Extrusion die assembly and mop bucket

Abstract

The utility model provides a kind of extrusion module and mop bucket, it is related to cleaning appliance technical field, the extrusion module is provided with the opening for being inserted for mop plate to clean and dewater mop plate, the setting side of opening is provided with cleaning part and dewatering part, dewatering part is movably connected with extrusion module, cleaning part is movably connected or fixedly connected with extrusion module;Dewatering part is driven to the direction far from opening and moves to the first position of cleaning part protruding from dewatering part, mop plate is inserted from opening and moves, and cleaning part scrapes and / or extrudes the wiping material of mop plate, to facilitate the cleaning of wiping material;Dewatering part is driven to the direction close to opening and moves to the second position of dewatering part protruding from cleaning part, mop plate is inserted from opening and moves, and dewatering part scrapes and / or extrudes the wiping material of mop plate, to facilitate the dewatering of wiping material.The application realizes the reuse of cleaning and dewatering of an opening by the activity of dewatering part driven by force receiving part.

Description

Technical Field

[0001] This utility model relates to the field of cleaning tools technology, and in particular to a squeezing module and a mop bucket. Background Technology

[0002] In related technologies, mop buckets typically have separate washing and wringing chambers to perform washing and wringing functions respectively. During use, the user first inserts the mop head into the washing chamber and moves it up and down, allowing the scraper in the washing chamber to clean the mop head. Then, the user inserts the mop head into the wringing chamber and moves it up and down again, allowing the scraper in the wringing chamber to squeeze and dehydrate the mop head.

[0003] However, setting up separate washing and wringing chambers to accommodate different mop cleaning stages, and ensuring that each chamber can accommodate the mop for proper functioning, results in a larger overall footprint for the mop bucket and a poor user experience. Utility Model Content

[0004] This utility model provides a squeezing module and a mop bucket to solve the problem that the mop bucket with separately set washing chamber and squeezing chamber in related technologies has a large overall footprint and poor user experience.

[0005] This utility model provides a squeezing module, which has an opening for inserting a mop board to clean and dehydrate the mop board. A cleaning component and a dehydrating component are sequentially arranged along the insertion direction of the mop board on the side of the opening. The dehydrating component is movably connected to the squeezing module, and the cleaning component is movably or fixedly connected to the squeezing module. The dehydrating component is driven to move away from the opening until the cleaning component protrudes from the dehydrating component at a first position. The mop board is inserted through the opening and moves, and the cleaning component scrapes and / or squeezes the material being wiped on the mop board to clean it. The dehydrating component is driven to move closer to the opening until it protrudes from the cleaning component at a second position. The mop board is inserted through the opening and moves, and the dehydrating component scrapes and / or squeezes the material being wiped on the mop board to dehydrate it.

[0006] The extrusion module provided by this utility model has an opening for inserting a mop board and for cleaning and dehydrating the mop board. A cleaning component and a dehydrating component are sequentially arranged along the insertion direction of the mop board on the side of the opening. The dehydrating component is movable. When the dehydrating component moves to a first position where the cleaning component protrudes from the dehydrating component, relative movement occurs between the mop board inserted into the opening and the cleaning component, allowing the cleaning component to clean the object being wiped. When the dehydrating component moves to a second position where it protrudes from the cleaning component, relative movement occurs between the mop board inserted into the opening and the dehydrating component, allowing the dehydrating component to dehydrate the object being wiped. This extrusion module integrates cleaning and dehydrating functions within a single opening, switching between these functions by changing the position of the dehydrating component. Compared to related technologies that separately set up cleaning and dehydrating chambers, this extrusion module effectively utilizes and saves space, improving the user experience.

[0007] According to the present invention, an extrusion module is provided, wherein the dehydrating component is rotatably disposed in the extrusion module; the dehydrating component is driven to rotate and switch between a first position and a second position.

[0008] In the extrusion module provided by this utility model, the dehydration component can switch positions by rotation, which improves the efficiency of position switching. This allows users to quickly operate the mop bucket to enter the dehydration mode after washing the wiping material on the mop head, making it convenient for users to dehydrate the wiping material on the mop head in a timely manner.

