TWM617583U - Wipe cleaning device of mopping machine - Google Patents

Abstract

A wiper cleaning device for a floor scrubbing machine. The scrubbing machine is connected to a wiper and includes a barrel. The barrel is provided with a water removal member and a driving mechanism for driving a water removal member and the barrel to rotate , The said scrubbing machine moves vertically in the barrel. During cleaning, the wiper is located at a low position to contact the water surface; when water is removed, the scrubber moves upward to make the wiper off the water surface, and the water removal member is in contact with the water surface. The wipes are scratched. The new model can complete the lifting and rotating of the water removal part, the operation is simple and convenient, the cleaning area is large, the cleaning dead angle is not easily generated, the dirt removal effect and the cleaning efficiency are good, the application range is wide, it is suitable for a variety of mopping machines, and the production cost is relatively high. Low.

Description

Wipe cleaning device of mopping machine

The model relates to the technical field of cleaning appliances, and relates to a wiper cleaning device of a floor scrubbing machine.

The floor scrubber is a current electric cleaning tool, which mainly includes a motor and a wiper driven by the motor. When cleaning and cleaning, the motor drives the wiper to rotate or reciprocate translation, which is analogous to manually wiping the ground. Although the wiping machine saves the physical strength of manual wiping, it lacks countermeasures when cleaning the wipes. At present, the wipes are manually disassembled and then cleaned separately, which causes problems such as inconvenient operation and insufficient cleaning.

The main purpose of the present invention is to provide a wiper cleaning device for a floor scrubbing machine in view of the above-mentioned problems.

In order to achieve the above-mentioned purpose, the present invention adopts the following technical solutions: a wiper cleaning device for a mopping machine, the mopping machine is connected with a wiper, and includes a bucket, and the bucket is provided with a water removal member and a A driving mechanism that drives the water removal element and the barrel to rotate. The scrubber moves vertically in the barrel. When cleaning, the wiper is located at a low position and touches the water surface; when water is removed, the scrubber is on Move the wiper away from the water surface, and the water removing member scrapes the wiper.

In the above-mentioned wiper cleaning device for a floor scrubbing machine, the water removing member includes any one or a combination of a scraper, a scraper, and a roller.

In the above-mentioned wipe cleaning device of the floor scrubber, the driving mechanism includes a circumferential drive, and a rotating shaft of the circumferential drive is fixedly connected with the water removing member.

In the above-mentioned wipe cleaning device of a floor scrubber, it further includes a lifting mechanism, and the lifting mechanism includes a linear drive arranged in the barrel and used for driving the water removing member to rise or fall.

In the above-mentioned wipe cleaning device for a floor scrubber, the lifting mechanism further includes a lifting frame arranged in the barrel and capable of reciprocating linearly in a vertical direction, and the circumferential drive is located in the lifting frame. Inside, a power shaft of the linear drive is fixedly connected with a lifting frame.

In the above-mentioned wipe cleaning device of a floor scrubber, a guide rail frame is further provided in the barrel body, and a guide rail bar corresponding to the position of the guide rail frame is provided on the lifting frame.

In the above-mentioned wipe cleaning device of a floor scrubber, it further includes a lifting mechanism, and the lifting mechanism includes a lifting and turning plate arranged in the barrel, and the lifting and turning plate is rotationally matched with the barrel.

In the above-mentioned wipe cleaning device for a floor scrubber, a driving arrangement block is provided on the lifting and rotating plate, the circumferential drive is located in the driving arrangement block, and the lifting and rotating plate is far away from the A pedal is provided at one end of the driving placement block, and a supporting plate is provided on the top of the driving placement block.

In the above-mentioned wipe cleaning device for a floor scrubbing machine, the driving mechanism includes the driving arrangement block arranged below the water removing member, and the driving arrangement block is provided with a driven bevel gear, and The driven bevel gear is connected with the water removal part through a rotating shaft, and the barrel is provided with The foot pedal can drive the driven bevel gear to rotate, and the bottom of the barrel is provided with a plug at the bottom of the barrel that can reciprocate linearly in the vertical direction.

Compared with the prior art, the advantages of the new type are: the new type of mopping machine is in contact with water during cleaning, the cleaning area is large, the cleaning dead angle is not easily generated, the dirt removal effect and the cleaning efficiency are good; the mopping machine is out of water when removing water , It is easier to dehydrate and scrape dry, easy to operate, and has a wide range of applications. It is suitable for a variety of floor scrubber wipes and has a lower production cost.

The other advantages, objectives and features of the present invention will be partly embodied by the following description, and partly will be understood by those skilled in the art through the research and practice of the present invention.

1: barrel

1a: Water storage components

2: Water storage container

3: Lifting mechanism

303a: water tank

309a: draft tube

313: Support Table

39a: handle

3b: Drive mechanism

4: Dewatering parts

400: manual valve

401a: Annular limit groove

402a: Sealing ring

403a: water outlet

404a: Cleaning chamber

404b: Sewage outlet

404c: stopper

405a: Dewatering cavity

406: Sewage Chamber

407: Support

5: Drive

510a: Water valve

6: Connecting components

7: Drive shaft

700: Support seat

9: Anti-screw

10: connecting rod

100: mopping machine

101: mopping machine

103: Wheel

12: Liquid level drive components

13: Liquid level drive board

14: Driver

15: Filling block

16: Chute

17: Limit slot

18: Shock absorption components

19: Movement pitch

201: Support frame

202: Card

23: Support

60: cavity

61: Support seat

71: water tank

72: water valve

a17: Adsorption component

a18: Electromagnetic induction parts

a19: Magnet

a20: coil

b3: drive mechanism

b6: Circumferential drive

b7: Linear drive

b8: Lifting frame

b9: Rail frame

b10: rail strip

b11: Lifting turn plate

b12: drive placement block

b13: pedal

b14: Support plate

b15: driven bevel gear

b16: Foot pedal

b100: wipes

w15: water delivery mechanism

w16: inlet pipe

w17: Wiper frame

w19: driven gear

w20: driving gear

w22: loop water cavity

w23: connection slot

w24: bezel

w25: Loop water pump

w29: pedal shaft

w30: pedal gear

w31: connecting gear

w32: water pump

w40: Rotating motor

w41: foot pedal

w42: filter

w43: Loop water pipe

Fig. 1 is a schematic diagram of the structure of cleaning wipes in the first embodiment.

Fig. 2 is a schematic diagram of the structure of the first embodiment when the wipe is wiped dry.

Fig. 3 is a schematic diagram of the structure of the second embodiment when cleaning wipes.

Fig. 4 is a schematic diagram of the structure of the second embodiment when the wipe is wiped dry.

Fig. 5 is a schematic diagram of the structure of the third embodiment.

Fig. 6 is a schematic diagram of the internal structure of the fourth embodiment.

Figure 7 is a schematic diagram of the internal structure of the fifth embodiment.

