CN217471875U

CN217471875U - Recovery storage part and wet type surface cleaning equipment

Info

Publication number: CN217471875U
Application number: CN202221082506.8U
Authority: CN
Inventors: 曹力; 唐成; 段飞
Original assignee: Beijing Shunzao Technology Co Ltd
Current assignee: Beijing Shunzao Technology Co Ltd
Priority date: 2022-05-07
Filing date: 2022-05-07
Publication date: 2022-09-23
Anticipated expiration: 2032-05-07

Abstract

The present disclosure provides a recovery storage unit, which includes: a recovery tank having an open top and a closed first bottom wall; a hollow riser extending at least partially outside the recovery vessel, one end of the hollow riser communicating with the recovery vessel; and a filter removably mounted within the recovery tank, the filter having a portion operatively connected to the recovery tank. The present disclosure also provides a wet surface cleaning apparatus.

Description

Recovery storage part and wet type surface cleaning equipment

Technical Field

The present disclosure relates to a recycling storage part and a wet type surface cleaning apparatus.

Background

Wet surface cleaning apparatuses, which are usually vacuum + water cleaning wet surface cleaning apparatuses, are currently mostly upright. Upright wet surface cleaning apparatuses typically include a cleaning base on which a main body is pivotally mounted. The various components of the main body of the wet surface cleaning apparatus, i.e. the vacuum motor, supply tank, recovery tank, rechargeable battery, etc. may be mounted on the main body, which is pivotally mounted on a cleaning base, which is moved back and forth across the floor surface to encourage cleaning to be completed.

In recent years, there has been a multi-purpose wet surface cleaning apparatus which combines the wet surface cleaning apparatus with a portable vacuum cleaner in a vertical orientation. Such multi-purpose wet surface cleaning apparatus may be used as a wet surface cleaning apparatus for wet cleaning of a floor surface, and may also be used to clean surfaces above a floor surface to be cleaned, such as table tops, counter tops, curtains and the like, using a detachable portable vacuum cleaner. A multi-purpose wet surface cleaning apparatus comprises a wet surface cleaning apparatus assembly and a dry vacuum cleaner assembly. The wet surface cleaning apparatus assembly and the dry vacuum cleaner assembly, which together form a typical upright wet surface cleaning apparatus, can be separated from each other, and the dry vacuum cleaner assembly, which includes a suction power source and a rechargeable battery, used with a dirt cup or other cleaning accessory, forms a stand-alone portable hand-held vacuum cleaner.

In order to enable the sub-assembly to be used alone as a wet surface cleaning apparatus after being detached from the support assembly, it is necessary to design a new recycling storage part, the existence of which enables the sub-assembly to be more compact in structure, thereby facilitating the detachment.

SUMMERY OF THE UTILITY MODEL

In order to solve one of the above technical problems, the present disclosure provides a recycling storage part and a wet type surface cleaning apparatus.

According to an aspect of the present disclosure, there is provided a recycling storage portion including:

a recovery tank having an open top and a closed first bottom wall;

a hollow riser extending at least partially outside the recovery vessel, one end of the hollow riser communicating with the recovery vessel; and

a filter removably mounted within the recovery tank, the filter having a portion operatively connected to the recovery tank.

According to at least one embodiment of the present disclosure, the recycling container includes a sidewall extending from a first bottom wall to an open top, wherein the filter is spaced apart from the first bottom wall of the recycling container.

According to at least one embodiment of the present disclosure, the recovery storage section, the outlet of the hollow riser pipe defines an inlet of the hollow riser pipe connected to the top of the recovery vessel.

According to the recycling storage portion of at least one embodiment of the present disclosure, the portion of the filter operatively connected to the recycling container includes a coupling portion adapted to a side wall of the recycling tank.

A recycling storage portion according to at least one embodiment of the present disclosure, the coupling portion adapted to operatively connect a filter within the recycling container.

According to at least one embodiment of the present disclosure, the filter includes a flat base or a substantially flat base.

According to the recycling storage part of at least one embodiment of the present disclosure, at least a portion of the base is formed with a through hole.

The recovery storage unit according to at least one embodiment of the present disclosure further includes:

a lid assembly removably disposed to the recovery container, the lid assembly at least partially enclosing an open top of the recovery container and defining an air outlet of the recovery container in fluid communication with a suction source.

a secondary filter assembly removably attached to the lid assembly, wherein the secondary filter assembly is upstream of the air outlet in a direction of gas flow from the recovery tank to the suction source.

According to the recycling storage part of at least one embodiment of the present disclosure, the cap assembly includes a gas inlet, and the gas inlet of the cap assembly is disposed away from the filter when the cap assembly is disposed at the recycling container.

According to the recovery storage part of at least one embodiment of the present disclosure, the lower portion of the cap assembly is provided with a baffle plate that at least partially covers the gas inlet of the cap assembly and is at least partially disposed at a position between the gas inlet and the filter.

According to the recovery storage part of at least one embodiment of the present disclosure, the recovery container includes an extension part extending from a sidewall of the recovery container in a direction away from the sidewall of the recovery container, and the inlet of the hollow riser pipe is connected to the extension part.

According to the recycling storage portion of at least one embodiment of the present disclosure, the recycling container further includes a second bottom wall through which the outlet of the hollow stand pipe passes, being located inside the recycling container.

According to the recovery storage part of at least one embodiment of the present disclosure, the filter is formed with a filtering space, and the solid-liquid mixture flowing out of the outlet of the hollow stand pipe can flow into the filtering space of the filter.

According to the recycling storage part of at least one embodiment of the present disclosure, the outlet of the hollow stand pipe is higher than the upper opening of the filtering space of the filter.

According to the recovery storage part of at least one embodiment of the present disclosure, the recovery container further includes a third bottom wall, and at least a portion of the filter is in contact with the third bottom wall to restrict a position of the filter in a vertical direction by the third bottom wall.

According to another aspect of the present disclosure, there is provided a wet surface cleaning apparatus comprising the above-described recovery storage section.

A wet surface cleaning apparatus according to at least one embodiment of the present disclosure, further comprising:

a cleaning base for cleaning a surface to be cleaned;

a support assembly pivotably mounted to a cleaning base and in fluid communication with the cleaning base; and

a subassembly removably mounted to the support assembly, wherein the subassembly is capable of being used as a stand alone wet surface cleaning apparatus when the subassembly is removed from the support assembly; the subassembly includes:

a body portion forming an outer contour of the wet surface cleaning apparatus;

a cleaning liquid storage portion provided to the main body portion for storing a cleaning liquid, the cleaning liquid storage portion being for supplying the cleaning liquid to a cleaning base portion for wet-cleaning the surface to be cleaned based on the cleaning liquid supplied from the cleaning liquid storage portion when the sub-assembly is mounted to the support assembly;

a suction source provided to the main body portion for generating a suction force, the suction source communicating with the cleaning base when the sub-assembly is mounted to the support assembly, so that the cleaning base sucks the recovery liquid and dirt after cleaning the surface to be cleaned to a recovery storage portion; and

a recovery storage part provided to the main body part to store the recovery liquid and the dirt, the recovery storage part storing the recovery liquid and the dirt sucked by the suction source when the sub-assembly is mounted to the support assembly.

Drawings

The accompanying drawings, which are included to provide a further understanding of the disclosure and are incorporated in and constitute a part of this specification, illustrate exemplary embodiments of the disclosure and together with the description serve to explain the principles of the disclosure.

Fig. 1-3 are schematic views of different angles of a wet surface cleaning system according to one embodiment of the present disclosure.

Fig. 4 and 5 are schematic structural views of a cleaning base according to one embodiment of the present disclosure.

Fig. 6 to 9 are schematic structural views of a cleaning base according to another embodiment of the present disclosure.

Fig. 10 and 11 are schematic structural views of a cleaning base according to a third embodiment of the present disclosure.

Fig. 12 is a schematic structural view of a wet surface cleaning system according to one embodiment of the present disclosure.

Fig. 13 is a sectional structure schematic view of a cleaning liquid storage portion according to one embodiment of the present disclosure.

Fig. 14 is a schematic piping connection diagram of a wet surface cleaning system according to one embodiment of the present disclosure.

Fig. 15 is a schematic structural view of a recovery storage unit according to an embodiment of the present disclosure.

Fig. 16 and 17 are another configuration schematic diagram of a recovery storage part according to an embodiment of the present disclosure.

Fig. 18 is a schematic sectional structure view of a recovery storage part according to an embodiment of the present disclosure.

FIG. 19 is a schematic structural view of a filter according to one embodiment of the present disclosure.

Fig. 20 is a schematic structural view of a cap assembly according to one embodiment of the present disclosure.