[0009] According to the present invention, an extrusion module has an opening with a reference side opposite to the setting side. The dehydrating component includes an mounting part and a scraping part. The mounting part is rotatably connected to the extrusion module. The first end of the scraping part is provided with a force-receiving part. When the mop board is inserted into the opening from above and moves upward in the opening, the force-receiving part is driven to rotate the dehydrating component upward to a first position. The dehydrating component is held in the first position so that the cleaning component can scrape and / or squeeze the wiping material on the mop board when it moves up and down. When the mop board is inserted into the opening from above and moves downward in the opening, the force-receiving part is driven to rotate the dehydrating component downward and limit it to a second position so that the dehydrating component can dehydrate the wiping material when the mop board continues to move downward.

[0010] In the extrusion module provided by this utility model, the opening has a reference side opposite to the setting side. The dehydrating component includes an installation part and a scraping part. The installation part is rotatably connected to the extrusion module. The first end of the scraping part is provided with a force-receiving part. When the user inserts the mop board into the opening from the side near the force-receiving part above the opening and moves it upward, the force-receiving part is driven to rotate the dehydrating component upward to the first position. The dehydrating component is kept in the first position so that the cleaning component can scrape and / or squeeze the wiping material on the mop board when it moves up and down. When the user inserts the mop board into the opening from the side near the force-receiving part above the opening and moves it downward in the opening, the force-receiving part is driven to rotate the dehydrating component downward and limit it to the second position so that the dehydrating component can dehydrate the wiping material when the mop board continues to move downward. The position of the dehydrating component can be adjusted by the mop board so that the mop bucket can switch between the cleaning function and the dehydrating function. Compared with the related technology that sets the cleaning chamber and the squeezing chamber separately, the extrusion module of this application can effectively utilize and save space and improve the user experience.

[0011] According to the extrusion module provided by this utility model, when the mop plate is inserted into the side of the opening near the force-bearing part from above and moves upward in the opening, it contacts the force-bearing part and applies force to the force-bearing part to drive the dehydrating component to rotate upward to the first position; when the mop plate is inserted into the side of the opening near the force-bearing part from above and moves downward in the opening, it contacts the force-bearing part and applies force to the force-bearing part to drive the dehydrating component to rotate downward, so that the dehydrating component is limited to the second position.

[0012] This embodiment provides a specific implementation method for switching the position of the dehydrating component by rotation. Specifically, the mop plate contacts the force-receiving part to drive the force-receiving part to rotate upward or downward, allowing the dehydrating component to flexibly switch between a first position and a second position. This rotation setting of the dehydrating component is simple; the user can drive it to switch positions by contacting the force-receiving part with the mop plate, making the operation simple and convenient for the user.

[0013] According to the extrusion module provided by this utility model, the force-receiving part protrudes from the scraping part, and when the dehydrating component is in the first position, the force-receiving part protrudes from the setting side, so that when the mop board is inserted into the side of the opening near the force-receiving part from the top of the opening and moves downward in the opening, the mop board contacts the force-receiving part and drives the dehydrating component to rotate downward through the force-receiving part.

[0014] This embodiment provides a specific implementation of the force-bearing part. Specifically, the force-bearing part protrudes from the scraping part. Regardless of whether the dehydrating component is in the first or second position, the force-bearing part always protrudes from the setting side. This ensures that when the mop board is near the force-bearing part at the insertion opening, it can contact the force-bearing part and drive the dehydrating component to move up and down for position switching. Especially when the dehydrating component is in the first position, the force-bearing part still protrudes from the setting side, facilitating contact between the mop board and the force-bearing part at the insertion opening, and driving the dehydrating component downwards to the second position. This force-bearing part effectively ensures flexible switching between the first and second positions, making it convenient for users to clean or dehydrate using the squeezing module, thus improving the user experience.

[0015] According to the present invention, a pressing module includes a force-bearing part comprising a plurality of protrusions disposed at the first end of a scraping part; and / or, the force-bearing part comprises a plurality of comb teeth disposed at the first end of a scraping part.

[0016] This embodiment provides a specific implementation of the force-receiving part. Specifically, the force-receiving part may include multiple protrusions disposed at the first end of the scraping part, and / or multiple comb teeth disposed at the first end of the scraping part. By providing multiple protrusions and / or multiple comb teeth, the force-receiving part can effectively contact the mop board, increasing the friction between the force-receiving part and the mop board. This allows the mop board to stably drive the force-receiving part to move up and down, reducing the likelihood of slippage between the mop board and the force-receiving part, thus improving the user experience.

