the full-row ejector rods are driven to extend out, the half-row ejector rods cannot retract into the knob body, the half-row abutting blocks are separated from the half-row matching blocks, elastic resetting pieces arranged between the half-row abutting blocks and the half-row matching blocks are elastically deformed, and after applied external force is removed, the whole mechanism can reset under the elastic force action of the elastic resetting pieces; in a similar way, when half row's ejector pin was stretched out by the drive, the ejector pin of arranging entirely can not the retraction knob body, thereby makes arrange all the butt piece with arrange all the cooperation piece phase separation, and then make the setting arrange all the elasticity between butt piece and the cooperation piece of arranging entirely and reset that elastic deformation takes place, after removing the external force of exerting, whole mechanism can reset under the elastic force effect of this elasticity piece that resets.
Drawings
Fig. 1 is a perspective assembly view of a switch assembly according to a first embodiment of the present invention;
fig. 2 is a perspective exploded view of a switch assembly according to a first embodiment of the present invention;
fig. 3 is one of cross-sectional views of a switch assembly according to a first embodiment of the present invention;
fig. 4 is a second cross-sectional view of a switch assembly according to the first embodiment of the present invention;
fig. 5 is one of internal perspective structural views of a switch assembly according to a first embodiment of the present invention;
fig. 6 is a second internal perspective view of the switch assembly according to the first embodiment of the present invention;
fig. 7 is a third internal perspective view of the switch assembly according to the first embodiment of the present invention;
fig. 8 is a fourth internal perspective view of the switch assembly according to the first embodiment of the present invention;
fig. 9 is a state diagram of the switch assembly according to the first embodiment of the present invention in which the full row of push rods are extended;
fig. 10 is a state diagram in which half-row push rods of the switch assembly according to the first embodiment of the present invention are extended;
fig. 11 is a perspective exploded view of a switch assembly according to a second embodiment of the present invention;
fig. 12 is one of internal perspective structural views of a switch assembly according to a second embodiment of the present invention;
fig. 13 is a perspective view of a first bevel gear of a switch assembly according to a second embodiment of the present invention;
fig. 14 is a second internal perspective view (with a portion of the knob body cut away) of the switch assembly according to the second embodiment of the present invention;
fig. 15 is a cross-sectional view of a switch assembly according to a second embodiment of the present invention.
The reference numerals in the figures are explained below:
10. a knob body; 11. an inner cavity; 12. a first limiting part; 13. a full row of sleeves; 14. half row of sleeves;
20. a knob;
30. a top rod; 30a, full row of ejector rods; 30b, half row of ejector rods; 31. a second limiting part;
40. an elastic reset member; 41. a return torsion spring; 42. resetting the pressure spring; 43. a knob return torsion spring;
50. a transmission mechanism; 51. a bevel gear transmission pair; 511. a first helical gear; 512. a second helical gear; 52. a drive shaft; 52a, full-row transmission shafts; 52b, half-row transmission shafts; 521a, full row of abutting blocks; 521b, half-row abutting blocks; 53. a gear rack transmission pair; 531a, full row gears; 532a, full row of racks; 531b, half-row gears; 532b, half rows of racks; 54a, full-row fitting blocks; 54b, half rows of mating blocks.
Detailed Description
In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following description of the present invention is provided with reference to the accompanying drawings, which are only some embodiments of the present invention, and it is obvious for a person skilled in the art to obtain other drawings without creative efforts.
A first embodiment (the transmission wheel is a gear, and the transmission shaft is provided with one):
as shown in fig. 1 to 10, the switch assembly of a drain valve according to a first embodiment of the present invention includes a knob body 10, a knob 20, a push rod 30, an elastic reset member 40, a transmission mechanism 50, and the like. The knob body 10 is provided with a hollow inner cavity 11; the knob 20 is rotatably provided on the knob body 10: the mandril 30 is movably arranged on the knob body 10 back and forth; the transmission mechanism 50 is disposed in the hollow cavity 11, the knob 20 is linked with the push rod 30 through the transmission mechanism 50 to control the push rod 30 to extend outwards relative to the knob body 10, and the push rod 30 extends out to actuate a starting assembly (not shown) of the drain valve to drain water. The structure of the push rod 30 extending out to drive the drain valve to drain water is well known in the art and will not be described in detail herein.