10 wet surface cleaning system

100 cleaning base

110 cleaning module

111 first power part

112 cleaning element

113 second power section

114 speed changing device

115 cleaning drive device

116 driving synchronous pulley

117 driven timing pulley

121 liquid dispensing module

122 steam distribution module

124 dispensing pump

125 second thick film heater

130 dirt suction module

140 housing module

150 installation joint module

160 moving wheel module

170 holder part

180 partition part

200 support assembly

210 support platform

220 platform upright post

230 handle

231 rod part

232 handle

240 second recovery connection

250 second fluid coupling interface

270 second circuit interface

300 subassembly

310 main body part

320 cleaning liquid storage part

321 solution tank

322 filling cap

323 valve assembly

330 suction source

340 recovery storage unit

341 recovery container

3411 first bottom wall

3412 side wall

3413 extension part

3414 second bottom wall

3415 third bottom wall

342 hollow riser

343 filter

3431 coupling part

3432 base

344 cap assembly

3441 gas inlet

3442 baffle plate

3443 air vent

345 secondary filter assembly

350 handle

355 recess

360 rechargeable battery module

370 latch button

380 function button

390 interface part

391 interface cover

395AC/DC converter

410 first recovery connection

420 first fluid coupling interface

430 airflow outlet

440 first electrical component

460 flow divider

470 first circuit interface

480 first thick film heater

490 transfer pump

500 second electrical element.

Detailed Description

The present disclosure will be described in further detail with reference to the drawings and embodiments. It is to be understood that the specific embodiments described herein are for purposes of illustration only and are not to be construed as limitations of the present disclosure. It should be further noted that, for the convenience of description, only the portions relevant to the present disclosure are shown in the drawings.

It should be noted that the embodiments and features of the embodiments in the present disclosure may be combined with each other without conflict. Technical solutions of the present disclosure will be described in detail below with reference to the accompanying drawings in conjunction with embodiments.

Unless otherwise indicated, the illustrated exemplary embodiments/examples are to be understood as providing exemplary features of various details of some ways in which the technical concepts of the present disclosure may be practiced. Accordingly, unless otherwise indicated, features of the various embodiments may be additionally combined, separated, interchanged, and/or rearranged without departing from the technical concept of the present disclosure.

The use of cross-hatching and/or shading in the drawings is generally used to clarify the boundaries between adjacent components. As such, unless otherwise noted, the presence or absence of cross-hatching or shading does not convey or indicate any preference or requirement for a particular material, material property, size, proportion, commonality between the illustrated components and/or any other characteristic, attribute, property, etc., of a component. Further, in the drawings, the size and relative sizes of components may be exaggerated for clarity and/or descriptive purposes. While example embodiments may be practiced differently, the specific process sequence may be performed in a different order than that described. For example, two processes described consecutively may be performed substantially simultaneously or in reverse order to that described. In addition, like reference numerals denote like parts.

When an element is referred to as being "on" or "on," "connected to" or "coupled to" another element, it can be directly on, connected or coupled to the other element or intervening elements may be present. However, when an element is referred to as being "directly on," "directly connected to" or "directly coupled to" another element, there are no intervening elements present. For purposes of this disclosure, the term "connected" may refer to physically, electrically, etc., and may or may not have intermediate components.

For descriptive purposes, the present disclosure may use spatially relative terms such as "below … …," below … …, "" below … …, "" below, "" above … …, "" above, "" … …, "" higher, "and" side (e.g., as in "side wall") to describe one component's relationship to another (other) component as illustrated in the figures. Spatially relative terms are intended to encompass different orientations of the device in use, operation, and/or manufacture in addition to the orientation depicted in the figures. For example, if the device in the figures is turned over, elements described as "below" or "beneath" other elements or features would then be oriented "above" the other elements or features. Thus, the exemplary term "below … … can encompass both an orientation of" above "and" below ". Further, the devices may be otherwise positioned (e.g., rotated 90 degrees or at other orientations) and the spatially relative descriptors used herein interpreted accordingly.

The terminology used herein is for the purpose of describing particular embodiments and is not intended to be limiting. As used herein, the singular forms "a", "an" and "the" are intended to include the plural forms as well, unless the context clearly indicates otherwise. Furthermore, when the terms "comprises" and/or "comprising" and variations thereof are used in this specification, the presence of stated features, integers, steps, operations, elements, components and/or groups thereof are stated but does not preclude the presence or addition of one or more other features, integers, steps, operations, elements, components and/or groups thereof. It is also noted that, as used herein, the terms "substantially," "about," and other similar terms are used as approximate terms and not as degree terms, and as such, are used to interpret inherent deviations in measured values, calculated values, and/or provided values that would be recognized by one of ordinary skill in the art.

As shown in fig. 1-3, a wet surface cleaning system 10 of the present disclosure may include a cleaning base 100 for contacting a floor surface, a support assembly 200 mounted on the cleaning base 100, and a subassembly 300 selectively mounted on the support assembly 200, the subassembly 300 being capable of being used independently when the subassembly 300 is removed from the support assembly, e.g., as part of a stand-alone wet surface cleaning apparatus, in which case the subassembly 300 is capable of being attached to an accessory and such that the subassembly 300 and the accessory comprise the wet surface cleaning apparatus; when the sub-assembly 300 is mounted to the support assembly 200, the cleaning base 100 is described.

Fig. 4 and 5 are schematic structural views of a cleaning base according to one embodiment of the present disclosure. Fig. 6 to 9 are schematic structural views of a cleaning base according to another embodiment of the present disclosure. Fig. 10 and 11 are schematic structural views of a cleaning base according to a third embodiment of the present disclosure.

As shown in fig. 4 and 5, the cleaning base 100 is used for cleaning a surface to be cleaned, and the cleaning base 100 may include a cleaning module 110, and the cleaning module 110 may be driven to rotate so as to clean the surface to be cleaned by frictional contact between the surface of the cleaning module 110 and the floor surface to be cleaned.

In one embodiment, as shown in fig. 10 and 11, the cleaning module 110 may be formed in the form of a roll brush, for example, the cleaning module 110 includes a first power part 111 and cleaning members 112; the cleaning member 112 is disposed outside the first power portion 111, for example, the cleaning member 112 is wrapped around the first power portion 111 and can rotate together with the first power portion 111. The first power part 111 can be driven to rotate by the cleaning driving device 115, so that the cleaning member 112 rotates, and the cleaning of the surface to be cleaned is realized by the relative movement of the cleaning member 112 and the surface to be cleaned.

On the other hand, as shown in fig. 4 to 9, the cleaning module 110 may also be formed in a crawler-type structure, and specifically, the cleaning module 110 includes a first power part 111, a second power part 113, and a cleaning member 112, wherein the cleaning member 112 is formed as a ring-shaped member and is disposed around the first power part 111 and the second power part 113.

In the present disclosure, as shown in fig. 6, 9 and 11, the first power unit 111 and/or the second power unit 113 can be driven to rotate by the cleaning driving device 115. Preferably, the first power unit 111 is driven to rotate by the cleaning driving device 115, and the second power unit 113 is driven to rotate by the first power unit 111 through a ring, that is, the first power unit 111 is formed as a driving roller, and the second power unit 113 is formed as a driven roller and the cleaning member 112.

In the present disclosure, the second power part 113 is located in front of the first power part 111 with the moving direction of the wet surface cleaning system 10 when cleaning the surface to be cleaned as a front direction, and the outer diameter of the second power part 113 is smaller than that of the first power part 111, so that the wet surface cleaning system 10 can clean parts such as corners of walls as much as possible.

The cleaning driving device 115 may be a motor, such as a dc motor, a stepping motor, etc., and the dc motor is preferably a dc brushless motor.

The cleaning driving device 115 may drive the first power unit 111 to rotate through a speed changing device 114, and the speed changing device 114 may be located inside the first power unit 111 or outside the first power unit 111. When the speed changing device 114 is arranged inside the first power part 111, the cleaning base 100 can be made to have a smaller volume and thereby the wet surface cleaning system 10 can be adapted to wash a surface to be cleaned in a smaller space.

The cleaning driving unit 115 may drive the speed changing unit 114 through a transmission assembly, which may be a belt transmission assembly, a chain transmission assembly, a gear transmission assembly, and the like, and is preferably a synchronous belt transmission assembly.

As shown in fig. 5, the cleaning base 100 may further include a fluid distribution module for supplying a predetermined amount of cleaning liquid to the cleaning module 110 or to a surface to be cleaned near the cleaning module 110 to supply the cleaning liquid to the surface to be cleaned by rotation of the cleaning module 110, so that the cleaning base 100 performs wet cleaning on the surface to be cleaned.

In the present disclosure, as shown in fig. 4 and 5, the fluid distribution module includes a liquid distribution module 121 and a vapor distribution module 122, wherein the liquid distribution module 121 is connected to a second fluid connection interface 250, for example, a liquid distribution connection connected to the second fluid connection interface 250. In this way, the liquid distribution module 121 can receive the cleaning liquid provided by the second fluid connection interface 250 and provide the cleaning liquid to the cleaning module 110 of the cleaning base 100 or to the surface to be cleaned near the cleaning module 110 of the cleaning base 100.