[0017] According to the present invention, an extrusion module includes a top cover with an opening and an assembly part disposed below the top cover, wherein the mounting part of the dehydrating component is rotatably connected to the assembly part.

[0018] This embodiment provides a specific implementation of the extrusion module. The extrusion module includes a top cover with an opening and an assembly part disposed below the top cover. The mounting part of the dehydrating component is rotatably connected to the assembly part. After the user inserts the extrusion module into the top cover through the opening, it will cause the dehydrating component to rotate relative to the assembly part. The assembly part can be used to support and set the dehydrating component so that the dehydrating component can work stably in a suitable position.

[0019] According to the present invention, an extrusion module is provided, the assembly part includes two mounting posts extending along the insertion direction of the mop plate, the top ends of the two mounting posts are detachably connected or fixedly connected to the top cover, and a plurality of cleaning components are provided between the two mounting posts, with the two ends of each cleaning component fixed to the two mounting posts respectively.

[0020] This embodiment provides a specific implementation of the installation of the cleaning components. The specific assembly includes two mounting posts extending along the insertion direction of the mop board. The top ends of the two mounting posts are detachably or fixedly connected to the top cover. When detachably connected, it is convenient for the user to remove the two components after using the squeezing module for a period of time and clean them separately. Furthermore, multiple cleaning components are arranged between the two mounting posts. Each cleaning component has its two ends fixed to the two mounting posts. The cleaning components are used to contact the wiping material on the mop board inserted into the opening. When the mop board is inserted into the opening and moves up and down, the cleaning components can clean the wiping material, such as scraping off stains from the wiping material on the mop board during the cleaning process. They can also assist the mop board in initially squeezing out water during the wringing process, and can be further squeezed out using the dehydration component, effectively improving cleaning efficiency and cleaning effect.

[0021] According to the extrusion module provided by this utility model, the cleaning part is wavy or triangular zigzag.

[0022] This embodiment provides a specific implementation of the cleaning component. The cleaning component can be wavy or triangularly shaped to increase the friction between it and the material being wiped by the mop board. This helps to scrape off more dirt during the mop board cleaning process and achieve a better initial wringing effect, effectively improving cleaning efficiency and cleaning results.

[0023] According to the extrusion module provided by this utility model, the two ends of the mounting portion of the dehydrating component are respectively rotatably connected to two mounting columns; at least one mounting column is provided with a limiting member, which is used to limit the dehydrating component when it rotates downward, so that the dehydrating component is limited to a second position.

[0024] This embodiment provides a specific implementation method for limiting the dehydration component. Specifically, at least one mounting post is provided with a limiting component, which is used to limit the dehydration component when it rotates downward. Through the support and limitation of the limiting component, the dehydration component can be limited to protrude from the second position of the washing component, which facilitates effective dehydration of the mop board.

[0025] According to the present invention, an extrusion module is provided, wherein the limiting member is a limiting plate, and the two ends of the limiting plate are respectively fixedly connected to two mounting columns; when the dehydration member rotates downward to the second position, it abuts against the limiting plate.

[0026] This embodiment provides a specific implementation of the limiting component. Specifically, the limiting component is a limiting plate, with both ends fixedly connected to two mounting posts. When the dehydrating component rotates downwards to the second position, it abuts against the limiting plate. At this time, the limiting plate supports and limits the dehydrating component, restricting it to the second position, which helps to effectively scrape or squeeze the mop board. Furthermore, compared to setting a limiting protrusion on at least one mounting post, this application, by setting a limiting plate, can effectively support the dehydrating component through the contact surface between the limiting plate and the dehydrating component, improving the limiting effect of the limiting component. This avoids the situation where the limiting protrusion is squeezed or even damaged due to the user applying a large downward force to drive the dehydrating component, resulting in poor limiting effect, and also improves the service life of the limiting component to a certain extent.