According to the utility model discloses a switch module owing to adopt knob control switch subassembly, has filled the technique blank that does not have the rotation mode to open switch module among the prior art, and operation mode is novel, can satisfy some users' diversified demand.
In this embodiment, the elastic restoring member 40 enables the knob 20, the transmission mechanism 50 and the push rod 30 to be automatically restored after the driving external force is removed. The elastic reset piece 40 can be arranged at various positions, and specifically, the elastic reset piece 40 can be selectively arranged between the knob body 10 and the ejector rod 30; and/or, the elastic reset piece 40 is arranged between the knob body 10 and the knob 20; and/or, the elastic reset piece 40 is arranged between the knob body 10 and the transmission mechanism 50; and/or elastic restoring member 40 is disposed in drive mechanism 50.
The transmission mechanism 50 may be implemented in various manners, and may include any one or a combination of a gear transmission mechanism, a cam transmission mechanism and a belt transmission mechanism.
Specifically, in the present embodiment, the push rod 30 is slidably disposed on the knob body 10, and the transmission mechanism 50 is a gear transmission mechanism, and the gear transmission mechanism includes a bevel gear transmission pair 51, a transmission shaft 52 rotatably disposed on the knob body 10, and a transmission wheel disposed on the transmission shaft. The transmission wheel is a gear, and the transmission mechanism 50 further includes a rack slidably disposed on the knob body 10 and in linkage with the push rod 30, and the gear and the rack form a gear-rack transmission pair 53. The bevel gear transmission pair 51 includes a first bevel gear 511 disposed on the inner end of the knob 20 and a second bevel gear 512 disposed coaxially on the transmission shaft 52. The gear of the gear-rack transmission pair 53 is coaxially arranged on the transmission shaft 52, and the rack of the gear-rack transmission pair 53 is fixedly connected with the mandril 30. When the knob 20 rotates, the bevel gear transmission pair 51 drives the transmission shaft 52 to rotate, and the transmission shaft 52 further drives the push rod 30 to slide outwards and extend out relative to the knob body 10 through the rack-and-pinion transmission pair 53. The present embodiment adopts a manner in which the rack and the jack 30 are integrally formed.
The drive wheel can be fixed on the transmission shaft 52 to rotate along with the transmission shaft 52, or the transmission shaft 52 is provided with a butt joint block, the drive wheel is provided with a matching block, and the transmission shaft 52 drives the drive wheel to rotate through butt joint between the butt joint block and the matching block.
Specifically, the ejector rod 30 includes a full-discharge ejector rod 30a and a half-discharge ejector rod 30b, the full-discharge ejector rod 30a controls the drain valve to perform full-discharge when extending, and the half-discharge ejector rod 30b controls the drain valve to perform half-discharge when extending. Correspondingly, the rack-and-pinion gear pair 53 has two sets, one set includes a full-row gear 531a and a full-row rack 532a, and the other set includes a half-row gear 531b and a half-row rack 532 b. When the knob 20 rotates forwards, the bevel gear transmission pair 51 drives the transmission shaft 52 to rotate forwards, the transmission shaft 52 drives the full-row gear 531a to rotate, and the full-row gear 531a further drives the full-row rack 532a to slide; when the knob 20 rotates reversely, the bevel gear transmission pair 51 drives the transmission shaft 52 to rotate reversely, the transmission shaft 52 drives the half-row gear 531b to rotate, and the half-row gear 531b further drives the half-row rack 532b to slide.
As shown in fig. 2, 3 and 8, in the present embodiment, the elastic restoring member 40 includes a restoring torsion spring 41 and a knob restoring torsion spring 43, and the restoring torsion spring 41 is disposed in the transmission mechanism 50. Specifically, one end of the return torsion spring 41 is connected to the gear, the other end is connected to the transmission shaft 52, and the knob return torsion spring 43 is connected between the knob 20 and the knob body 10. When the elasticity of the reset torsion spring 41 is selected to be enough, the knob reset torsion spring 43 can be omitted, the structure is simpler, and the installation is more convenient. Alternatively, the return torsion spring 41 may be omitted when the spring force of the knob return torsion spring 43 is sufficient.