Fig. 8 is a top view of the barrel body of the fifth embodiment.

Figure 9 is a schematic diagram of the overall structure of the sixth embodiment.

Fig. 10 is a partial structural diagram of Fig. 9.

Fig. 11 is a schematic diagram of the overall structure of the seventh embodiment.

Fig. 12 is an enlarged view of the partial structure of Fig. 11.

Figure 13 is a schematic diagram of the overall structure of the eighth embodiment.

Fig. 14 is a schematic diagram of the connection between the rotating motor and the water removal element in the eighth embodiment.

Fig. 15 is a schematic diagram of the connection between the active rotating motor and the water removing element in the eighth embodiment.

Fig. 16 is a schematic diagram of the connection between the foot pedal and the water removing member of the eighth embodiment.

Figure 17 is a schematic diagram of the structure of the present invention when the roller is immersed in water in the ninth embodiment.

Fig. 18 is a schematic diagram of the structure of the present invention when the roller is separated from the water surface in the ninth embodiment.

Fig. 19 is a schematic diagram of the structure of the tenth embodiment.

Fig. 20 is a schematic structural diagram of the eleventh embodiment.

Fig. 21 is a schematic diagram of the structure of the twelfth embodiment.

Figure 22 is a schematic view of the structure of the twelfth embodiment when a support frame is provided.

FIG. 23 is a schematic structural diagram of one of the embodiments when the cleaning chamber and the sewage collection chamber are detachably connected in the twelfth embodiment.

The detailed description and technical content of the new model are described as follows with the drawings:

Example one

As shown in Figures 1 and 2, a wipe cleaning device for a floor scrubbing machine includes a bucket 1 that can hold water. A driving mechanism b3 that rotates between the member 4 and the barrel 1, the scrubber moves vertically in the barrel 1. When cleaning, the barrel 1 contains cleaning water, and a wipe b100 contacts the water surface. Preferably, the circuit part of the scrubber is located above the water surface; when water is removed, the wipe b100 is separated from the water surface, and the driving mechanism b3 drives the water removal member 4 to scrape the wipe b100.

In this embodiment, the barrel 1 is equipped with clean water for cleaning wipes. When the wipe b100 needs to be cleaned, the wipe b100 is placed in the barrel 1 and combined with the water removal member 4 Contact, the wipe b100 is completely immersed in the clean water at this time, and the dewatering member 4 is driven to rotate by the driving mechanism b3, so that the wipe b100 and the dewatering member 4 are rubbed, and the dirt is scraped off and washed with water. After the completion, the wipe b100 is off the water surface, at this time, the driving mechanism b3 is started again to drive the dewatering The wiper 4 is scraped, and the water on the wipe b100 is wiped dry by the water removing member 4, which is integrated with rinsing and drying, simple operation, high cleaning efficiency, wide application range, suitable for a variety of floor scrubber wipes, and production cost Low, when cleaning the reciprocating scrubber wipes, the reciprocating scrubber wipes are in contact with the dewatering element 4, the wipe b100 is completely immersed in the clean water, and the dewatering element 4 is rotated at the same time , The wipes reciprocate synchronously to clean the b100 of the wipes. After cleaning, the driving mechanism b3, the water removal member 4 and the wipe b100 are moved away from the water surface through a lifting mechanism 3, and the water removal member 4 Dry the water on the wipe b100; when cleaning the wipe of the rotary scrubber, contact the wipe of the rotary scrubber with the dewatering member 4, and the wipe b100 is completely immersed in the clean water, While rotating the dewatering member 4, the wiper rotates synchronously to clean the wiper b100. After the cleaning is completed, the driving mechanism b3, the dewatering member 4 and the wiper b100 are moved away from the water surface by the lifting mechanism 3 , The water on the wipe b100 is dried by the water removing member 4, and the cleaning or scraping effect of the structure of the wipe b100 and the water removing member 4 of the rotatable scrubbing machine is the best.

As a preferred embodiment, it also includes a lifting mechanism 3. Specifically, the driving mechanism b3 is connected to the water removal member 4, and the lifting mechanism 3 is connected to the driving mechanism b3 to ensure that the lifting mechanism 3 can drive the The water removing member 4 and the wipe b100 move synchronously to the side away from or close to the water surface.

As shown in FIG. 1 and FIG. 2, the water removing member 4 is any one or a combination of a scraper 21, a scraper, and a roller.

As shown in FIG. 1 and FIG. 2, the driving mechanism b3 includes a circumferential drive b6, and the rotation shaft of the circumferential drive b6 is fixedly connected with the water removing member 4. The lifting mechanism 3 includes a linear drive b7 arranged in the barrel 1 and used for driving the water removing member 4 to rise or fall.

In this embodiment, when the wiper strip 21 needs to be rotated, the circumferential drive b6 is activated, and the wiper strip 21 is driven to rotate by the rotating shaft of the circumferential drive b6 to complete the cleaning or wiping process. When the wiper needs to be driven When the bar 21 moves, the linear actuator b7 is activated, and the linear actuator b7 moves The force shaft drives the scraper 21 to rise or fall. Those skilled in the art should understand that the circumferential drive b6 can be a motor or a rotary cylinder; the linear drive b7 can be a cylinder, a cylinder or a linear motor.

The lifting mechanism 3 also includes a lifting frame b8 arranged in the barrel 1 and capable of reciprocating linearly in the vertical direction, the circumferential drive b6 is located in the lifting frame b8, and the linear The power shaft of the driver b7 is fixedly connected to the lifting frame b8, and the lifting frame b8 protects the circumferential drive b6.

The barrel 1 is also provided with a rail frame b9, the lifting frame b8 is provided with the rail bar b10 corresponding to the position of the rail frame b9, and the rail bar b10 slides with the rail frame b9 In cooperation, the guide rail frame b9 acts as a limiter for the lifting frame b8, so as to prevent the lifting frame b8 from shifting in position and angle during the ascending or descending process.

Example two

The structure and working principle of this embodiment are basically the same as those of the first embodiment. The difference is that, as shown in FIG. 3 and FIG. 4, the lifting mechanism 3 includes the lifting and rotating plate b11 provided in the barrel 1. , The lifting and rotating plate b11 is rotatably matched with the barrel 1. The lifting and turning plate b11 is provided with a driving placement block b12, the circumferential drive b6 is located in the driving placement block b12, and the lifting and turning plate b11 is provided with a pedal at one end away from the driving placement block b12 b13, a support plate b14 is provided on the top of the driving placement block b12.

In this embodiment, the support plate b14 is used to support the scraper strip 21, to prevent the scraper strip 21 from angular deviation during the rotation process, and to ensure the cleaning angle. When the lifting and rotating plate b11 needs to be rotated, the foot Stepping on the pedal b13 drives the lifting and rotating plate b11 to complete rotation.