[0027] According to the present invention, an extrusion module further includes a clean water tank, a water spraying section, and a switch section; the water spraying section is correspondingly arranged with the cleaning component and is connected to the clean water tank through a connecting pipe; the switch section is configured to cooperate with the connecting pipe and is used to open or close the connecting pipe.

[0028] When the dehydration component is driven to move to the first position, the mop board is inserted into the opening and moved, triggering the switch. The switch opens the connecting pipe, allowing water in the clean water tank to be sprayed onto the mop board through the spray unit, so that the cleaning component can clean the mop.

[0029] The dehydrating component is driven to move to the second position, the mop plate is inserted into the opening and moved, and the mop plate does not trigger the switch, so that the dehydrating component can dehydrate the wiped item.

[0030] This embodiment provides another specific implementation of the squeezing module. The specific squeezing module further includes a clean water tank, a spray unit, and a switch unit. The spray unit is connected to the clean water tank via a connecting pipe, and the switch unit is configured to open or close the connecting pipe. Furthermore, the switch unit can be located at the end of the opening away from the force-bearing part. During use, each time the user inserts the mop board into the opening from above, near the force-bearing part, to wring out the water, and then pulls the mop board out of the opening, the mop board drives the force-bearing part to rotate to a first position and remain in that position. When the user needs to clean the mop board again after use, they can insert the mop board into the opening from above, away from the force-bearing part. At this time, the wringing part is in the first position, i.e., the cleaning part protrudes from the wringing part. The mop board triggers the switch, and the spray unit sprays water, so that the cleaning part can clean the mop board when the user moves the mop board up and down. After washing, the user pulls the mop board out of the opening and inserts it from above the opening, near the force-bearing part. At this point, the mop board contacts the force-bearing part of the wringer, driving it to rotate and lock in a second position protruding from the washing component. Since the mop board is not in contact with the opening at this time, the spray nozzle cannot be triggered. Therefore, as the mop board continues to move downwards, the wringer can dehydrate the wiped items. Moving the mop board upwards allows the force-bearing part to rotate upwards, preventing excessive force from the wringer and hindering its movement within the mop bucket. When the mop board moves downwards again, the force-bearing part rotates downwards again, locking in the second position, allowing for further dehydration. Repeating this up-and-down movement multiple times achieves the desired dehydration effect.

[0031] According to the present invention, a squeezing module is provided, wherein the switch part is configured to cooperate with the cleaning part, and the squeezing module is also provided with a limiting part, which is disposed between the dehydrating part and the switch part; when the dehydrating part is driven to move to the second position and the mop plate is inserted and moved from the opening, the limiting part is used to restrict the contact between the mop plate and the switch part.

[0032] This embodiment provides another specific implementation of the squeezing module. The squeezing module is also provided with a limiting part. When the dehydrating component is in the second position, the mop board is inserted into the opening and is limited by the limiting part to avoid contact with the switch, so that the mop board can be effectively dehydrated by the dehydrating component.

[0033] According to the extrusion module provided by this utility model, a cleaning component is movably disposed in the extrusion module; when the dehydrating component is driven to move away from the opening to a first position, the cleaning component is driven to move towards the opening to a third position protruding from the dehydrating component, the mop board is inserted from the opening and moves, and the cleaning component scrapes and / or squeezes the wiping material on the mop board to facilitate cleaning the wiping material; when the dehydrating component is driven to move towards the opening to a second position, the cleaning component is driven to move away from the opening to a fourth position protruding from the cleaning component, the mop board is inserted from the opening and moves, and the dehydrating component scrapes and / or squeezes the wiping material on the mop board to facilitate dehydration of the wiping material.

[0034] In this embodiment, another specific installation method for the cleaning component is provided. The cleaning component is movably mounted on the extrusion module. When the dehydration component is driven to move away from the opening to a first position, the cleaning component can be driven to move closer to the opening to a third position protruding from the dehydration component. At this point, the mop board is inserted into the opening and moves, and the cleaning component scrapes and / or squeezes the material being wiped from the mop board to facilitate cleaning. When the dehydration component is driven to move closer to the opening to a second position, the cleaning component is driven to move away from the opening to a fourth position protruding from the cleaning component. At this point, the mop board is inserted into the opening and moves, and the dehydration component scrapes and / or squeezes the material being wiped from the mop board to facilitate dehydration. In other words, the dehydration component can move simultaneously with the cleaning component, allowing the mop bucket to switch between cleaning and dehydration functions, improving the function switching efficiency of the mop bucket.