In this embodiment, the transmission shaft 52 is provided with one, the full-row gear 531a and the half-row gear 531b are rotatably provided on the transmission shaft 52, the first helical gear 511 has a full circle of teeth arranged in the circumferential direction, and the full-row jack 30a and the half-row jack 30b are oppositely arranged. Since only one transmission shaft 52 is provided, in order to prevent the full-row gear 531a and the half-row gear 531b from driving the corresponding push rod 30 to extend out of the knob body 10 when the transmission shaft 52 rotates, the following structure is adopted in the present embodiment: a full-row abutting block 521a and a half-row abutting block 521b are arranged on the transmission shaft 52, a full-row matching block 54a in abutting fit with the full-row abutting block 521a is arranged on the full-row gear 531a, and a half-row matching block 54b in abutting fit with the half-row abutting block 521b is arranged on the half-row gear 531 b; when the transmission shaft 52 rotates forward, the full-row abutting block 521a abuts against the full-row matching block 54a so as to drive the full-row gear 531 a; when the transmission shaft 52 rotates reversely, the half-row abutting block 521b abuts against the half-row matching block 54b to drive the half-row gear 531b, so that the transmission shaft 52 only drives one of the full-row gear 531a and the half-row gear 531b to rotate when rotating in one direction, and only drives the other of the full-row gear 531a and the half-row gear 531b to rotate when rotating in the other direction, the structure is simple, and the function is reliable.
Further preferably, the design is: when the transmission shaft 52 rotates forward, the full-row abutting block 521a abuts against the full-row matching block 54a so as to drive the full-row gear 531a, and the half-row abutting block 521b is separated from the half-row matching block 54 b; when the transmission shaft 52 rotates reversely, the half-row abutting block 521b abuts against the half-row mating block 54b to drive the half-row gear 531b, and the full-row abutting block 521a is separated from the full-row mating block 54 a. The reset torsion spring 41 comprises a full-row torsion spring and a half-row torsion spring, one end of the full-row torsion spring is connected with the full-row abutting block 521a, the other end of the full-row torsion spring is connected with the full-row matching block 54a, so that elastic force in the direction of abutting against the full-row abutting block 521a and the full-row matching block 54a is applied to the full-row abutting block 521a, the full-row torsion spring is elastically deformed when the full-row abutting block 521a is separated from the full-row matching block 54a, and therefore reset elastic force can be provided for resetting the transmission structure 50, and the knob 20 and the ejector rod 30 can be driven to reset together; half row of butt joint piece 521b is connected to half row of torsional spring's one end, and the other end is connected half row of cooperation piece 54b to half row of butt joint piece 521b and half row of cooperation piece 54b apply the elastic force of the direction of butt joint, make half row of torsional spring elastic deformation when half row of butt joint piece 521b and half row of cooperation piece 54b phase separation, thereby can provide the elastic force that resets to transmission structure 50's restoration, and then can drive knob 20 and ejector pin 30 and reset together.
In order to realize that the transmission shaft 52 only drives one of the full-row gear 531a and the half-row gear 531b to rotate when rotating in one direction, and the other one of the full-row gear 531a and the half-row gear 531b is kept stationary, in this embodiment, the full-row ejector rod 30a and the half-row ejector rod 30b are respectively provided with a second limiting part 31 which is in limiting fit with the first limiting part 12 on the knob body 10; when the transmission shaft 52 rotates forward, the second limiting part 31 on the half-row ejector rod 30b is in limiting fit with the first limiting part 12 to limit the half-row ejector rod 30b to slide along the direction opposite to the extending direction of the half-row ejector rod 30b, so that the half-row abutting block 521b is separated from the half-row fitting block 54 b; when the transmission shaft 52 rotates reversely, the second position-limiting portion 31 on the full row of push rods 30a is in position-limiting fit with the first position-limiting portion 12 to limit the full row of push rods 30a to slide along the direction opposite to the extending direction of the full row of push rods 30a, so that the full row of abutting blocks 521a are separated from the full row of fitting blocks 54 a. Specifically, a full-row sleeve 13 and a half-row sleeve 14 are arranged on the knob body 10, a full-row ejector rod 30a is slidably sleeved in the full-row sleeve 13, a half-row ejector rod 30b is slidably sleeved in the half-row sleeve 14, and a first limiting portion 12 is formed at the outer end edges of the full-row sleeve 13 and the half-row sleeve 14. The second stopper 31 is an annular rib provided on the outer peripheral walls of the full row ejector pins 30a and the half row ejector pins 30 b.