Example three

The structure and working principle of this embodiment are basically the same as those of the second embodiment. The difference is that, as shown in FIG. The driving block b12 is provided with a driven bevel gear b15, the driven bevel gear b15 is connected with the scraper 21 through a rotating shaft, and the barrel 1 is provided with a driven bevel gear that can drive the driven bevel gear A foot pedal b16 that rotates by b15, and the bottom of the barrel 1 is provided with a barrel bottom plug that can reciprocate linearly in the vertical direction.

When the foot pedal b16 is rotated, the driven bevel gear b15 and the scraper 21 are driven to rotate through the transmission between the foot pedal b16 and the driven bevel gear b15. When the pedal needs to be rotated When turning the board b16, the user only needs to step on the pedal b16, which is similar to the pedal bicycle type, which can easily and conveniently drive the pedal b16 to rotate. By moving the plug at the bottom of the barrel, The cleaning water in the bucket can be blocked or drained. After the water is drained, the wiper can be wiped dry by driving the wiper strip 21. The lifting mechanism 3 can drive the water removing member 4 and the wiper b100 to move away from or close to the water surface synchronously. Move on one side.

Example four

As shown in Figure 6, a wiper cleaning device for a floor scrubbing machine. The barrel 1 is provided with a sewage chamber 406 and a cleaning chamber 404a. 404a is provided with the dewatering element 4, and a sewage channel 408 is provided between the cleaning chamber 404a and the sewage chamber 406.

A mopping machine 101 is inserted into the barrel 1 and the wiper b100 that can rotate in a circumferential direction is connected to the bottom of the mopping machine 101, and the wiper b100 corresponds to the water removing member 4.

In this embodiment, the barrel body 1 is provided with the sewage chamber 406 and the cleaning chamber 404a. The floor scrubber is washed and scraped dry in the cleaning chamber 404a, and the sewage after cleaning the floor scrubber can pass through the sewage channel 408 flow Into the sewage chamber 406, so as to prevent sewage from splashing into the cleaning chamber 404a to contaminate the wipe b100, resulting in poor cleaning or scraping effect of the wipe b100, which affects the cleaning efficiency.

A water valve 51a is provided in the drain flow channel 408 as described.

In this embodiment, as shown in FIG. 6, when cleaning, the water valve 51a is closed, so that the cleaning water can be stored in the cleaning cavity 404a to facilitate cleaning of the wipe b100. When the water is removed, the water valve 51a is opened and the The water in the cleaning chamber 404a flows into the sewage chamber 406 through the sewage channel 408, so that the wipe b100 can be dewatered, and the water removed from the wipe b100 during the dewatering can pass through the sewage The flow channel 408 flows into the sewage chamber 406.

The water valve 51a is a one-way valve.

In this embodiment, as shown in FIG. 6, the water valve 51a is a one-way valve that can prevent the sewage from overflowing into the cleaning chamber 404a when the sewage is collected in the dewatering chamber during the dewatering process, thereby polluting the cleaning chamber 404a. Swab b100.

The barrel 1 is also provided with a water tank 303a, and the water tank 303a is connected to a diversion pipe 309a for transporting cleaning water to the water removal element 4, and the bottom of the water tank 303a is higher than The diversion pipe 309a is far away from one end of the water tank 303a.

In this embodiment, as shown in FIG. 1, the water tank 303a can store a certain amount of cleaning water, which is convenient for multiple use, and can be conveniently and quickly switched between the cleaning and scraping modes, and the work efficiency is high. The bottom of the water tank 303a is higher than the end of the guide pipe 309a far away from the water tank 303a, so that the water in the water tank can flow into the cleaning cavity 404a by gravity, so as to prevent the water at the bottom of the water tank from being drained.

A manual valve 400 for controlling the opening or closing of the guiding pipe 309a is provided in the middle of the guiding pipe 309a.

In this embodiment, as shown in FIG. 6, rotating the manual valve 400 can control the guide tube 309a to flush the water removal member 4, and manually control flushing without using a driving mechanism such as a motor to drive can reduce the cost of the product And the weight, and can freely control the flushing time, the operation is simple and convenient and not easy to damage.

An annular limiting groove 401a is provided in the middle of the guide tube 309a, and the manual valve 400 is connected to a sealing ring 402a inserted into the annular limiting groove 401a and capable of rotating in a circumferential direction. The sealing ring 402a is also provided with There is a water outlet hole 403a suitable for the flow passage in the guide tube 309a, and the manual valve 400 is far away from the sealing ring 402a with a handle 39a connected to one end.

In this embodiment, as shown in FIG. 6, the sealing ring 402a can be made of rubber material. When the water outlet hole 403a is in communication with the flow channel in the diversion tube 309a, water can be discharged, and the annular limit groove 401a can The sealing ring 402a is restricted, and turning the handle 39a can control the opening or closing of the manual valve 400.

The cleaning chamber 404a is also provided with a supporting table 313, the supporting table 313 is horizontally fixed in the cleaning chamber 404a and the supporting table 313 is higher than the liquid level in the sewage chamber 406, The water removing member 4 is arranged on the supporting platform 313.

In this embodiment, as shown in FIG. 6, the support platform 313 is higher than the liquid level in the sewage chamber 406 to prevent the washed water from flowing into the dewatering chamber by gravity.

The working principle of the present invention is: during cleaning, the water valve 51a is closed, and turning the handle 39a can control the opening of the diversion tube 309a, so that the water in the water tank 303a can pass through the diversion tube 309a to the water removal element 4 Flushing, and a part of the water can be stored in the cleaning chamber 404a, start the scrubbing machine, the scrubbing function drives the wipe b100 to move so that it can be cleaned with the wiper. When the water is removed, the water valve 51a opens and rotates The handle 39a can control the diversion tube 309a to close, and the water in the cleaning chamber 404a can flow into the sewage chamber 406 through the sewage channel 408, thereby preventing sewage from splashing into the cleaning chamber 404a and polluting the wipes. b100, resulting in poor cleaning or scraping effect of the wipe b100, affecting the cleaning Washing efficiency, start the scrubbing machine, the scrubbing function drives the wipe b100 to move to cooperate with the wiper to remove water. The water valve 51a in the sewage channel is a one-way valve to prevent collection in the water removal chamber during water removal. When there is too much sewage, sewage overflows from the dewatering chamber into the cleaning chamber 404a, thereby contaminating the wipe b100.

Example five

As shown in Figures 7 and 8, a wiper cleaning device for a floor scrubber includes the barrel 1, which includes a dewatering cavity 405a and the cleaning cavity 404a that can hold water. The dewatering member 4 is provided in the dewatering cavity 405a. When the scrubber is cleaning, the water in the cleaning chamber 404a contacts the wiper of the scrubber; when the scrubber is dewatering, the dewatering member 4 of the dewatering chamber 405a scrapes the wiper.