The liquid distribution module 121 may be located inside the cleaning module or outside the cleaning module 110, for example, behind the cleaning module 110. And the outlet of the liquid distribution module is located on or adjacent to an outer surface of the cleaning module.

The steam distribution module 122 is connected to the second fluid connection interface 250 or the second thick film heater 125 of the cleaning base 100, for example, the steam distribution module 122 can be connected to the steam distribution connection of the second fluid connection interface 250, at which time the first thick film heater 480 can receive the cleaning liquid stored in the cleaning liquid storage 320 and heat the cleaning liquid and generate steam, which is provided to the first fluid connection interface, and further, through the connection of the first fluid connection interface and the second fluid connection interface, is delivered to the steam distribution module 122, and further, the steam is provided by the steam distribution module 122 to the surface to be cleaned near the cleaning module 110 of the cleaning base 100.

On the other hand, the vapor distribution module 122 may also be connected to the second thick film heater 125 and may receive the vapor generated by the second thick film heater 125, in this case, the second thick film heater 125 may be connected to the second fluid connection interface 250, for example, a liquid distribution connection connected to the second fluid connection interface 250, the cleaning liquid stored in the cleaning liquid storage 320 may be provided to the first fluid connection interface 420, for example, the cleaning liquid may be provided to the liquid distribution connection of the first fluid connection interface 420, and further provided to the second thick film heater 125 through the connection of the first fluid connection interface 420 and the second fluid connection interface 250, and of course, the cleaning liquid may also be provided to the liquid distribution module 121.

As one implementation form, the liquid distribution module 121 may be a spray head or the like, thereby being capable of spraying the cleaning liquid to the cleaning members 112 or the surface to be cleaned in the vicinity of the cleaning members 112. The steam distribution module 122 may include a plurality of spray holes located in front of the cleaning member 112, so that steam can be sprayed to the surface to be cleaned in front of the cleaning member 112 through the plurality of spray holes to soften the stain of the surface to be cleaned by the steam, thereby improving the cleaning effect of the cleaning member 112 on the surface to be cleaned.

In the present disclosure, as shown in fig. 5, the fluid distribution module may further include a distribution pump 124, and the distribution pump 124 may be a peristaltic pump or the like, so that the pressure of the cleaning liquid delivered to the liquid distribution module 121 can be increased by the peristaltic pump, so that the cleaning liquid can be uniformly sprayed on the cleaning member 112 or the surface to be cleaned, and the cleaning liquid in the pipeline for delivering the cleaning liquid can be prevented from flowing backwards by the arrangement of the peristaltic pump, so that the wet surface cleaning system 10 is safer in use. That is, at this time, the dispensing pump 124 can be connected to a second fluid connection, such as a liquid dispensing connection connected to the second fluid connection.

More preferably, as shown in fig. 5, the fluid distribution module may further include a second thick film heater 125 to heat the cleaning liquid into steam through the second thick film heater 125 and provide the steam to the steam distribution module 122; of course, the second thick film heater 125 may be replaced with another heater. In the present disclosure, the second thick film heater 125 may also be connected to a second fluid connection interface, such as a liquid dispensing connection connected to the second fluid connection interface, by a dispensing pump 124. The dispensing pump 124 may be the same dispensing pump 124 as the dispensing pump 124 described above, or a separate dispensing pump 124 may be used; more preferably, when the same dispensing pump 124 is used, a first on-off valve is provided in the piping between the dispensing pump 124 and the liquid dispensing module 121, and a second on-off valve is also provided in the piping connecting the dispensing pump 124 and the second thick film heater 125, so that the cleaning liquid is supplied to the liquid dispensing module 121 and/or the second thick film heater 125 by controlling the first on-off valve and the second on-off valve.

In the present disclosure, a third switch valve may be disposed on a pipeline between the steam distribution module 122 and the steam distribution connection portion of the second fluid connection interface 250, and correspondingly, a fourth switch valve may be disposed on a pipeline between the second thick film heater and the steam distribution module 122, so as to select different steam supply modes by controlling the third switch valve and the fourth switch valve.

The first switch valve, the second switch valve, the third switch valve and the fourth switch valve may be solenoid valves or electric switch valves, so that a user can control the switch valves conveniently.

When the fluid dispensing module includes the second thick film heater 125, the cleaning liquid may be provided only to the cleaning base, in which case both the dispensing pump 124 and the second thick film heater 125 may be connected to the second fluid connection interface 250, wherein the second fluid connection interface 250 may include only the liquid dispensing connection.

Accordingly, when the fluid distribution module does not include the second thick film heater 125, it is necessary to provide cleaning liquid to the liquid distribution module 121 and steam to the steam distribution module 122, and at this time, the second fluid connection interface 250 includes a liquid distribution connection and a steam distribution connection, and accordingly, the liquid distribution module 121 may be connected to the liquid distribution connection and the steam distribution module may be connected to the steam distribution connection.

In the present disclosure, the second thick film heater 125 is disposed horizontally or substantially horizontally, so that the second thick film heater 125 has a better heating effect on the cleaning liquid.

The cleaning base 100 of the present disclosure may further include a dirt suction module 130, and the dirt suction module 130 is provided with a negative pressure for collecting and sucking dirt (such as dust and hair, etc.) after the cleaning module cleans the surface to be cleaned into the dirt suction module, thereby preventing the cleaning base 100 from leaving stains such as used cleaning liquid on the surface to be cleaned after cleaning the surface to be cleaned. That is, when the cleaning base 100 cleans the surface to be cleaned, the recovery liquid, i.e., the cleaning liquid used when the cleaning base 100 cleans the surface to be cleaned, and the dirt, i.e., the solid waste (e.g., dust, hair, etc.) on the surface to be cleaned, are generated, and at this time, the dirt suction module 130 is formed as a recovery inlet for recovering the liquid and the dirt.

In one embodiment, as shown in fig. 7, the fluid dispensing module and the dirty intake module 130 are provided independently of each other, i.e. the fluid dispensing module is not integrated in the dirty intake module 130. Of course, the wet surface cleaning system 10 is also capable of dry cleaning a surface to be cleaned when the fluid distribution module is not providing cleaning liquid to the cleaning module 110.

Preferably, the dirt suction module 130 is disposed at the rear of the cleaning module 110 to facilitate recovery of liquid and dirt.

The cleaning base 100 of the present disclosure may further include a housing module 140, the housing module 140 forming at least a portion of an outer surface of the cleaning base 100. The front end of the housing module 140 is formed with the above-mentioned spray holes so that the front end of the housing module 140 is formed as a steam distribution module, but the steam distribution module 122 may be formed as a separate component and mounted on the front end of the housing module 140.

The housing module 140 is formed with an accommodation space, which may also be referred to as a brush chamber, in which the cleaning module 110 is located. When the suction source 330 is operated, the accommodating space communicates with the soil suction module to form a vacuumized state, and the surface to be cleaned and the soil on the cleaning module 110 are sucked to the recovery storage part 340.

The housing module 140 of the present disclosure can also provide support for the cleaning module 110, the fluid distribution module, and the dirt intake module 130 described above, and can also provide support for the cleaning drive 115, the transmission assembly, and the like.

Thus, one end of the first power part 111 may be rotatably provided to the housing module 140; accordingly, when the cleaning module 110 includes the second power part 113, i.e., the cleaning module 110 is formed as a crawler type cleaning member, one end of the second power part 113 is also rotatably provided to the housing module 140.

Meanwhile, the other end of the first power part 111 may be rotatably disposed at the bracket part 170, and when the bracket part 170 is disposed at the housing module 140, the first power part 111 is located in the brush chamber.

Similarly, when the cleaning module 110 includes the second power part 113, that is, when the cleaning module 110 is formed as a crawler type cleaning member, the other end of the second power part 113 is also rotatably provided to the bracket part 170, so that the first and

second power parts

111 and 113 are located in the brush chamber when the bracket part 170 is mounted to the housing module 140.

Moreover, at least a portion of the transmission 114 slides inside the first power portion 111, and thus a mechanical connection between the transmission 114 and the second power portion 113 is achieved.

The belt transmission assembly may include a driving synchronous pulley 116, wherein the driving synchronous pulley 116 is mounted on the cleaning driving device 115, and the driving synchronous pulley 116 is driven by the cleaning driving device 115 to rotate; in the present disclosure, the cleaning driving device 115 and the driving timing pulley 116 are respectively located at both sides of the housing module 140. Specifically, the cleaning driving device 115 is located inside the housing module 140, and the driving timing pulley 116 is located outside the housing module 140.

The driving timing pulley 116 drives the driven timing pulley 117 to rotate, the driven timing pulley 117 is mounted at one end of a transmission shaft rotatably provided to the housing module 140, and the transmission shaft is formed as an input shaft of the transmission device 114 or can input a driving force to the transmission device 114.