In other embodiments, the first position-limiting portion 12 and the second position-limiting portion 31 may not be provided, that is, when the transmission shaft 52 rotates forward, the full-row abutting block 521a abuts against the full-row matching block 54a to drive the full-row gear 531a, and the half-row abutting block 521b and the half-row matching block 54b may keep abutting state and not separate under the action of the half-row torsion spring connecting the two, at this time, the half-row push rod 30b slides along the direction opposite to the extending direction of the half-row push rod 30b under the action of the half-row gear 531b and the half-row rack 532b to retract into the knob body 10; when the transmission shaft 52 rotates reversely, the half-row abutting block 521b abuts against the half-row matching block 54b to drive the half-row gear 531b, the full-row abutting block 521a and the full-row matching block 54a can keep the abutting state without separation under the action of the full-row torsion springs connecting the half-row and the full-row matching blocks, and at the moment, the full-row ejector rod 30a can slide along the direction opposite to the extending direction of the full-row ejector rod 30a under the action of the full-row gear 531a and the full-row rack 532a to retract into the knob body 10. Therefore, when the knob body 10 is designed in this way, one of the full-line push rod 30a and the half-line push rod 30b is extended, and the other is retracted into the knob body 10, the internal space of the knob body 10 needs to be large.
As shown in fig. 9, when the knob 20 is rotated in the forward direction, the knob 20 drives the first bevel gear 511 disposed on the knob 20 to rotate in the forward direction, the first bevel gear 511 is engaged with the second bevel gear 512 disposed on the transmission shaft 52, so as to drive the transmission shaft 52 to rotate in the forward direction, when the transmission shaft 52 rotates in the forward direction, the full-row abutting block 521a abuts against the full-row fitting block 54a, so as to drive the full-row gear 531a to rotate, and because the second limiting part on the half-row top rod 30b is in limiting fit with the first limiting part 12 on the knob body 10, the half-row abutting block 521b is separated from the half-row fitting block 54b, so as to elastically deform the half-row torsion spring; the full-discharge gear 531a rotates to drive the full-discharge rack 532a to slide, and the full-discharge rack 532a further drives the full-discharge push rod 30a, so that the full-discharge push rod 30a extends out relative to the knob body 10, and the full-discharge driving is performed on the drain valve. When the external force applied to the knob 20 is removed, the half-row torsion springs are elastically reset, so that the transmission shaft 52 is reversely reset, the transmission shaft 52 drives the second bevel gear 512 to rotate, the second bevel gear 512 further drives the knob 20 to reset, and meanwhile, the knob 20 is reset under the elastic force of the knob reset torsion spring 43. After the transmission shaft 52 is reset, the full-row gear 531a is also reset under the action of the full-row torsion spring, and further the full-row rack 532a and the full-row push rod 30a are also reset.
As shown in fig. 10, when the knob 20 is rotated reversely, the knob 20 drives the first bevel gear 511 disposed on the knob 20 to rotate reversely, the first bevel gear 511 is engaged with the second bevel gear 512 disposed on the transmission shaft 52, so as to drive the transmission shaft 52 to rotate reversely, when the transmission shaft 52 rotates reversely, the half-row abutting block 521b abuts against the half-row fitting block 54b, so as to drive the half-row gear 531b to rotate, and since the second position-limiting part on the full-row top rod 30a is in position-limiting fit with the first position-limiting part 12 on the knob body 10, the full-row abutting block 521a is separated from the full-row fitting block 54a, the full-row torsion spring is elastically deformed; the half-discharge gear 531b rotates to drive the half-discharge rack 532b to slide, and the half-discharge rack 532b further drives the half-discharge push rod 30b, so that the half-discharge push rod 30b extends out relative to the knob body 10, thereby performing half-discharge driving on the discharge valve. When the external force applied to the knob 20 is removed, the full-row torsion springs are elastically reset, so that the transmission shaft 52 is positively rotated and reset, the transmission shaft 52 drives the second bevel gear 512 to rotate, the second bevel gear 512 further drives the knob 20 to reset, and meanwhile, the knob 20 is reset under the elastic force action of the knob reset torsion spring 43. After the transmission shaft 52 is reset, the half-row gear 531b is also reset by the half-row torsion spring, and the half-row rack 532b and the half-row push rod 30b are also reset.