The cleaning cavity 404a or/and the dewatering cavity 405a is provided with a support seat 700 for supporting the scrubber. When the scrubber is cleaning, the support seat 700 supports the scrubber to be separated from the barrel of the barrel 1. Bottom; or when the mopping machine is removing water, the support base 700 supports the mopping machine to be separated from the bottom of the bucket body 1.

In this embodiment, the support base 700 supports the scrubber from the bottom of the bucket 1 to prevent the dirt accumulated on the bottom of the bucket from contaminating the wipes.

The lower bottom surface of the floor scrubber is provided with a cavity, and the support base 700 is inserted into the cavity when the floor scrubber is cleaning or removing water.

In this embodiment, the support base 700 is inserted into the cavity of the lower bottom surface of the floor scrubbing machine to clamp and fix the floor scrubbing machine, preventing the back and forth movement of the lower end from affecting the cleaning effect.

The cleaning cavity 404a is also provided with the water removal member 4, and the wiper of the floor cleaning machine scrapes the water removal member 4 when the floor cleaning machine is cleaning.

The water removing member 4 is any one or a combination of scraping strips, scraping brushes, and rotating rollers.

The dewatering element 4 is statically or movably arranged on the barrel, and the wiper rubs against the dewatering element 4 during cleaning to improve the cleaning effect.

The water removing member 4 is a scraper strip or a scraper, and the scraper strip or the scraper brush is connected with a power device, and the power device drives the scraper strip or the scraper brush to rotate or translate.

In this embodiment, the power device drives the scraper or the scraper to rotate or translate, which can improve the efficiency of cleaning or scraping, and there is no need for the power of the scrubber.

The water removing member 4 is a rotating roller, and the rotating roller is connected with a power device, and the power device drives the rotating roller to rotate.

In this embodiment, the power device drives the rotating roller to rotate, which can improve the efficiency of cleaning or scraping, and there is no need for the power of the mopping machine.

The wipes on the floor scrubber rotate in the horizontal direction, or the wipes rotate in the axial direction, or the wipes move back and forth in the horizontal direction.

In this embodiment, the top of the support base 700 is higher than the water removing member 4, which can prevent the floor scrubbing machine from colliding with the barrel.

In this embodiment, it also includes a water supply device that delivers water to the cleaning cavity 404a.

The water supply device includes a pump, which pumps water from the barrel 1 or an external water source to the cleaning cavity 404a.

In this embodiment, water is arranged in the barrel 1, and the pump can pump the water from the bottom of the barrel to the wiper in the cleaning cavity 404a.

The water supply device includes a water tank, and the water in the water tank is led to the cleaning cavity 404a by a water pipe. The water pipe is connected to a water valve. When the water valve is opened, the water in the water tank flows to the cleaning cavity 404a.

In this embodiment, the water tank is arranged on the top of the barrel, and the bottom of the water tank is higher than the height of the end of the water pipe away from the water tank.

The water supply device includes a pipeline communicating with the cleaning cavity 404a, and the pipeline is connected to a water supply source.

In this embodiment, one end of the pipeline is connected to the cleaning cavity 404a, and the other end is connected to a water supply source. The water supply source can be a water tank arranged on the top of the barrel, or a tap water pipe that can provide tap water, or can take lake water or river water. Pumps for suction, etc.

In this embodiment, the scrubbing machine is put into the cleaning chamber 404a and the wipes are placed on the water removing member 4, and the scrubbing machine is started. Wash in water. After cleaning, place the wipe on the dewatering member 4 in a dewatering chamber 405a, start the mopping machine, and the mopping function drives the wiper to move to cooperate with the dewatering member 4 for automatic drying. In this embodiment, the barrel body with 1 sub-cavity is arranged relative to the single-cavity barrel body, which can effectively prevent the stains attached to the barrel after the wiper is cleaned from re-attaching to the wiper when the wiper is dried, which can effectively improve the wiper The cleaning effect and cleaning efficiency.

Example Six

As shown in FIG. 9, a wipe cleaning device for a floor scrubber includes the barrel 1, and the barrel 1 has the cleaning cavity 404a for cleaning the wipes of the floor scrubber. The water removal member 4 is in the barrel. The body 1 can perform reciprocating translational movement. The scrubbing machine is vertically movable in the barrel 1. When the wipes are cleaned, the wipes are soaked in water. When the wipes are dewatered, the scrubbing machine rises. The wipe comes off the surface of the water. The water removal member 4 can be wiped with the wiper on the floor scrubbing machine to achieve water removal.

In this embodiment, the water removing member 4 is integrally arranged inside the barrel 1. When water is added to the barrel 1 to clean the wipes of the floor scrubber, the floor scrubber is completely immersed in water when cleaning. When the mopping machine removes water, the wipes rise above the water surface, which has the advantage of convenient water removal.

Preferably, this embodiment also includes a lifting mechanism. In this embodiment, it is mainly used to drive the vertical movement of the wiping machine. When the wiping machine is cleaning, the lifting mechanism is lowered so that the wipes are also lowered and soaked in water. When the water is removed, the lifting mechanism drives the wipes of the floor scrubber to rise above the water surface. The lifting mechanism can be realized by a motor connection. Those skilled in the art should understand the lifting The mechanism is common knowledge in the field of technology and has relatively mature products in the market, so the lifting mechanism will not be repeated.

Those skilled in the art should understand that the dewatering element 4 can perform rotation, pivoting and translational movement. In this embodiment, the dewatering element 4 performs translational movement. Such as a common driver 5, and then connect a drive shaft 7 to achieve translational movement. It should be a well-known technical common sense. The wiper effect.

Preferably, the driving mechanism 3b includes a driver 5 connected to it.

The drive shaft 7 of the driver 5 is connected to a positive screw 8 and a reverse screw 9 arranged coaxially with the drive shaft 7. Both the positive screw 8 and the reverse screw 9 are connected to drive the water removal member 4 to move. A connecting rod 10, when the driver 5 drives the drive shaft 7 to rotate, the positive screw 8 and the reverse screw 9 will rotate synchronously, and the connecting rod 10 located at one end of the positive screw 8 and the reverse screw 9 will face or deviate from each other When moving and moving towards each other, the connecting rod 10 will push the dewatering element 4 to move away from the driver 5. When moving away, the connecting rod 10 will push the dewatering element 4 to move toward the side close to the driver 5. .

The driving mechanism 3b also includes a sensor element 11 arranged in the barrel 1, the sensor element 11 is arranged at the other end of the barrel 1 away from the driver 5, and the sensor element 11 is electrically connected to the driver 5 , And the sensing end of the sensing element 11 faces the dewatering element 4.

When the drive shaft 7 on the driver 5 drives the water removal element 4 to move, and when it moves to the other end of the barrel, the sensor element 11 will detect the relative position of the water removal element 4 and the sensor element 11. When the set rated distance value is reached, the sensor element 11 transmits a signal to the driver 5, and the driver 5 reverses to realize the return movement of the water removing member 4.