[0035] According to the present invention, a cleaning component is slidably disposed in the extrusion module, or the cleaning component is rotatably disposed in the extrusion module, or the cleaning component is oscillatingly disposed in the extrusion module.

[0036] In this embodiment, another specific installation method for the cleaning component is provided, namely, the cleaning component can be slidably, rotated, or oscillatingly mounted on the extrusion module. That is, when the dehydration component is driven to switch positions, the cleaning component can simultaneously slide, rotate, or oscillate to switch to a third or fourth position, thereby enabling the mop bucket to switch between cleaning and dehydration functions, improving the function switching efficiency of the mop bucket.

[0037] According to the extrusion module provided by this utility model, the cleaning component and the dehydrating component are linked. The dehydrating component is driven to move away from the opening to a first position, which in turn drives the cleaning component to move closer to the opening to a third position. The dehydrating component is driven to move closer to the opening to a second position, which in turn drives the cleaning component to move away from the opening to a fourth position.

[0038] In this embodiment, another specific installation method for the dehydration and cleaning components is provided, namely, the cleaning component and the dehydration component are linked. In this way, when the dehydration component is driven to move away from the opening to the first position, it can drive the cleaning component to move closer to the opening to the third position; when the dehydration component is driven to move closer to the opening to the second position, it can drive the cleaning component to move away from the opening to the fourth position, thereby enabling the mop bucket to switch between cleaning and dehydration functions, improving the function switching efficiency of the mop bucket.

[0039] This utility model also provides a mop bucket, including a bucket body and a squeezing module of any of the above; the opening of the squeezing module is connected to the inner cavity of the bucket body, so that the mop blade can be inserted into the opening from above and continue to move downward into the inner cavity of the bucket body, and the dehydration component and the washing component are disposed on the side of the squeezing module near the bucket body.

[0040] The mop bucket provided by this utility model includes a bucket body and the aforementioned squeezing module. The opening of the squeezing module is connected to the inner cavity of the bucket body, so that the mop blade can be inserted into the opening from above and continue to move downward into the inner cavity of the bucket body. While supporting the squeezing module, the inner cavity of the bucket body can also hold cleaning water or wastewater after squeezing. Attached Figure Description

[0041] To more clearly illustrate the technical solutions in this utility model or related technologies, the drawings used in the description of the embodiments or related technologies will be briefly introduced below. Obviously, the drawings described below are some embodiments of this utility model. For those skilled in the art, other drawings can be obtained based on these drawings without creative effort.

[0042] Figure 1 This is a schematic diagram of the structure of the mop bucket provided by this utility model;

[0043] Figure 2 This is one of the structural schematic diagrams of the extrusion module provided by this utility model;

[0044] Figure 3 This is the second structural schematic diagram of the extrusion module provided by this utility model;

[0045] Figure 4 This is the third structural schematic diagram of the extrusion module provided by this utility model;

[0046] Figure 5 This is one of the structural schematic diagrams of the first component in the extrusion module provided by this utility model;

[0047] Figure 6 This is the second structural schematic diagram of the first component in the extrusion module provided by this utility model;

[0048] Figure 7 This is the third structural schematic diagram of the first component in the extrusion module provided by this utility model;

[0049] Figure 8 This is a schematic diagram of the top cover portion of the extrusion module provided by this utility model;

[0050] Figure 9 This is the fourth structural schematic diagram of the first component in the extrusion module provided by this utility model;

[0051] Figure 10 This is a schematic diagram of the structure of the second component in the extrusion module provided by this utility model;

[0052] Figure 11 This is a schematic diagram of the structure of the mop board provided by this utility model.