Second embodiment (the transmission wheel is a gear, and the transmission shaft is provided with two):
as shown in fig. 11 to 15, the switch assembly of the drain valve according to the second embodiment of the present invention is different from the above embodiments in that, in this embodiment, the transmission shaft 52 is provided with two independent transmission shafts, which are respectively a full-row transmission shaft 52a and a half-row transmission shaft 52b, correspondingly, the second bevel gear 512 is provided with two transmission shafts and respectively coaxially disposed on the full-row transmission shaft 52a and the half-row transmission shaft 52b, the first bevel gear 511 has half-circle teeth, the full-row gear 531a is fixed on the full-row transmission shaft 52a, and the half-row gear 531b is fixed on the half-row transmission shaft 52 b: when the knob 20 rotates forward, the first bevel gear 511 is engaged with the second bevel gear 512 on the full-row transmission shaft 52a to drive the full-row transmission shaft 52a to rotate, the full-row transmission shaft 52a further drives the full-row gear 531a to rotate, and the full-row gear 531a drives the full-row ejector rod 30a to extend out relative to the knob body 10 through the full-row rack 532 a; when the knob 20 rotates reversely, the first bevel gear 511 is engaged with the second bevel gear 512 on the half-row transmission shaft 52b to drive the half-row transmission shaft 52b to rotate, the half-row transmission shaft 52b further drives the half-row gear 531b to rotate, and the half-row gear 531b drives the half-row ejector rod 30b to extend out relative to the knob body 10 through the half-row rack 532 b.
As shown in fig. 15, in the present embodiment, the elastic restoring member 40 is a restoring compressed spring 42, and the restoring compressed spring 42 is sprung between the knob body 10 and the push rod 30.
In the present embodiment, the transmission shafts 52 are provided in two to respectively transmit the full-row gear 531a and the half-row gear 531b, so that the structure is simple and the function is reliable.
The working process of the embodiment is roughly as follows:
when the knob 20 is rotated in the forward direction, the knob 20 drives the first bevel gear 511 disposed on the knob 20 to rotate in the forward direction, the half-circle teeth of the first bevel gear 511 are engaged with the second bevel gear 512 disposed on the full-row transmission shaft 52a, so as to drive the full-row transmission shaft 52a to rotate in the forward direction, while the first bevel gear 511 is not engaged with the second bevel gear 512 disposed on the half-row transmission shaft 52b, and the half-row transmission shaft 52b remains stationary. When the full-discharge transmission shaft 52a rotates forwardly, the full-discharge gear 531a is driven to rotate, the full-discharge gear 531a further drives the full-discharge rack 532a to slide, the full-discharge rack 532a further drives the full-discharge ejector rod 30a, so that the full-discharge ejector rod 30a extends out relative to the knob body 10, full-discharge driving is performed on the drain valve, the reset pressure spring 42 is compressed when the full-discharge ejector rod 30a extends out relative to the knob body 10, and the reset pressure spring 42 elastically deforms. When the external force applied to the knob 20 is removed, the reset pressure spring 42 drives the full-row ejector rod 30a and the full-row rack 532a to reset, the full-row rack 532a further resets the full-row gear 531a, the full-row gear 531a further drives the full-row transmission shaft 52a to reset, the full-row transmission shaft 52a drives the knob 20 to reset through the meshing of the first helical gear 511 and the second helical gear 512, and meanwhile, a knob reset torsion spring 43 can be arranged between the knob 20 and the knob body 10 to assist the reset of the knob 20.
When the knob 20 is rotated reversely, the knob 20 drives the first bevel gear 511 provided on the knob 20 to rotate reversely, the half-turn teeth of the first bevel gear 511 are engaged with the second bevel gear 512 provided on the half-row transmission shaft 52b, so as to drive the half-row transmission shaft 52b to rotate, while the first bevel gear 511 is not engaged with the second bevel gear 512 provided on the full-row transmission shaft 52a, and the full-row transmission shaft 52a is kept still. When the half-row transmission shaft 52b rotates, the half-row gear 531b is driven to rotate, the half-row gear 531b further drives the half-row rack 532b to slide, the half-row rack 532b further drives the half-row ejector rod 30b, so that the half-row ejector rod 30b extends relative to the knob body 10, half-row water driving is performed on the drain valve, the half-row ejector rod 30b compresses the reset pressure spring 42 when extending relative to the knob body 10, and the reset pressure spring 42 elastically deforms. When the external force applied to the knob 20 is removed, the reset pressure spring 42 drives the half-row ejector rod 30b and the half-row rack 532b to reset, the half-row rack 532b further resets the half-row gear 531b, the half-row gear 531b further drives the half-row transmission shaft 52b to reset, the half-row transmission shaft 52b drives the knob 20 to reset through the meshing of the first bevel gear 511 and the second bevel gear 512, and meanwhile, a knob reset torsion spring 43 can be arranged between the knob 20 and the knob body 10 to assist the reset of the knob 20.