The sensor element 11 may be composed of a single sensor or a plurality of sensors, and the sensor may be an infrared sensor or a collision sensor that is commonly available in the market.

Preferably, the cleaning cavity 404a is provided with a drainage port, and the drainage port is provided with a water valve or a plug. Remove the plug or open the water valve to achieve rapid drainage.

Example Seven

As shown in Figure 11, the driving mechanism includes a suction assembly a17 connected to the water removal member 4 is provided with an electromagnetic induction member a18 matched with the suction assembly a17, and the suction assembly a17 includes a A magnet a19, and the driver 5 is electrically connected with a coil a20 wound on the magnet a19.

In this embodiment, an external power supply supplies power to the magnet a19. The magnet a19 has a coil a20. When the magnet a19 is energized, the magnet a19 will magnetize the electromagnetic induction element a18 and have the adsorption function to drive the water removal element 4 to the The driver 5 moves on one side. When the driver 5 changes the direction of current, the magnetic pole of the magnet a19 close to the electromagnetic induction element a18 will be opposite to the magnetic pole of the electromagnetic induction element a18, causing repulsive motion, and then move towards the side away from the driver 5 Movement, and then realize reciprocating movement.

Preferably, as shown in Figures 10-12, the side wall of the barrel 1 is provided with a chute 16 for the reciprocating movement of the water removal member 4 at a position corresponding to the water removal member 4. The two sides of the barrel 1 Each end is provided with a limiting groove 17 for inserting the dewatering element 4, and a shock-absorbing component 18 is provided in the limiting groove 17 to cooperate with the side end of the dewatering element 4.

The side edge of the water removal member 4 is movably connected in the chute 16. When the water removal member 4 reciprocates and translates, the chute 16 maintains stability. In order to ensure the smoothness of sliding, the water removal member 4 can A pulley is provided at a position in contact with the sliding groove 16, and the limiting groove 17 is provided on the edge of the barrel 1 where the driver 5 is provided and the edge on the side away from the driver 5, and the limiting grooves at both ends 17 Opposite set When the dewatering element 4 is inserted into the limiting slot 17, the damping element 18 in the limiting slot 17 has a certain damping effect to prevent the water removing element 4 from colliding with the barrel wall.

Preferably, a movement distance 19 for the insertion of the dewatering element 4 is formed between the head end of the damping element 18 and the outer side of the limiting groove 17. When the dewatering element 4 is completely inserted into the movement distance 19 Inside, when abutting on the damping element 18, there is a safety distance 20 between the driver 5 and a connecting member 6. When the water removal member 4 moves to the extreme positions of both ends, the ends of the water removal member 4 It will abut against the shock-absorbing assembly 18, the driver 5 and the connecting member 6 will not collide, and the driver 5 and the connecting member 6 will be protected.

For the reciprocating movement of the water removing member 4, two modes of electric drive and mechanical drive are adopted.

Electric drive mode: The magnet a19 is powered by an external power source, and the magnet a19 has the coil a20. When energized, the magnet a19 will magnetize the electromagnetic induction part a18 and have the adsorption function to drive the water removal part 4 to the drive 5 When the driver 5 changes the direction of the current, the magnetic pole of the magnet a19 close to the electromagnetic induction element a18 will be opposite to the magnetic pole of the electromagnetic induction element a18, repulsive movement occurs, and then moves toward the side away from the driver 5. And then realize the reciprocating movement.

Mechanical transmission mode: when the driver 5 drives the drive shaft 7 to rotate, the positive screw 8 and the counter screw 9 will rotate synchronously, and the connecting rod 10 located at one end of the positive screw 8 and the counter screw 9 will move toward or away from each other When moving toward each other, the connecting rod 10 will push the dewatering element 4 to move away from the driver 5, and when moving away, the connecting rod 10 will push the dewatering element 4 to move toward the side close to the driver 5.

Example eight

As shown in FIG. 13, in the wipe cleaning device of the floor scrubbing machine of this embodiment, the barrel 1 is provided with the water removal member 4 that can rotate along its own centerline axis. When washing with water, the barrel 1 contains the cleaning device. water, The dewatering member 4 contacts the washing water; when the water is removed, the dewatering member 4 is separated from the washing water. In this solution, the switch between water washing and water removal can be realized by adjusting the relationship between the water removal element 4 and the water level, which is simpler and more convenient than the existing conversion method, which is convenient for operation.

In the present invention, the barrel 1 is used to hold water for cleaning. When the wipe is washed, the water removing member 4 rotates to bring the water to the wipe, thereby realizing water washing. When the water is removed, the water removal member 4 is separated from the water liquid, the water removal member 4 can no longer send water to the wipe, and the wipe can achieve water removal. The specific implementations are as follows: 1. Adjusting the level of the washing water of the barrel 1 can change the volume of the barrel 1 to adjust the liquid level, such as changing the inner volume of the barrel to change the liquid level. 2. Adjust the height of the dewatering element 4, the dewatering element 4 is in contact with the washing water when it is in a low position, and when it is dewatering, it is located at a high position and is separated from the washing water.

In another embodiment, the cleaning tool may be vertically movable in the barrel. As a preferred manner, a driving device is provided in the barrel, and the driving device vertically lifts the cleaning tool or/and the water removal member 4. Further preferably, the cleaning tool and the water removal member 4 are raised and lowered synchronously to achieve vertical movement, and when they are raised together, they can be wiped and wiped off water; when the cleaning tool and the water removal member 4 are lowered, they can be washed with water when they are in a low position.

This embodiment can also be provided with a water delivery mechanism w15. The water delivery mechanism w15 pours water into the barrel 1 from a high place, so that the water floods the water removal member 4, and the wipe is squeezed on the water removal member 4 At this time, the water removal member 4 is driven by an external force to rotate, so that the plurality of scrapers 21 on the water removal member 4 scrape the wipes. When the wipes are cleaned, the water in the barrel 1 Pour out, there is no water in the bucket 1 at this time, continue to squeeze the wiper on the water removal member 4, and make the wiper rotate or translate. At this time, the water removal member 4 is driven by an external force to rotate , The dewatering member 4 is made to scrape the squeezed wipe, the squeezed wipe squeezes out the remaining moisture in the wipe, and finally the wipe completes the dewatering step.

The water supply mechanism w15 includes a water inlet pipe w16 arranged on the barrel 1, the water inlet pipe w16 is connected to the cleaning cavity 404a, and the water inlet pipe w16 can take water from the top of the barrel 1 It is sent down into the cleaning cavity 404a.

In this example, water is poured downward from the water inlet pipe w16 into the cleaning cavity 404a.

The water removing member 4 described in this embodiment is any one or a combination of scrapers and rollers.

The bucket body 1 is also provided with a wiper frame w17 for placing a plurality of water removal elements 4, and the plurality of water removal elements 4 can rotate in the wiper frame w17.