In the present disclosure, a partition 180 is disposed between the dirt suction module 130 and the liquid distribution module 121, and at least a portion of the partition 180 is located in the accommodating space, so that the dirt suction module 130 is separated from the liquid distribution module 121, and the cleaning liquid distributed by the liquid distribution module 121 is prevented from being directly sucked into the dirt suction module 130. As an implementation form, the isolation portion 180 is formed in the form of a scraper; and the other end of the partition 180 may contact the cleaning member 112; of course, the partition 180 may be spaced apart from the cleaning members 112 by a predetermined distance.

The cleaning module 110 may further include a mounting tab module 150, the mounting tab module 150 being pivotably disposed to the housing module 140, whereby the support assembly 200 is pivotable with the cleaning base 100, and more particularly, the support assembly 200 is pivotable with the cleaning module 110 of the cleaning base 100, when the support assembly 200 is connected with the mounting tab module 150.

The cleaning base 100 can also include a moving wheel module 160, the moving wheel module 160 being coupled to the housing module 140 such that when the wet surface cleaning system 10 is in operation, the moving wheel module 160 contacts and rolls over the surface to be cleaned to reduce the power required to move the wet surface cleaning system 10 and also to effectively prevent the cleaning base from contaminating the surface that has been cleaned.

As shown in fig. 1-3, the wet surface cleaning system 10 of the present disclosure may further include a support assembly 200, the support assembly 200 being pivotably mounted to the cleaning base 100 and in fluid communication with the cleaning base 100.

Specifically, the support assembly 200 may include a support platform 210 and a platform column 220, the platform column 220 is disposed on the support platform 210, a lower surface of the support platform 210 is longitudinally spaced from an upper surface of the cleaning base 100, such that a space exists between the support platform 210 and the cleaning base 100, the support platform 210 can rotate at a large angle relative to the cleaning base to enable the cleaning base 100 to extend into a low space, for example, a lower end of the platform column 220 is disposed on the support platform 210, and the support platform 210 extends forward from the lower end of the platform column 220, wherein the support platform 210 may be connected with the above-mentioned installation joint module 150 to enable pivoting between the support assembly 200 and the cleaning base 100.

The upper end of the platform upright 220 is connected with a handle 230, in the present disclosure, the handle 230 is telescopically arranged on the platform upright 220, for example, the handle 230 is inserted into different depths of the platform upright 220, so that the position of the handle 230 is adjustable. When the wet surface cleaning system 10 of the present disclosure is in use, a user may operate the wet surface cleaning system 10 by operating the handle 230; in the present disclosure, the handle 230 may be provided with a button, such as an on/off button, an operating mode selection button, etc., for controlling the wet surface cleaning system 10, such that the user can turn the wet surface cleaning system 10 on or off when the on/off button is activated, or can control the power of the suction source, the cleaning drive 115, the dispensing pump, and/or the first thick film heater 480 when the operating mode selection button is activated.

In the present disclosure, the platform upright 220 may include a front shell and a rear shell that cooperate to form a cavity therebetween. At least a portion of the handle 230 is insertable into the cavity, thereby providing a telescopic connection between the handle 230 and the platform upright 220; when the position adjustment of the handle 230 is completed, the handle 230 may be fixed to the platform column 220 by a fastener such as a screw.

The handle 230 comprises an elongated rod 231, one end of the elongated rod 231 is connected to the platform upright, and the other end of the elongated rod 231 is connected with a handle 232, so that the handle 230 is formed by the handle 232 and the rod 231; in the present disclosure, the handle 232 is formed in a racetrack shape, or the handle 232 may be formed in other shapes that are convenient for handling.

When the wet surface cleaning system 10 is not in the operational mode, the platform upright 220 may be in an upright position, whereby the platform upright 220 may have an upper end and a lower end.

As shown in fig. 1-3, the wet surface cleaning system 10 of the present disclosure may further include a subassembly 300, the subassembly 300 being removably mounted to the support assembly 200, the subassembly 300 being capable of being used independently when the subassembly 300 is removed from the support assembly 200, for example, as part of a stand-alone wet surface cleaning apparatus, in which case the subassembly 300 is capable of being attached to an accessory and such that the subassembly 300 and the accessory comprise the wet surface cleaning apparatus.

Specifically, as shown in fig. 12, the subassembly 300 is disengaged from the support assembly 200 by lifting the subassembly 300 from the support assembly 200; the reverse process, the sub-assembly 300 is mounted to the support assembly 200 in a top-to-bottom direction.

With the sub-assembly 300 separated from the support assembly 200, a user may carry the sub-assembly 300 and connect accessories, such as a cleaning head assembly and brushes, to the interface portion 390 of the sub-assembly 300 for various cleaning operations.

In the present disclosure, the subassembly 300 can be disposed on the support platform 210 of the support assembly 200, thereby forming the wet surface cleaning system 10 as a complete structure when the subassembly 300 is mounted to the support assembly 200.

The subassembly 300 may include a main body 310 and other components, wherein the main body 310 forms an outer contour of the wet surface cleaning apparatus, and in the present disclosure, the main body 310 may be a cubic or cylindrical component, and the main body 310 may be capable of receiving a cleaning liquid storage 320 and a recovery storage 340. That is, a portion of the outer surface of the main body 310 forms a portion of the outer contour of the subassembly 300.

The body portion 310 forms a frame of the subassembly 300, and other components of the subassembly 300 may be directly or indirectly secured to the body portion 310, thereby forming the subassembly 300 as a unit.

As shown in fig. 1-3, the subassembly 300 may further include a cleaning liquid reservoir 320, a suction source 330, and a recovery reservoir 340.

The cleaning liquid storage 320 is disposed on the main body part 310 and used for storing the cleaning liquid, and when the sub-assembly 300 is mounted on the support assembly 200, the cleaning liquid storage 320 is used for supplying the cleaning liquid to the cleaning base 100, for example, the cleaning liquid in the cleaning liquid storage 320 can be supplied to the cleaning module 110 or to the surface to be cleaned near the cleaning module 110, so that the cleaning base 100 can perform wet cleaning on the surface to be cleaned based on the cleaning liquid supplied from the cleaning liquid storage 320.

Fig. 13 is a sectional structural view of a cleaning liquid storage part according to one embodiment of the present disclosure.

The cleaning liquid storage part 320 defines a supply chamber for storing a certain amount of cleaning liquid, and may be formed in a structure of a water tank, for example, to be able to store cleaning liquid in the cleaning liquid storage part 320.

As shown in fig. 13, the cleaning liquid storage 320 may include a solution tank 321, a filling cap 322, and a valve assembly 323, wherein the filling cap 322 may be disposed at an inlet of the solution tank 321, thereby filling the cleaning liquid into the solution tank 321 through the filling cap 322; on the other hand, the valve assembly 323 may be disposed at a lower end of the solution tank 321, and the body 310 may be provided with a receiver, and when the cleaning liquid storage part 320 is disposed at the body 310, the valve assembly 323 of the cleaning liquid storage part 320 is engaged with the receiver of the body 310, for example, at least a portion of the receiver may be disposed inside the valve assembly 323, so that the cleaning liquid stored in the cleaning liquid storage part 320 can be supplied to the outside through the valve assembly 323 and the receiver. In a preferred embodiment, the cleaning liquid reservoir 320 is selectively removable from the subassembly 300 by a clasp.

In the present disclosure, the cleaning liquid may include one or more of any suitable cleaning liquid, including but not limited to water, concentrated cleaners, dilute cleaners, and the like. Preferably, the cleaning liquid comprises a mixture of water and a concentrated cleaning agent.

Fig. 15 is a schematic structural view of the recovery storage part 340 according to an embodiment of the present disclosure. Fig. 16 and 17 are another configuration schematic diagram of a recovery storage part according to an embodiment of the present disclosure. Fig. 18 is a schematic sectional structure view of a recovery storage part according to an embodiment of the present disclosure. FIG. 19 is a schematic structural view of a filter according to one embodiment of the present disclosure. Fig. 20 is a schematic structural view of a cap assembly according to one embodiment of the present disclosure.

As shown in fig. 15 to 20, the recovery storage part 340 of the present disclosure may include: a recovery vessel 341, a hollow stand pipe 342, and a filter 343.

Wherein the recovery vessel 341 has an open top and a closed first bottom wall 3411; thereby, the recovery tank 341 can form a space for storing liquid, that is, a liquid storage space.

Accordingly, the recovery vessel 341 includes a side wall 3412 extending from the first bottom wall 3411 to the open top, wherein the filter 343 is spaced apart from the first bottom wall 3411 of the recovery vessel 341, whereby when the base 3432 of the filter 343 is formed with filter holes, the liquid flowing out of the filter 343 enters the liquid storage space of the recovery vessel 341.

At least a portion of the hollow riser 342 extends outside the recovery vessel such that at least a portion of the hollow riser 342 is disposed in isolation from the interior cavity of the recovery vessel 341, i.e., the hollow riser 342 and the recovery vessel 341 of the present disclosure may be formed as separate components; of course, as a preferred implementation form, the hollow stand pipe 342 may be integrally formed with the recovery container 341, for example, when the recovery storage part 340 is formed of a plastic material, the recovery container 341 and the hollow stand pipe 342 may be integrally formed.