Third embodiment (the transmission wheel is a cam):
in a third embodiment, not shown, the rack and pinion gear pair 53 of the first embodiment may be replaced by a cam (not shown), that is, the transmission mechanism 50 includes a bevel gear transmission pair 51, a transmission shaft 52 and a cam. Specifically, the transmission shaft 52 is rotatably disposed on the knob body 10, the bevel gear transmission pair 51 includes a first bevel gear 511 disposed on the inner end of the knob 20 and a second bevel gear 512 disposed on the transmission shaft 52, and the cam is fixed to the transmission shaft 52 to rotate with the transmission shaft 52. When the knob 20 rotates, the bevel gear transmission pair 51 drives the transmission shaft 52 to rotate, and the transmission shaft 52 abuts against the push rod 30 through the cam so that the push rod 30 slides outwards relative to the knob body 10 and extends out. In addition, the rack-and-pinion gear pair 53 of the first embodiment may be replaced by a worm gear (not shown), that is, the transmission mechanism 50 includes a bevel gear pair 51, a transmission shaft 52 and a worm gear, and the transmission mechanism 50 further includes a worm (not shown) movably disposed on the knob body 10 and in linkage engagement with the push rod 30.
Similarly, in this embodiment, the push rods 30 may also include a full-row push rod 30a and a half-row push rod 30b, and correspondingly, the cams include a full-row cam (not shown) and a half-row cam (not shown), when the knob 20 rotates forward, the helical gear transmission pair 51 drives the transmission shaft 52 to rotate forward, and the transmission shaft 52 drives the full-row cams to rotate; when the knob 20 rotates reversely, the bevel gear transmission pair 51 drives the transmission shaft 52 to rotate reversely, and the transmission shaft 52 drives the half-row cams to rotate.
This embodiment may be combined with the first embodiment, that is, a mode in which the transmission shaft 52 is provided with: specifically, the first helical gear 511 has a complete circle of teeth arranged along the circumferential direction, the transmission shaft 52 is provided with a full-row abutting block 521a and a half-row abutting block 521b, the full-row cam is provided with a full-row matching block 54a matched with the full-row abutting block 521a in an abutting mode, the half-row cam is provided with a half-row matching block 54b matched with the half-row abutting block 521b in an abutting mode, when the transmission shaft 52 rotates forwards, the full-row abutting block 521a abuts against the full-row matching block 54a to drive the full-row cam to rotate, and the half-row abutting block 521b is separated from the half-row matching block 54 b; when the transmission shaft 52 rotates reversely, the half-row abutting block 521b abuts against the half-row matching block 54b to drive the half-row cam to rotate, and the full-row abutting block 521a is separated from the full-row matching block 54 a.
This embodiment can be combined with the second embodiment, and the transmission shaft 52 is provided with two ways, and correspondingly, the full-row cams are fixed on the full-row transmission shaft 52a, and the half-row cams are fixed on the half-row transmission shaft 52 b: when the knob 20 rotates forwards, the first bevel gear 511 is engaged with the second bevel gear 512 on the full-line transmission shaft 52a to drive the full-line transmission shaft 52a to rotate, the full-line transmission shaft 52a further drives the full-line cam to rotate, and the full-line cam abuts against the full-line ejector rod 30a, so that the full-line ejector rod 30a extends out relative to the knob body 10; when the knob 20 rotates reversely, the first bevel gear 511 is engaged with the second bevel gear 512 on the half-row transmission shaft 52b to drive the half-row transmission shaft 52b to rotate, the half-row transmission shaft 52b further drives the half-row cam to rotate, and the half-row cam abuts against the half-row knockout pin 30b, so that the half-row knockout pin 30b extends out relative to the knob body 10.