Squeeze the wiper on the wiper frame w17. In the present invention, the water removing member 4 extends upwards out of the wiper frame w17. Therefore, the height of the water removing member 4 is higher than that of the wiper frame w17. When the wiper is squeezed on the wiper frame w17, a large squeezing force is generated between the water removing member 4 and the wiper. When the wiper needs to be cleaned with water, a water pump w32 works to use the outside for cleaning and wiping. The water of the object flows into the barrel 1 through the water inlet pipe w16, and makes the water in the barrel 1 submerge the wiper frame w17 and the water removal member 4. At this time, the water removal member 4 rotates so that the wiper is in the Wash in water.

The cleaning cavity 404a communicates with a loop water cavity w22, the bottom of the loop water cavity w22 is connected with a loop water pipe w43, and the end of the loop water pipe w43 away from the loop water cavity w22 The portion extends upward and is connected to the top of the cleaning chamber 404a, and the loop water pipe w43 is provided with a loop water pump w25.

In this example, the water after cleaning once will flow into the loop water cavity w22, and the used water will be poured into the cleaning cavity 404a through the loop water pipe w43 through the loop water pump w25 and wiped Cleaning materials to save resources.

A connecting groove w23 is connected between the loop water cavity w22 and the cleaning cavity 404a, a baffle w24 is movably connected in the connecting groove w23, and the baffle w24 can extend into the connecting groove The communication state between the circulating water cavity w22 and the cleaning cavity 404a is blocked within w23.

After the cleaning is completed, extend the baffle w24 out of the connecting groove w23 to keep the connecting groove w23 unobstructed, and the water in the cleaning cavity 404a will flow into the circulating water cavity w22 through the connecting groove w23 to make the load When the cleaning cavity 404a is maintained without water, the dewatering member 4 rotates to perform a dewatering step on the wipe.

Preferably, the lower side of the baffle w24 has a filter w42 arranged in the connecting groove w23.

Since the cleaning wipe will wash out some particulate impurities, when the water flows through the connection groove w23, the water first passes through the filter w42, thereby filtering out some larger impurities When in use, the circulating water pump w25 works to pour the water in the circulating water cavity w22 through the circulating water pipe w43 into the circulating water pipe 11 again.

A control method of the water removal element is: as shown in FIG. 14, the wiper frame w17 or the barrel 1 is provided with a plurality of rotating motors w40, a plurality of rotating motors w40 and a plurality of the water removing members 4 In a one-to-one correspondence, the output shaft of the rotating motor w40 is connected to the corresponding water removal element 4.

The wiper frame w17 or the barrel 1 is provided with a plurality of the rotating motors w40, and the plurality of the rotating motors w40 correspond to the plurality of the water removal elements 4 one-to-one, and the output of the rotating motor w40 The shaft is connected with the corresponding water removal element 4. The rotation motor w40 drives the water removing member 4 to rotate so as to perform cleaning and wiping operations on the wipes.

Another control method of the water removal element is: as shown in Fig. 15, the end of each water removal element 4 is provided with a driven gear w19, and the wiper frame w17 is provided with a plurality of driving gears w20, Each driving gear w20 corresponds to at least two dewatering elements 4, and each driving gear w20 is in meshing connection with a driven gear w19 on a plurality of corresponding dewatering elements 4, and the driving gear w20 is connected with The rotating motor w40 arranged in the wiper frame w17 or the barrel 1.

As shown in FIG. 15, when the water removing member 4 needs to be rotated to perform cleaning and wiping of the wipes, the driving motor w40 works to drive the driving gear w20 to rotate, because the driving gear w20 and a plurality of the driven gears The gear w19 is meshed and connected, and the rotation of the driving gear w20 can drive the driven gear w19 to rotate, thereby driving a plurality of the water removing elements 4 to rotate at the same time, and there is no need to install too many motors, which saves costs.

Another control method of the water removal element is: as shown in FIG. 16, a pedal shaft w29 is rotatably connected in the barrel 1, and the wiper frame w17 is hinged with a pedal shaft w29. The pedal shaft w29 is provided with a plurality of pedal gears w30 corresponding to the water removal member 4 one by one, and each of the water removal members 4 is provided with a connecting gear meshing with the corresponding pedal gear w30 w31.

The pedal shaft w29 extends out of the barrel 1 and the pedal shaft w29 extends out of the barrel 1 with a pedal w41 at an end.

In this embodiment, by stepping on the foot pedal w41 with a foot to generate a force to drive the water removal member 4 to rotate, instead of driving the water removal member 4 to rotate by a motor to perform the cleaning and cleaning of the wipes by the water removal member 4 Wipe the water to prevent the motor from being corroded by water and causing a short circuit. Step on the pedal w41 with a foot, thereby driving the pedal shaft w29 to rotate, so that the pedal gear w30 rotates. Because the pedal gear w30 meshes with the connecting gear w31, the connecting gear w31 carries the The water piece 4 rotates.

Example 9

As shown in Figures 17-18, in the wipe cleaning device of the mopping machine of this embodiment, the barrel 1 is provided with a water storage assembly 1a, and the water removal member 4 includes a plurality of rollers 103. The assembly 1a can be raised and lowered relative to the barrel 1 or the water storage assembly 1a is provided with a liquid level driving assembly 12 for driving the liquid level to rise and fall.

The wiper of the floor scrubber is placed in the barrel 1 and abutted against the roller 103, and the wiper of the floor scrubber can rotate in the circumferential direction.

In this embodiment, when the wiper of the floor scrubber rotates, the roller 103 can be driven to rotate. When the water storage assembly 1a moves until the roller 103 is immersed in the cleaning water in the water storage assembly 1a, or the water storage assembly The liquid level driving assembly 12 in 1a drives the liquid level up until the roller 103 is immersed in the cleaning water in the water storage assembly 1a. The rotation of the roller 103 can transport the water to the wiper of the mopping machine, thereby enabling Clean the wipes of the floor scrubber. When the roller 103 is separated from the water, the wipes of the floor scrubber rotate to drive the rollers to rotate idly. At this time, water cannot be delivered. The wipes are quickly scraped or spin-dried. Secondly, the cleaning device discards the automatic rotation function of the roller overlapping with the scrubber in the prior art, which greatly reduces the cost of the equipment.

The water storage assembly 1a is a water storage container 2 having a water storage tank 22, and the water storage container 2 is connected to the barrel 1 through a hand-pressing locking element.

In this embodiment, as shown in FIG. 17 and FIG. 18, the water storage tank 22 can store cleaning water, and the manual locking assembly can cooperate with external force to realize the rising and falling of the water storage tank 22, thereby controlling the roller 103 to cooperate with the scrubber. Water or no water when the wipe is rotated.