One end of the hollow riser 342 is communicated with the inner cavity of the recovery container 341; thus, the outlet of the hollow riser 342 defines an inlet of the hollow riser 342 connected to the top of the recovery vessel 341. At this time, the hollow stand pipe 342 may be connected with the first recovery connection 410 so as to transfer the recovery liquid and dirt (solid-liquid mixture) after the cleaning base 100 cleans the surface to be cleaned to the recovery tank 341.

After the solid-liquid mixture enters the inner cavity of the recovery vessel 341 through one end of the hollow vertical pipe 342 and is filtered by the filter 343, the liquid in the solid-liquid mixture is stored in the inner cavity of the recovery vessel 341, and the solid in the solid-liquid mixture is retained in the filter 343.

In the present disclosure, the filter 343 is detachably installed in the recovery container 341, and the filter 343 has a portion operatively connected to the recovery container 341, whereby the solid-liquid mixture enters the recovery storage part 340, is filtered through the filter 343, and dirt is retained inside the filter 343, and the recovered liquid is stored in the recovery container 341.

The portion of the filter 343 operatively connected to the recovery vessel 341 includes a coupling 3431 adapted to the recovery tank side wall 3412, whereby the filter 343 is operatively connected within the recovery vessel 341 by the coupling 3431. That is, the coupling part 3431 is adapted to operatively connect the filter 343 within the recovery tank 341.

The filter 343 includes a flat base 3432 or a substantially flat base 3432, and in the present disclosure, at least a portion of the base 3432 is formed with through holes to form filter holes therethrough. Accordingly, the filter holes may be sized to not allow solid waste to pass therethrough.

In one implementation, the recovery vessel 341 includes an extension 3413, the extension 3413 extends from a side wall 3412 of the recovery vessel 341 in a direction away from the side wall 3412 of the recovery vessel 341, and an inlet of the hollow riser 342 is connected to the extension 3413, whereby a middle portion of the hollow riser 342 may be kept at a distance from an outer wall of the recovery vessel 341.

In the present disclosure, the recovery vessel 341 further includes a second bottom wall 3414, and the outlet of the hollow standpipe 342 passes through the second bottom wall 3414 and is located inside the recovery vessel 341. Wherein the second bottom wall 3414 is located at a higher level with respect to the first bottom wall 3411, so that the solid-liquid mixture transported by the hollow upright tube 342 can be transported into the upper space of the recovery vessel 341.

Accordingly, the filter 343 is formed with a filtering space, and the solid-liquid mixture flowing out of the outlet of the hollow vertical pipe 342 can flow into the filtering space of the filter 343, so that the solid and liquid of the solid-liquid mixture are separated in the filtering space.

More preferably, the outlet of the hollow riser pipe 342 is higher than the upper opening of the filtering space of the filter 343, so that the solid-liquid mixture conveyed through the hollow riser pipe 342 can flow into the filtering space of the filter 343 by gravity.

In the present disclosure, the recovery vessel 341 further includes a third bottom wall 3415, and at least a portion of the filter 343 is in contact with the third bottom wall 3415 to restrict the position of the filter 343 in the vertical direction by the third bottom wall 3415. That is, the inner surface of the third bottom wall 3415 is formed as a part of the structure of the coupling part 3431 of the filter 343.

Preferably, the third bottom wall 3415 and the side wall of the recovery container 341 enclose a container, so that the coupling part 3431 can be accommodated in the container. Preferably, the size of the receiving portion is slightly smaller than that of the coupling portion 3431, whereby, when the filter 343 is mounted in the recovery container 341, the sidewall of the receiving portion can apply a certain positive pressure to the coupling portion 3431, and thus the filter 343 can be firmly fixed to the recovery container 341.

Of course, the outer surface of the filter 343 may also be formed with a sliding track or a sliding groove along the vertical direction; accordingly, the side wall of the recovery container 341 may be formed with a sliding groove or a sliding rail corresponding to the sliding rail or the sliding groove in a vertical direction, so that the lateral movement of the strainer 343 may be restricted, and thus the position fixation of the strainer 343 may be also achieved.

In this disclosure, the recycling storage unit 340 further includes: a cap assembly 344, said cap assembly 344 being detachably arranged to said recovery container 341, said cap assembly 344 at least partly enclosing the open top of the recovery container 341 and defining an air outlet of the recovery container 341, being in fluid communication with the suction source 330, i.e. when the suction source 330 is operated, a negative pressure can be applied to the recovery storage 340, which negative pressure is applied to the cleaning base 100 through the hollow riser 342, enabling suction of the solid-liquid mixture.

More preferably, the recycling storage unit 340 further includes: a secondary filter assembly 345, the secondary filter assembly 345 being detachably connected to the cap assembly 344, wherein the secondary filter assembly 345 is located upstream of the air outlet in a flow direction of the air from the recovery tank 341 to the suction source, whereby the air filtered by the secondary filter assembly 345 can be drawn to the suction source 330.

As an implementation form, the secondary filter assembly 345 may be a HEPA structure, etc., so as to remove liquid from the air and improve the dryness of the air.

In the present disclosure, the cap assembly 344 includes a gas inlet 3441, and when the cap assembly 344 is disposed on the recovery tank 341, the gas inlet 3441 of the cap assembly 344 is disposed away from the filter 343, thereby making the distance from the hollow stem pipe 342 to the gas inlet of the cap assembly 344 as long as possible.

In a preferred embodiment, a baffle 3442 is provided at a lower portion of the lid assembly 344, the baffle 3442 at least partially covering the gas inlet 3441 of the lid assembly 344 and at least partially being disposed at a position between the gas inlet 3441 and the filter 343, thereby preventing gas from directly entering the gas inlet of the lid assembly 344.

As shown in fig. 14, the suction source 330 is disposed on the main body portion 310, the suction source 330 is used for generating suction force, when the sub-assembly 300 is mounted on the support assembly 200, the suction source 330 is communicated with the cleaning base 100, so that the cleaning base 100 sucks the recovered liquid and dirt on the surface to be cleaned to the recovery storage portion 340.

Specifically, the suction source 330 may include a motor bracket, which may be provided inside the body part 310, and a vacuum motor, which is provided to the motor bracket and is capable of providing rotational power. The vacuum motor is provided with a fan that is driven in rotation to enable the suction source 330 to generate a vacuum and by means of this vacuum effect suction of the recovered liquid and dirt.

The recovery storage part 340 is provided in the main body part 310, and stores recovery liquid and dirt. The recovery storage 340 of the present disclosure may include a can body having an open top, which is closed by a can lid, thereby defining a recovery chamber through the can body for receiving the recovery liquid and dirt. Alternatively, the recovery reservoir 340 may be selectively removed from the subassembly by a snap to dispose of the recovered liquid and dirt into an appropriate receptacle or from a waste drain.

When the sub-assembly 300 is mounted to the support assembly 200, the recovery liquid and dirt sucked by the suction source 330 are stored to the recovery storage part 340.

The cleaning liquid storage part 320 and the recovery storage part 340 of the present disclosure are detachably mounted to both sides of the main body part 310, respectively. For example, the cleaning liquid storage 320 and the recovery storage 340 are respectively located on both sides of the main body 310 in a transverse direction, which is a horizontal direction perpendicular or substantially perpendicular to the travel path of the wet surface cleaning system 10 when cleaning the surface to be cleaned, and part of the outer surface of the cleaning liquid storage 320 is formed as part of the outer surface of the subassembly 300 and part of the outer surface of the recovery storage 340 is formed as part of the outer surface of the subassembly 300, whereby the housing of the main body 310, the cleaning liquid storage 320 and the recovery storage 340 together define a front wall, a side wall subassembly and a rear wall of the subassembly, and the main body 300 is formed as a substantially cuboid component; those skilled in the art will appreciate that other shapes are possible.

The subassembly 300 may further include a rechargeable battery module 360, the rechargeable battery module 360 being disposed inside the body portion 310 and near the rear of the body portion 310. In other words, the rechargeable battery module 360 is located closer to the rear of the main body 310 than the cleaning liquid storage 320 and the recovery storage 340. In one embodiment, the rechargeable battery module 360 is not higher than any one of the cleaning liquid storage 320 and the recovery storage 340.

The rechargeable battery module 360 of the present disclosure can provide power to the suction source 330, on the one hand, to enable the suction source 330 to function properly, and on the other hand, the rechargeable battery module 360 can also provide power to the cleaning base 100, for example, the rechargeable battery module 360 can provide power to the dispensing pump 124 and the second thick film heater 125, etc. of the cleaning base 100, as well as to the cleaning drive 115 of the cleaning base 100.