In other embodiments not shown in the drawings, the knob may also be rotated in the same direction, and the full half-row is controlled by controlling the rotation angle, specifically: when the knob is rotated to a first angle in a first direction (which can be a clockwise direction or an anticlockwise direction), the knob is linked with the half-row ejector rods to extend outwards relative to the knob body 10, and when the knob is continuously rotated to a second angle in the first direction (the second angle is larger than the first angle), the knob is linked with the full-row ejector rods to extend outwards relative to the knob body 10. The full-row ejector rods or the half-row ejector rods are controlled to extend out by rotating different angles, and the existing structure for realizing different driving through different strokes can be adopted.
Furthermore, the utility model provides a drain valve, including the switch module of drain valve main part and drain valve, the drainage is opened to switch module drive drain valve main part, and the switch module adopts the switch module of above-mentioned arbitrary drain valve.
While the invention has been particularly shown and described with reference to a preferred embodiment, it will be understood by those skilled in the art that various changes in form and detail may be made therein without departing from the spirit and scope of the invention as defined by the appended claims.
Claims (13)
1. A switch assembly for a drain valve, comprising:
the knob body is provided with a hollow inner cavity;
the knob is rotatably arranged on the knob body;
the ejector rod is movably arranged on the knob body back and forth;
the transmission mechanism is arranged in the hollow inner cavity, and the knob is linked with the ejector rod through the transmission mechanism so as to control the ejector rod to extend outwards relative to the knob body.
2. The switch assembly of a drain valve according to claim 1, wherein the push rod is slidably disposed on the knob body back and forth; still include an elasticity piece that resets, knob, drive mechanism and the ejector pin is in elasticity resets the effect of piece and resets automatically.
3. The switch assembly of a drain valve according to claim 2, wherein the elastic reset member is disposed between the knob body and the push rod; and/or the elastic reset piece is arranged between the knob body and the knob; and/or the elastic reset piece is arranged between the knob body and the transmission mechanism; and/or the elastic resetting piece is arranged in the transmission mechanism.
4. The switching assembly of a drain valve according to claim 1, wherein the transmission mechanism comprises any one or a combination of a gear transmission mechanism, a cam transmission mechanism and a belt transmission mechanism.
5. The switch assembly of water discharge valve according to claim 1, wherein said transmission mechanism comprises a bevel gear transmission pair, a transmission shaft rotatably disposed on said knob body and a transmission wheel disposed on said transmission shaft, said bevel gear transmission pair comprises a first bevel gear disposed on an inner end of said knob and a second bevel gear coaxially disposed on said transmission shaft, said transmission shaft drives said transmission shaft to rotate through said bevel gear transmission pair, and said transmission shaft further links said push rod to extend outward relative to said knob body through said transmission wheel.
6. The switch component of the drain valve according to claim 5, wherein the transmission wheel is a gear, and the transmission mechanism further comprises a rack which is slidably arranged on the knob body and is in linkage fit with the ejector rod; or the transmission wheel is a turbine, and the transmission mechanism further comprises a worm which is movably arranged on the knob body and is in linkage fit with the ejector rod; or the transmission wheel is a cam.
7. The switch assembly of a drain valve according to claim 5, wherein the driving wheel is fixed on the transmission shaft to rotate with the transmission shaft, or the transmission shaft is provided with an abutting block and a matching block, and the transmission shaft drives the driving wheel to rotate through abutting matching between the abutting block and the matching block.
8. The switch assembly of a drain valve according to claim 5, wherein the push rod comprises a full-row push rod and a half-row push rod, and correspondingly, the transmission shafts comprise a full-row transmission shaft and a half-row transmission shaft which are rotatably arranged on the knob body independently of each other, the second bevel gear is provided with two second bevel gears and coaxially arranged on the full-row transmission shaft and the half-row transmission shaft respectively, and the transmission wheels comprise a full-row transmission wheel arranged on the full-row transmission shaft and a half-row transmission wheel arranged on the half-row transmission shaft; the first helical gear is provided with a half circle of teeth, when the knob rotates forwards, the first helical gear is meshed with a second helical gear on the full-row transmission shaft to drive the full-row transmission shaft to rotate, and the full-row transmission shaft further drives the full-row ejector rods to extend outwards relative to the knob body through the full-row transmission wheels; when the knob rotates reversely, the first helical gear is meshed with the second helical gear on the half-row transmission shaft to drive the half-row transmission shaft to rotate, and the half-row transmission shaft further drives the half-row ejector rods to extend outwards relative to the knob body through the half-row transmission wheels.