The working principle of the ninth embodiment is: when the wiper of the floor scrubber rotates, the roller 103 can be driven to rotate, and the hand-pressing and locking assembly can cooperate with external force to realize the ascent of the water storage tank 22, so that the roller 103 is immersed in the water storage assembly 1a. When the cleaning water is used in the cleaning water, the rotation of the roller 103 can transport the water to the wipes of the scrubbing machine, so that the wipes of the scrubbing machine can be cleaned. The hand locking element can cooperate with the external force to drive the water storage tank 22 down to enable The roller 103 is separated from the water, and the wiper of the floor scrubber rotates to drive the roller idling. At this time, water cannot be transferred. The rotation of the wiper of the floor scrubber can realize the wipes of the floor scrubber can be quickly scraped or dried. The cleaning device abandons the automatic rotation function of the roller overlapping with the scrubber in the prior art, which greatly reduces the cost of the equipment.

Example ten

The tenth embodiment is basically the same in structure and working principle as the ninth embodiment, and the difference is shown in FIG. 19: the liquid level drive assembly 12 includes a liquid level drive plate 13 arranged on both sides of the water storage tank 22 And a driving member 14 that can drive the liquid level driving plates 13 to be close to or away from each other.

In this embodiment, the driving member 14 can drive the liquid level driving plates 13 to move closer to or away from each other. When the driving member 14 drives the liquid level driving plates 13 to move closer to each other, the liquid level in the water storage tank 22 rises, and the driving member 14 When the liquid level driving plates 13 are driven to move away from each other, the liquid level in the water storage tank 22 drops.

Those skilled in the art should understand that the drive member 14 may be a linear drive or an air cylinder.

The working principle of the tenth embodiment is: when the wiper of the floor scrubber rotates, the roller 103 can be driven to rotate, and the liquid level driving assembly 12 in the water storage assembly 1a drives the liquid level to rise until the roller 103 is immersed into the water storage assembly When the cleaning water in 1a is used, the roller 103 can rotate to transport the water to the wipes of the scrubber, so that the wipes of the scrubber can be cleaned. When the roller 103 is separated from the water, the scrubber's Rotation of the wipes drives the roller to rotate idly. At this time, water cannot be delivered. The rotation of the wipes of the wiping machine can realize the wipes of the wiping machine to dry or spin dry quickly. The automatic rotation function of the overlapping rollers greatly reduces the cost of the equipment; the driving member 14 can drive the liquid level driving plate 13 to move closer to or away from each other, and when the driving member 14 drives the liquid level driving plate 13 to move closer to each other, the water storage tank When the liquid level in the water storage tank 22 rises and the driving member 14 drives the liquid level driving plates 13 to move away from each other, the liquid level in the water storage tank 22 drops.

The structure and working principle of the eleventh embodiment is basically the same as that of the ninth embodiment, and the difference is shown in FIG. The driving member 14 that drives the filling block 15 close to or away from the water storage tank 22.

In this embodiment, the driving member 14 can drive the filling block 15 close to or away from the water storage tank 22. When the driving member 14 drives the filling block 15 to descend until it is immersed in the water storage tank, the liquid level in the water storage tank rises. When the driving member 14 drives the filling block 15 to gradually detach from the water storage tank, the liquid level in the water storage tank drops.

The working principle of the eleventh embodiment is: when the wiper of the floor scrubber rotates, the roller 103 can be driven to rotate, and the liquid level driving assembly 12 in the water storage assembly 1a drives the liquid level to rise until the roller 103 is immersed in the water storage. When the cleaning water in the assembly 1a is in the cleaning water, the rotation of the roller 103 can transport the water to the wipes of the floor scrubbing machine, so that the wipes of the floor scrubbing machine can be cleaned. When the roller 103 is separated from the water, the floor scrubbing machine The rotation of the wiper drives the roller idling. At this time, water cannot be delivered. The wiper rotation of the floor scrubber can realize the wipes of the floor scrubber to dry or spin dry quickly. Secondly, the cleaning device discards the prior art and The automatic rotation function of the machine-phase overlapping roller greatly reduces the cost of the equipment; the drive member 14 can drive the filling block 15 to approach or move away from the water storage tank 22, and the drive member 14 drives the filling block 15 to fall into the water storage tank At this time, the liquid level in the water storage tank rises, and when the driving member 14 drives the filling block 15 to gradually separate from the water storage tank, the liquid level in the water storage tank drops.

Example 12

As shown in Figures 21 to 23, in this embodiment, the barrel 1 includes the cleaning cavity 404a, the cleaning cavity 404a is provided with the water removal member 4, and the cleaning cavity 404a is provided with a sewage outlet 404b , The sewage discharged from the sewage outlet 404b flows to the sewage area 406; when a scrubbing machine 100 is cleaning, the water in the cleaning chamber 404a contacts the wipe b100 of the scrubbing machine 100 or the cleaning chamber 404a Water is delivered to the wipe b100 through a device in the prior art; when the scrubbing machine 100 is dewatering, the dewatering member 4 scrapes the wipe b100 of the scrubbing machine 100, and the water in the cleaning chamber 404a Discharge to the sewage area 406 from the sewage outlet 404b. The working principle of the mopping machine is the mopping machine in the prior art. The mopping machine includes a motor that drives the wiper b100 to rotate so as to clean the floor or wall. This embodiment is using When used, the cleaning cavity 404a contains water, and the water contacts the wipe b100 to achieve water washing. After the water washing, the water in the cleaning cavity 404a is discharged from the sewage outlet 404b to the sewage area 406, and the wiping The object b100 is no longer in contact with water. At this time, the wipe b100 can be wiped with the water removing member 4 to remove water, and the wipe b100 washed with water can be wiped dry.

Preferably, when the scrubbing machine 100 is cleaning the cleaning chamber 404a, the water removing member 4 scrapes the wiper b100 of the scrubbing machine 100. When washing with water, it also scratches the wipe b100, and the stains on the wipe b100 are scraped off.

In this embodiment, the dewatering element 4 is fixedly arranged with the cleaning chamber 404a. At this time, the wiper b100 of the floor scrubbing machine 100 is driven to rotate, and the dewatering element 4 can be scraped by the wiper b100. Wipe to achieve cleaning and dewatering.

In another embodiment, the dewatering element 4 is connected to a driving device, and the driving device drives the dewatering element 4 to rotate or translate. The driving device is preferably a motor, and the motor drives the water removal member 4 to rotate. When the motor drives the water removal member 4 to translate, a structure in the prior art that can convert the rotational power into linear motion is configured, for example, the motor in a punch press rotates through a slide The block or connecting rod structure is transformed into the vertical movement of the punch.

The water removing member 4 in this embodiment is any one or a combination of a scraper, a roller, and a scraper. Preferably, the scraping strip is a strip-shaped scraping member, the rotating roller and the cleaning cavity 404a are rotatably arranged, and the scraping brush has bristles which can effectively remove hair.