Specifically, the subassembly 300 may include a first circuit interface 470, the first circuit interface 470 being connected to the rechargeable battery module 360, the support assembly 200 including a second circuit interface 270, the first and second circuit interfaces 470, 270 being connected when the subassembly 300 is disposed on the support assembly 200, such that the rechargeable battery module 360 provides electrical power to the cleaning base 100.

Preferably, one of the first circuit interface 470 and the second circuit interface 270 may be formed as a socket, and the other may be formed as a pin, so that the circuit connection between the first circuit interface and the second circuit interface is realized through the matching of the socket and the pin.

In the present disclosure, the first circuit interface 470 and the second circuit interface 270 may also be formed in the form of contacts or gold fingers, and those skilled in the art should know that a circuit connection can be implemented between the first circuit interface 470 and the second circuit interface 270.

On the other hand, considering that the circuit connection between the sub-assembly 300 and the support assembly 200 can be achieved through the second electrical element 500 and the first electrical element 440, the rechargeable battery module 360 can also enable the rechargeable battery module 360 to supply power to the cleaning base 100 through the connection between the second electrical element 500 and the first electrical element 440.

The rechargeable battery module 360 is disposed inside the main body part 310 and near the rear of the main body part 310 in terms of position; more specifically, the rechargeable battery module 360 is located at the rear of the recovery storage part 340 and/or the cleaning liquid storage part 320. Also, the suction source 330 is disposed inside the main body part 310 near the rear of the main body part 310, in other words, the suction source 330 is closer to the rear of the main body part 310 with respect to the cleaning liquid storage part 320 and the recovery storage part 340. More preferably, the suction source 330 is located at the rear of the recovery storage part 340 and/or the cleaning liquid storage part 320. In one embodiment, the suction source 330 is not higher than any one of the cleaning liquid storage 320 and the recovery storage 340

In the present disclosure, the rechargeable battery module 360 may be located above the suction source 330, and of course, those skilled in the art should understand that the rechargeable battery module 360 may also be located at the side of the suction source 330.

The subassembly 300 may further include a handle 350, the handle 350 being disposed on the top wall of the body portion 310, the handle 350 extending in the transverse direction to facilitate a user in attaching the subassembly 300 to the support assembly 200 or detaching the subassembly 300 from the support assembly 200.

Preferably, the grip of the handle 230 is in a plane orthogonal to the plane of the handle 350.

As one implementation, the handle 350 includes a grip extending above the subassembly 300.

In the present disclosure, as shown in fig. 3, the upper wall of the sub-assembly 300 is formed with a recess 355, the recess 355 corresponds to the position of the grip and makes a preset distance between the recess 355 and the grip; in particular, the grip is formed in an upwardly convex structure, so that the user's hand can easily pass through the area between the grip and the upper wall of the sub-assembly 300 when the user grips the grip, thereby easily grasping the grip.

As shown in fig. 1-3, the subassembly 300 may further include a latch assembly, at least a portion of which is located on the subassembly 300, e.g., at least a portion of which may be located on a body portion 310 of the subassembly 300, and which is used to lock the subassembly 300 to the support assembly 200. In the present disclosure, at least a portion of the latch assembly is concealed when the subassembly 300 is mounted on the support assembly 200. For example, the latch assembly may include a latch button 370, a portion of the latch button 370 being shown and enabling other components of the latch assembly to be hidden when the sub-assembly 300 is mounted on the support assembly 200, and more preferably, at least a portion of the latch button 370 is located on the upper wall of the sub-assembly 300 and on one side of the handle 350, whereby a user's thumb can trigger the latch button 370 and unlock the latch assembly when the user is holding the handle. The latch button 370 is configured such that a user can selectively remove the subassembly 300 from the support assembly 200 in order to use the subassembly 300 as a portable wet surface cleaning apparatus. When the latch button 370 is activated, such as by pressing the latch button 370, allowing the subassembly 300 to be removed from the wet surface cleaning system 10, the handle may be grasped and the subassembly 300 lifted upwardly, i.e., the subassembly 300 may be detached from the support assembly 200; accordingly, when the latch button 370 is not triggered, the subassembly 300 is not allowed to be removed from the wet surface cleaning system 10, so that the wet surface cleaning system 10 can be safer when in use.

As shown in fig. 3, the subassembly 300 further includes a function button 380, at least a portion of the function button 380 being located on an upper wall of the subassembly 300 and on the other side of the handle 350. The function button 380 may be a self-cleaning activation key, that is, the wet surface cleaning system 10 is capable of self-cleaning when the kinetic energy button is activated.

Of course, the upper wall of the sub-assembly 300 may also be provided with a display device (not shown) to display the status of the wet surface cleaning apparatus, such as the power status of the wet surface cleaning apparatus and the status of the cleaning liquid in the cleaning liquid storage 320, so as to facilitate the user to charge the wet surface cleaning system 10 and replenish the cleaning liquid in time. Alternatively, the display device may display the state of the sewage in the recovery storage unit 340, so as to be convenient for pouring out the sewage in the recovery storage unit 340 in time. Of course, the display device may also be disposed on the sidewall of the sub-assembly 300.

As shown in fig. 14, the subassembly further includes an interface portion 390, the interface portion 390 may be disposed at a front sidewall of the main body portion 310 to facilitate a user to connect other components, such as a flexible hose of an accessory, to the interface portion 390; more preferably, the interface portion 390 can be opened or closed by a pivotable interface cover 391, in particular, as shown in fig. 1, the interface cover 391 can seal the interface portion 390.

In particular, the interface 390 can be connected to one end of a flexible hose, thereby enabling the interface 390 to be formed as an inlet of the flexible hose of an accessory; wherein the interface part 390 can be selectively connected to the suction source 330, the cleaning liquid storage part 320, or the recovery storage part 340.

That is, the interface portion 390 includes a plurality of sub-interfaces, for example, in fig. 14, the interface portion 390 includes three sub-interfaces, and one of the sub-interfaces can be connected to the suction source 330 to perform suction for recovering liquid and dirt through the sub-interface; accordingly, one of the sub-interfaces may be connected with the cleaning liquid storage part 320 to supply the cleaning liquid to the outside through the sub-interface.

Correspondingly, the flexible pipe of the attachment also comprises a plurality of sub-pipes, such as a sub-pipe for the flow of cleaning liquid, a sub-pipe for the flow of steam, a sub-pipe for the flow of recycled liquid and dirt, etc. Accordingly, these sub-pipes communicate with the corresponding sub-interfaces, respectively, for example, the sub-pipe for cleaning liquid flow may be connected with the sub-interface connected to the cleaning liquid storage portion, the sub-pipe for steam flow may be communicated with the sub-pipe connected to the first thick film heater 480 of the sub-assembly 300, and accordingly, the sub-pipe for recovery liquid and soil flow may be communicated with the sub-interface connected to the recovery storage portion 340 of the sub-assembly 300, and the like.

In the present disclosure, the subassembly 300 may further include a first thick film heater 480 to heat the cleaning liquid into a vapor through the first thick film heater 480. At this time, the first thick film heater 480 is connected to the cleaning liquid storage part 320, so that the cleaning liquid supplied from the cleaning liquid storage part 320 can be received and heated into steam.

At this time, one of the sub-interfaces may also be connected with the first thick film heater 480 of the sub-assembly 300, so that steam can be externally supplied through the sub-interface.

When the sub-assembly 300 is used alone, an accessory (e.g., a cleaning nozzle assembly) is selectively mounted to the other end of the flexible hose; and is connected to at least one sub-interface by a flexible hose, for example which may be connected to the suction source 330 via the sub-interface, and which may also be connected to at least one of the cleaning liquid reservoir 320 and the first thick film heater 480 of the sub-assembly 300. Accordingly, the interior of the flexible hose may comprise a plurality of separate conduits.

The flexible hose can be connected to different accessories, i.e., different cleaning nozzle assemblies, for different cleaning functions, such as for cleaning curtains, ornaments, slits and other surfaces that are not suitable for cleaning with conventional upright wet surface cleaning apparatuses.

In the present disclosure, the sub-assembly 300 may further include an AC/DC converter 395, wherein the AC/DC converter 395 is used for converting the commercial power into the direct current with the preset voltage and providing the direct current to the first thick film heater 480 of the sub-assembly 300.

In the present disclosure, when the sub-assembly 300 is disposed on the support assembly 200, it is necessary to achieve a fluid connection and/or a circuit connection between the sub-assembly 300 and the support assembly 200.

In particular, the subassembly 300 may comprise a first recovery connection 410, the suction source 330 being connectable to the first recovery connection 410. Accordingly, the support assembly 200 includes a second recovery connection 240, and the first recovery connection 410 is connected to the second recovery connection 240 when the sub-assembly 300 is operably mounted to the support assembly 200 such that the suction source 330 communicates with the cleaning base 100 through the first recovery connection 410 and the second recovery connection 240.

Preferably, at least one of the first recovery connection portion 410 and the second recovery connection portion 240 is provided with a sealing ring to enable a sealing connection between the first recovery connection portion 410 and the second recovery connection portion 240.