9. The switch component of the drain valve according to claim 5, wherein the push rod comprises a full row push rod and a half row push rod, correspondingly, the driving wheel comprises a full row driving wheel and a half row driving wheel, the full row driving wheel and the half row driving wheel are rotatably arranged on the same transmission shaft, a full row abutting block and a half row abutting block are arranged on the transmission shaft, a full row matching block is arranged on the full row driving wheel, a half row matching block is arranged on the half row driving wheel, and when the transmission shaft rotates forwards, the full row abutting block abuts against the full row matching block so as to drive the full row driving wheel to rotate; when the transmission shaft rotates reversely, the half-row abutting block abuts against the half-row matching block so as to drive the half-row transmission wheel to rotate.
10. The switch assembly of a drain valve according to claim 9, wherein the half-row abutment block is separated from the half-row mating block when the transmission shaft rotates forward, and the full-row abutment block is separated from the full-row mating block when the transmission shaft rotates backward; the full-row torsion spring and the half-row torsion spring are also included; one end of the full-row torsion spring is connected with the full-row butting block, the other end of the full-row torsion spring is connected with the full-row matching block, so that elastic force in the butting direction is applied to the full-row butting block and the full-row matching block, and the full-row torsion spring is elastically deformed when the full-row butting block is separated from the full-row matching block; half one end of arranging the torsional spring is connected half butt joint piece, and the other end is connected half cooperation piece of arranging, in order to right half butt joint piece and half cooperation piece of arranging exert the elastic force toward the direction of looks butt joint, half butt joint piece of arranging with make during half cooperation piece phase separation half torsional spring elastic deformation of arranging.
11. The switch component of the drain valve according to claim 10, wherein the full-discharge ejector rod and the half-discharge ejector rod are respectively provided with a second limiting part which is in limiting fit with the first limiting part on the knob body;
when the transmission shaft rotates forwards, the second limiting part on the half-row ejector rod is in limiting fit with the first limiting part to limit the half-row ejector rod to slide along the direction opposite to the extending direction of the half-row ejector rod, so that the half-row abutting block is separated from the half-row matching block;
when the transmission shaft reverses, the second limiting part on the full-row ejector rod is matched with the first limiting part in a limiting mode to limit the full-row ejector rod to slide along the direction opposite to the extending direction of the full-row ejector rod, so that the full-row abutting block is separated from the full-row matching block.
12. The switch assembly of a drain valve according to claim 1, wherein the push rod comprises a full push rod and a half push rod, the knob is rotated in a forward direction, the knob is linked with the full push rod to extend outwards relative to the knob body, the knob is rotated in a reverse direction, and the knob is linked with the half push rod to extend outwards relative to the knob body; or when the knob is rotated to a first angle in the first direction, the knob is linked with the full-row ejector rods to extend outwards relative to the knob body, and when the knob is rotated to a second angle in the first direction, the knob is linked with the half-row ejector rods to extend outwards relative to the knob body.
13. A drain valve comprising a drain valve body and a switching assembly of the drain valve, the switching assembly driving the drain valve body to open drainage, characterized in that the switching assembly employs the switching assembly of the drain valve according to any one of claims 1 to 12.
Priority Applications (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202022510515.XU CN213741423U (en) | 2020-11-03 | 2020-11-03 | Drain valve and switch assembly thereof |
Applications Claiming Priority (1)
| Application Number | Priority Date | Filing Date | Title |
|---|---|---|---|
| CN202022510515.XU CN213741423U (en) | 2020-11-03 | 2020-11-03 | Drain valve and switch assembly thereof |
Publications (1)
| Publication Number | Publication Date |
|---|---|
| CN213741423U true CN213741423U (en) | 2021-07-20 |
Family
ID=76819311
Family Applications (1)
| Application Number | Title | Priority Date | Filing Date |
|---|---|---|---|
| CN202022510515.XU Active CN213741423U (en) | 2020-11-03 | 2020-11-03 | Drain valve and switch assembly thereof |
Country Status (1)
| Country | Link |
|---|---|
| CN (1) | CN213741423U (en) |
-
2020
- 2020-11-03 CN CN202022510515.XU patent/CN213741423U/en active Active
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