In this embodiment, the cleaning cavity 404a and the sewage area 406 are arranged in a high and low position, and the sewage outlet 404b is higher than the water inlet of the sewage area 406. In this structure, the water in the cleaning chamber 404a can be discharged into the sewage area 406 from top to bottom.

Preferably, the cleaning cavity 404a and the sewage area 406 are arranged up and down, and the cleaning cavity 404a is located above the sewage area 406. The cleaning cavity 404a and the sewage area 406 are arranged up and down, which saves horizontal space and discharges sewage more smoothly.

Preferably, the cleaning cavity 404a and the sewage area 406 are detachably connected. After the two are separated, it is easy to clean, especially when the cleaning cavity 404a and the sewage area 406 are arranged up and down, the cleaning cavity 404a covers part or all of the sewage area 406, and thorough cleaning can be achieved after the two are separated. Preferably, the detachable and connected implementation may be that the cleaning cavity 404a is provided in the sewage area 406, and a support 407 is provided at the bottom of the cleaning cavity 404a and the supporting member 407 supports the cleaning cavity 404a, or Yes, the cleaning cavity 404a is nested with the sewage area 406, and the outer diameter of the cleaning cavity 404a is wide in the upper part and narrow in the lower part, so as to be supported by the sewage area 406; it is also possible that the cleaning chamber 404a is provided with a hook, and the hook The cleaning cavity 404a is hung in the sewage area 406.

In this embodiment, the sewage outlet 404b is provided with a plug 404c or valve for controlling the communication between the cleaning chamber 404a and the sewage area 406. Preferably, when the scrubber 100 is cleaning, the plug 404c or valve blocks the communication between the cleaning chamber 404a and the sewage area 406; when the scrubber 100 is dewatering, the plug 404c or valve is opened.

In this embodiment, the scrubber 100 is supported by the cleaning chamber 404a or the sewage area 406. As one of the embodiments, the cleaning chamber 404a or the sewage area 406 is provided with a supporting seat 61, and the supporting seat 61 supports the cleaning machine 100 when the cleaning chamber 404a is washed or dewatered; or, A support frame 201 is provided above the cleaning chamber 404a or the sewage area 406. The mopping machine 100 is provided with a clip 202, the support frame 201 is provided with a support portion 23, and the support portion 23 supports the clip 202 so as to The mopping machine 100 is prevented from moving downward. Preferably, the supporting portion 23 is a notch, and the hand lever portion of the floor scrubber 100 is provided with the clamping member 202. After the hand lever portion falls into the notch, the edge of the notch supports the clamping member 202.

Preferably, the lower bottom surface of the scrubber 100 is provided with a cavity 60, the cleaning cavity 404a is provided with the support seat 61, and when the scrubber 100 is in the cleaning cavity 404a, the support seat 61 is inserted into the recess. Cavities 60. The supporting seat 61 not only supports the scrubber 100, but also realizes positioning through the cavity 60.

This embodiment also includes a water supply device that delivers water to the cleaning cavity 404a. The water supply device provides a water source for washing the wipes, so that a clean water source can be used for each washing.

The water supply device in this embodiment includes a pump, which pumps water from the cleaning cavity 404a or the sewage area 406 or an external water source to the cleaning cavity 404a. Before cleaning the wipe b100 of the scrubbing machine 100, the pump operates to deliver water to the cleaning chamber 404a. It is preferable that the water just soaks into the wipe b100, and then the pump stops sending water. The above-mentioned control can be controlled manually or Controlled by single chip microcomputer.

The water supply device in this embodiment includes a water tank 71, the water in the water tank 71 is drained to the cleaning chamber 404a by a water pipe, and the water pipe is connected to a water valve 72. When the water valve 72 is opened, the water in the water tank 71 flows The cleaning cavity 404a. Before cleaning the wipe b100 of the scrubbing machine 100, open the water valve to store water into the cleaning chamber 404a. It is preferable that the water can just soak into the wipe b100. After the water storage is completed, the water valve is changed. The control of the water valve can be controlled manually or controlled by a single-chip microcomputer.

The water supply device in this embodiment includes a pipeline connected to the cleaning cavity 404a, and the pipeline is connected to a water supply source. The water supply source can be municipal water supply, such as a tap.

To sum up, it is only a preferred embodiment of the present model. When the scope of implementation of the present model cannot be limited by this, that is, all equal changes and modifications made in accordance with the scope of the patent application of the present model should still belong to the present model. The scope of patent coverage.

1: barrel

3: Lifting mechanism

4: Dewatering parts

21: Scrape

b3: drive mechanism

b6: Circumferential drive

b7: Linear drive

b8: Lifting frame

b9: Rail frame

b10: rail strip

b100: wipes

Claims (10)

A wiper cleaning device for a floor scrubbing machine is connected with a wiper, and is characterized in that it comprises a bucket body, and a water removing member is arranged in the bucket body, and the wiper contacts the water surface during cleaning; When the wipe is separated from the water surface, the water removing member scrapes the wipe. The wipe cleaning device for a floor scrubber according to claim 1, wherein the barrel is provided with a driving mechanism for driving the water removal member and the barrel to rotate, and the floor scrubber Move vertically in the barrel. The wipe cleaning device for a floor scrubbing machine according to claim 2, wherein the driving mechanism includes a circumferential drive, and a rotating shaft of the circumferential drive is fixedly connected to the water removal member. The wipe cleaning device for a floor scrubber according to claim 2, characterized in that it further comprises a lifting mechanism, said lifting mechanism comprising a body arranged in the barrel and used to drive the water removal member to rise or fall Linear drive. The wipe cleaning device for a floor scrubber according to claim 2, characterized in that it further comprises a lifting mechanism, said lifting mechanism comprising a lifting and turning plate arranged in the barrel, said lifting and turning The plate rotates and cooperates with the barrel body. The wipe cleaning device for a floor scrubber according to claim 1, wherein the barrel is provided with a sewage chamber and a cleaning chamber, and the floor scrubber is washed and wiped dry in the cleaning chamber, The dewatering element is arranged in the cleaning cavity, and a sewage drainage channel is arranged between the cleaning cavity and the dewatering cavity. The wipe cleaning device of a floor scrubber according to claim 1, wherein the barrel includes a water removal cavity and a cleaning cavity capable of holding water, and the water removal member is provided in the The dewatering cavity. The wipe cleaning device for a floor scrubber according to claim 1, wherein the barrel body has a cleaning cavity for cleaning the wipes of the floor scrubber, and the water removal member It moves in translation in the barrel, and the floor scrubber is vertically movably arranged in the barrel. The wipe cleaning device for a floor scrubber according to claim 1, characterized in that the water removing member can be rotated along its own centerline axis. The wipe cleaning device for a floor scrubber according to claim 1, wherein the barrel is provided with a plurality of rollers and a water storage assembly, and the water storage assembly can be raised and lowered relative to the barrel or The water storage assembly is provided with a liquid level driving assembly for driving the liquid level to rise and fall.

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