At this time, when the suction source 330 is in an operating state and generates a negative pressure, the recovery liquid and the soil, which can be transferred to the recovery storage part 340 through the first and second

recovery connection parts

410 and 240, can be sucked from the soil suction module 130 of the cleaning base 100; that is, the suction source 330 is connected to the recovery storage part 340 for applying negative pressure to the recovery storage part 340, and the recovery storage part 340 is connected to the first recovery connection part 410 so that the recovery liquid and contaminants passing through the first recovery connection part 410 can directly enter the recovery storage part 340.

The subassembly 300 further includes an airflow outlet 430, the airflow outlet 430 being fluidly connected to an outlet of the suction source 330, the airflow outlet 430 being configured and adapted such that, when the subassembly 300 is operably mounted to the support assembly 200, airflow discharged through the airflow outlet 430 does not pass through the support assembly 200.

In the present disclosure, the airflow outlet 430 may be disposed toward a sidewall of the subassembly 300. On the one hand, the side wall of the sub-assembly 300 may be opened with an exhaust hole to discharge the gas discharged from the gas flow outlet 430 to the outside of the sub-assembly 300 through the exhaust hole, and on the other hand, the gas discharged from the gas flow outlet 430 may be discharged to the outside of the sub-assembly 300 through a gap between the cleaning liquid storage part 320 and the main body part 310 or a gap between the recovery storage part 340 and the main body part 310.

The wet surface cleaning system 10 further comprises a second electrical component 500, the second electrical component 500 being selectively connectable to mains electricity via an electrical connection; in the present disclosure, the second electrical element 500 may be a charging contact or a power supply contact; the subassembly 300 includes a first electrical component 440 that is electrically connected to the second electrical component 500 when the subassembly 300 is mounted to the support assembly and such that the second electrical component 500 and the first electrical component 440 are at a higher level than the first fluid coupling interface 420 and the second fluid coupling interface 250, whereby cleaning fluid spilled over the first fluid coupling interface 420 and the second fluid coupling interface 250 does not affect the electrical circuit connection between the second electrical component 500 and the first electrical component 440.

The cleaning liquid storage 320 may be connected to the first fluid connection interface 420 by a transfer pump 490, whereby the cleaning liquid can be transferred by the transfer pump 490 to the first fluid connection interface 420 and further to the cleaning base.

Further, the cleaning liquid storage part 320 may be connected to the first thick film heater 480 by a transfer pump 490, so that the cleaning liquid may be transferred to the first thick film heater 480 by the transfer pump 490 and further heated by the first thick film heater 480.

The second electrical component 500 is disposed on the platform post 220 and the first electrical component 440 is disposed on the rear side of the main body portion 310 of the subassembly 300, such that when the subassembly 300 is mounted to the support assembly, the second electrical component 500 and the first electrical component 440 are aligned and thereby form a circuit connection between the second electrical component 500 and the first electrical component 440.

In the present disclosure, the subassembly 300 may further include a first fluid coupling interface 420, and when the subassembly 300 is operably mounted to the support assembly 200, the first fluid coupling interface 420 is coupled to the second fluid coupling interface 250 to provide cleaning liquid and/or vapor to the cleaning base 100 through the first fluid coupling interface 420 and the second fluid coupling interface 250.

More preferably, the first fluid connection interface 420 comprises a liquid distribution connection and/or a vapour distribution connection; the second fluid connection interface 250 comprises a liquid distribution connection and/or a vapor distribution connection.

For example, when the subassembly 300 includes a first thick film heater 480, vapor generated by the first thick film heater 480 can be supplied to a vapor distribution module of a cleaning base, further the vapor can be provided to a first fluid coupling interface 420, wherein the first fluid coupling interface 420 can include a vapor distribution connection.

However, when the subassembly 300 does not include the first thick film heater 480, the first fluid connection interface 420 and the second fluid connection interface 250 may not include a vapor dispensing connection, but only a liquid dispensing connection, so as to provide cleaning liquid within the cleaning liquid storage 320 to the cleaning base 100 or a surface to be cleaned adjacent the cleaning base through the liquid dispensing connection.

In the present disclosure, the subassembly 300 may further include a flow dividing valve 460, the flow dividing valve 460 may be a three-way valve, the flow dividing valve 460 is connected to the cleaning liquid storage part 320, and may include a first interface connected to the interface part 390 and a second interface connected to the second fluid connection interface 250; the diverter valve 460 is configured to: when the subassembly 300 is mounted to the support assembly, fluid flow is permitted through the tubing in which the first and second fluid coupling interfaces 250 are located, and fluid flow is not permitted through the tubing in which the interface portion 390 is located; when the subassembly 300 is disengaged from the support assembly, fluid flow is not permitted through the tubing in which the first and second fluid coupling interfaces 250 are located, and fluid flow is permitted through the tubing in which the interface portion 390 is located.

The diverting valve 460 may be provided in plural, for example, one diverting valve is connected to the cleaning liquid storage portion 320, thereby enabling: the cleaning liquid storage part 320 selectively supplies the cleaning liquid to the cleaning base 100 when the sub-assembly 300 is mounted to the support assembly 200, and the cleaning liquid storage part 320 selectively supplies the cleaning liquid to the attachment when the sub-assembly 300 is detached from the support assembly 200.

Similarly, the first thick film heater 480 of the subassembly 300 is connected to a shunt valve, thereby enabling: the first thick film heater 480 selectively provides steam to the cleaning base 100 when the sub-assembly 300 is mounted to the support assembly 200, and the first thick film heater 480 selectively provides steam to the accessories when the sub-assembly 300 is removed from the support assembly 200.

More preferably, the suction source 330 of the sub-assembly 300 may also be connected to a diverter valve, so as to enable: the suction source 330 selectively provides negative pressure to the cleaning base 100 when the sub-assembly 300 is mounted to the support assembly 200; the cleaning liquid reservoir 320 selectively provides negative pressure to the attachment when the sub-assembly 300 is removed from the support assembly 200.

The flow divider 460 can be controlled by an actuator to switch between different fluid paths, in other words, the actuator can selectively block the line providing cleaning liquid, the line providing steam, or the line providing negative pressure to the cleaning base. For example, when the sub-assembly 300 is removed from the support assembly 200, the actuator is driven to block the line providing cleaning liquid, the line providing steam, and the line providing negative pressure to the cleaning base.

More preferably, the actuator is selectively engageable with an in-place signal of the subassembly 300 to block the line providing cleaning liquid, steam, or negative pressure to the cleaning base and direct fluid to the interface portion 390 after the subassembly 300 is disengaged from the support assembly 200.

Accordingly, the actuator can also selectively block the line supplying the accessory with cleaning liquid, the line supplying the steam or the line supplying the negative pressure, i.e. block the respective sub-interfaces. For example, when the sub-assembly 300 is mounted to the support assembly 200, the actuator is driven to block a line that supplies cleaning liquid, a line that supplies steam, or a line that supplies negative pressure to the attachment.

In one instance, the actuator can be engaged with an actuating portion of the connecting end of the flexible hose, at which time, when the connecting end of the flexible hose is connected to the interface portion 390, a line that provides cleaning liquid, a line that provides steam, or a line that provides negative pressure to the cleaning base is blocked and fluid is directed to the interface portion 390.

In another case, the wet surface cleaning system 10 may include an in-place detection device, which may be a hall sensor or a travel switch, etc., that is triggered when the sub-assembly 300 is mounted to the support assembly 200, at which time the actuator is driven to block a line for supplying cleaning liquid, a line for supplying steam, or a line for supplying negative pressure to the attachment, and open a line for supplying cleaning liquid, a line for supplying steam, or a line for supplying negative pressure to the cleaning base 100; conversely, when the presence detecting means is not activated, the actuator is driven to block the line supplying the cleaning liquid, the line supplying the steam or the line supplying the negative pressure to the cleaning base and to open the line supplying the cleaning liquid, the line supplying the steam or the line supplying the negative pressure to the attachment.

In the present disclosure, the bottom surface of the sub-assembly is formed in a substantially square or circular shape, and the first recovery connection portion 410, the first electrical component 440, the first circuit interface 470, and the second fluid connection interface 250 may be disposed on the bottom surface of the sub-assembly 300.

Accordingly, the support platform 210 of the support assembly 200 is formed as a reverse tapered body having a substantially square or circular cross-section, and a lower end surface of the reverse tapered body (i.e., a lower surface of the support platform 210) is longitudinally spaced from an upper surface of the cleaning base 100, and accordingly, the second recovery connection portion, the second electrical element, the second circuit interface, the first fluid connection interface, and the like may be disposed at an upper wall position of the support platform 210.

The wet surface cleaning system 10 of the present disclosure may be operatively mounted to the support assembly 200 prior to operation, or may be separated from the support assembly 200 for use as a stand alone wet surface cleaning apparatus. When the sub-assembly 300 is mounted to the support assembly 200, various connections between the component systems may be made simultaneously, including but not limited to fluid transport interconnections, recycling interconnections, electrical system interconnections.

More specifically, when the subassembly 300 is operably mounted to the support assembly 200, the cleaning liquid reservoir 320 is connected to the fluid distribution module of the cleaning base 100 such that cleaning fluid (liquid and/or gas-liquid mixture) can be distributed to the cleaning module 110 and/or the floor surface. The recovery storage part 340 is connected to the soil suction module 130 of the cleaning base 100 such that the vacuuming airflow generated by the suction source 330 is sucked into the recovery storage part 340 through the soil suction module 130. Further, the first circuit interface 470 and the second circuit interface 270 of the subassembly 300 are connected to deliver electrical power to the cleaning drive, the fluid dispensing module, or the second thick film heater 125, etc. of the cleaning base 100.

In one case, a mains AC power supply is connected directly to the rechargeable battery module of the sub-assembly 300 via a power cord and an AC/DC converter, so that mains power can simultaneously power the cleaning base 100 and the sub-assembly 300, in which case an AC/DC converter may be provided to the support assembly 200 to perform various cleaning functions.

The user fills the cleaning liquid storage 320 with at least one cleaning liquid. In order for the cleaning liquid storage part 320 to store the cleaning liquid, the user may make the cleaning liquid storage part 320 connectable with the first fluid interface by taking out the cleaning liquid storage part 320 from the sub-assembly 300, then filling the cleaning liquid into the cleaning liquid storage part 320, and then mounting the cleaning liquid storage part 320 filled with the cleaning liquid to the side of the sub-assembly 300.

To operate the wet surface cleaning system 10 in a floor cleaning mode, with the subassembly 300 mounted on the support assembly 200, a user actuates a main power switch on the handle or on the subassembly to provide power from a power source (such as a rechargeable battery module or a house outlet of the subassembly) to power the suction source 330 so that the negative pressure generated by the suction source 330 generates a working air flow through the recovery storage 340. In addition, when the sub-assembly 300 is mounted on the support assembly 200, power is supplied to the cleaning base 100 through the sub-assembly 300. As described above, the electrical connection of the subassembly 300 and the cleaning base 100 is achieved through the mating first and second electrical circuit interfaces.

The power supplied from subassembly 300 can energize electrical components including first thick film heater 480, brush motor, brushless motor, PCB board, pump, lights, LED/LCD display screen, speakers, sensors.

In the on state with the sub-assembly 300 on the support assembly 200, a user grasps the handle and moves the wet surface cleaning system 10 along a surface to be cleaned. By dispensing a cleaning fluid at normal or high temperature to the floor or cleaning base 100 while the cleaning module is rolling against the surface to be cleaned.

The cleaning fluid and suction power may be selectively dispensed by providing, for example, a visual sensor, an ultrasonic sensor, a TOF sensor, an infrared sensor, etc., through interaction of the sensor with the floor barrier, the floor material, etc. Used cleaning fluid and dirt on the floor to be cleaned is taken into the working air flow by the dirt suction module on the cleaning base and removed, and enters the recovery storage part 340 through the fluid flow passage, the used cleaning fluid and dirt are separated from the working air in the recovery storage part 340, and the solid dirt and the liquid dirt are separated by the solid-liquid separator in the recovery tank. The working air continues to flow out of the recovery storage 340 along the working air exhaust path to the suction source 330 and the exhaust air from the suction source 330 continues to flow out of the exhaust port of the subassembly 300, which is preferably disposed toward the ground to make secondary use of the exhaust air to quickly dry the ground.

The user empties the recovery tank at the appropriate location by removing the recovery reservoir 340 from the side of the sub-assembly 300 so as to throw the used cleaning fluid and dirt into the appropriate receptacle and drain.

To operate the wet surface cleaning system 10 in the portable assisted cleaning mode, a user removes the subassembly 300 from the support assembly 200 by depressing a latch button on the subassembly 300 or the support assembly 200.

When used to remove the sub-assembly 300 from the support assembly 200, the cleaning liquid reservoir 320, the suction source 330, the recovery reservoir 340, the first thick film heater 480, etc. may all be in communication with the interface portion 390 of the sub-assembly 300. The first and second circuit interfaces of the subassembly 300 and the support assembly 200 are separated, thereby disconnecting power to the cleaning base 100.

To prevent user error, the suction source 330 is deactivated after the latch button is triggered. And there is no fluid interaction between the second fluid coupling interface 250 and the interface portion until the user installs the flexible hose of the accessory and presses the start switch again.

When it is desired to operate the sub-assembly 300 alone, the user installs the flexible hose of the accessory to the interface portion 390 of the sub-assembly 300 and activates the switch, the interface portion 390 having fluid interaction therein and being capable of providing cleaning liquid and/or steam, etc. to the accessory and drawing used recovery liquid and dirt from the accessory and into the recovery reservoir 340.

Thus, the wet surface cleaning system 10 of the present disclosure can be formed as a multi-purpose wet surface cleaning system 10, providing an unlimited number of application possibilities for conventional upright wet surface cleaning apparatuses. The subassembly is compact and lightweight, thereby simplifying its use.

In the description herein, reference to the description of the terms "one embodiment/mode," "some embodiments/modes," "example," "specific example," or "some examples," etc., means that a particular feature, structure, material, or characteristic described in connection with the embodiment/mode or example is included in at least one embodiment/mode or example of the application. In this specification, the schematic representations of the terms used above are not necessarily intended to be the same embodiment/mode or example. Furthermore, the particular features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments/modes or examples. Furthermore, the various embodiments/aspects or examples and features of the various embodiments/aspects or examples described in this specification can be combined and combined by one skilled in the art without conflicting therewith.

Furthermore, the terms "first", "second" and "first" are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defined as "first" or "second" may explicitly or implicitly include at least one of the feature. In the description of the present application, "plurality" means at least two, e.g., two, three, etc., unless specifically limited otherwise.

It will be understood by those skilled in the art that the foregoing embodiments are merely for clarity of illustration of the disclosure and are not intended to limit the scope of the disclosure. Other variations or modifications may be made to those skilled in the art, based on the above disclosure, and still be within the scope of the present disclosure.

Claims

1. A recycling storage unit, comprising:

a recovery tank having an open top and a closed first bottom wall;

2. The recycling storage portion of claim 1, wherein the recycling container includes a sidewall extending from the first bottom wall to the open top, and wherein the filter is spaced from the first bottom wall of the recycling container.

3. The recovery storage section of claim 1, wherein the outlet of the hollow riser pipe defines an inlet through which the hollow riser pipe connects to the top of the recovery vessel.

4. The recycling storage unit of claim 1, wherein the portion of the filter operatively connected to the recycling container includes a coupling portion adapted to fit the side wall of the recycling bin.

5. The recovery storage section of claim 4, wherein the coupling section is adapted to operatively connect a filter within the recovery container.

6. The recycling storage unit of claim 1, wherein the filter comprises a flat base or a substantially flat base.

7. The recycling storage portion of claim 6, wherein at least a portion of said base is formed with a through hole.

8. The recycling storage unit according to claim 1, further comprising:

9. The recycling storage unit according to claim 8, further comprising:

10. The recycling storage portion of claim 8, wherein the lid assembly includes a gas inlet, the gas inlet of the lid assembly being located away from the filter when the lid assembly is disposed in the recycling container.

11. The recycling storage portion according to claim 10, wherein a lower portion of the lid assembly is provided with a baffle plate which at least partially covers the gas inlet of the lid assembly and is at least partially disposed at a position between the gas inlet and the filter.

12. The recycling storage portion according to claim 1, wherein the recycling container includes an extension portion extending from a side wall of the recycling container in a direction away from the side wall of the recycling container, the inlet of the hollow stand pipe being connected to the extension portion.

13. The recovery storage section of claim 1, wherein the recovery container further comprises a second bottom wall through which the outlet of the hollow stand pipe passes, inside the recovery container.

14. The recycling storage according to claim 1, wherein the filter is formed with a filtering space, and the solid-liquid mixture flowing out of the outlet of the hollow stand pipe can flow into the filtering space of the filter.

15. The recovery storage section of claim 14, wherein the outlet of the hollow stand pipe is higher than the upper opening of the filtering space of the filter.

16. The recycling storage portion of claim 1, wherein the recycling container further includes a third bottom wall, at least a portion of the filter being in contact with the third bottom wall to limit the position of the filter in the vertical direction by the third bottom wall.

17. A wet surface cleaning apparatus comprising a recovery store according to any of claims 1 to 16.

18. The wet surface cleaning apparatus of claim 17, further comprising:

a cleaning base for cleaning a surface to be cleaned;

a body portion forming an outer contour of the wet surface cleaning apparatus;

a recovery storage part provided to the main body part for storing recovery liquid and dirt, the recovery storage part storing the recovery liquid and the dirt sucked by the suction source when the sub-assembly is mounted to the support assembly.