[0053] Figure label:

[0054] 10: Extrusion module; 20: Mop board; 30: Bucket body;

[0055] 101: Dehydration component; 102: Top cover; 103: Assembly part; 104: Water spray part; 105: Switch part;

[0056] 1011: Installation section; 1012: Scraping section;

[0057] 1021: Water purification tank;

[0058] 1031: First component; 1032: Second component; 1033: Support column;

[0059] 10311: Mounting column; 10312: Cleaning component;

[0060] A: Opening; A1: Setting side; A2: Reference side; B: Force-bearing part; C: Limiting component; D: Abutting block; E: First mounting post; F: Second mounting post; G: Extension plate; H: Mounting plate; J: Accommodation space; K: First abutting post; L: Second abutting post; M: First abutting wheel; N: Second abutting wheel; X: First insert; Y: Second insert; P: Support platform. Detailed Implementation

[0061] To make the objectives, technical solutions, and advantages of this utility model clearer, the technical solutions of this utility model will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this utility model, not all embodiments. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this utility model.

[0062] In the description of this utility model, it should be clarified that the terms "vertical", "lateral", "longitudinal", "front", "back", "left", "right", "up", "down", "horizontal", etc., which indicate orientation or positional relationship, are based on the orientation or positional relationship shown in the accompanying drawings and are only for the convenience of describing this utility model. They do not mean that the device or element referred to must have a specific orientation or position, and therefore should not be construed as a limitation on this utility model.

[0063] In the description of this utility model, it should also be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "linking" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; they can refer to the internal connection of two components; they can refer to a wireless connection or a wired connection. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.

[0064] Furthermore, the technical features involved in the different embodiments of this utility model described below can be combined with each other as long as they do not conflict with each other.

[0065] The extrusion module and mop bucket of this utility model are described below with reference to the accompanying drawings.

[0066] According to one aspect, the present invention provides a squeezing module 10. The squeezing module 10 is provided with an opening A for inserting a mop board 2020 to clean and dehydrate the mop board 20. A cleaning component 10312 and a dehydrating component 101 are sequentially arranged on the side A1 of the opening A along the insertion direction of the mop board 20. The dehydrating component 101 is movably connected to the squeezing module 10, and the cleaning component 10312 is movably or fixedly connected to the squeezing module 10. The dehydrating component 101 is driven to move away from the opening A until the cleaning component 10312 protrudes from the dehydrating component. In the first position 101, the mop board 20 is inserted and moved from the opening A, and the cleaning component 10312 scrapes and / or squeezes the wiping material on the mop board 20 to facilitate cleaning the wiping material; the dehydrating component 101 is driven to move towards the opening A until the dehydrating component 101 protrudes from the cleaning component 10312 in the second position, the mop board 20 is inserted and moved from the opening A, and the dehydrating component 101 scrapes and / or squeezes the wiping material on the mop board 20 to facilitate dehydration of the wiping material.

[0067] For example, the cleaning component 10312 can be fixedly disposed with the extrusion module 10, so that the dehydrating component 101 can switch positions relative to the extrusion module 10. For example, it can switch to a first position where the cleaning component 10312 protrudes from the dehydrating component 101, in which case the distance between the cleaning component 10312 and the reference side A2 is less than the distance between the dehydrating component 101 and the reference side A2; or it can switch to a second position where the dehydrating component 101 protrudes from the cleaning component 10312, in which case the distance between the cleaning component 10312 and the reference side A2 is greater than the distance between the dehydrating component 101 and the reference side A2. Moreover, the distance between the dehydrating component 101 and the reference side A2 when it is in the first position is greater than the distance between the dehydrating component 101 and the reference side A2 when it is in the second position; the distance between the cleaning component 10312 and the reference side A2 when it is in the first position is greater than the distance between the dehydrating component 101 and the reference side A2 when it is in the second position. In other words, the extrusion opening formed between the cleaning component 10312 and the reference side A2 is larger during cleaning, while the extrusion opening formed between the dehydrating component 101 and the reference side A2 is smaller during dehydration.

[0068] Optionally, the extrusion module 10 can be positioned at the opening of the bucket 30, allowing the dehydration component 101 and the cleaning component 10312 to extend into the inner cavity of the bucket 30, where the inner cavity contains water for cleaning the mop board. When the user needs to clean the items wiped by the mop board 20, the user can drive the dehydration component 101 to the first position. At this position, the cleaning component 10312 protrudes from the dehydration component 101. As the mop board is inserted into the inner cavity of the bucket 30 from the opening A and moves up and down, the items wiped are cleaned using the water in the inner cavity and the cleaning component 10312. After cleaning, the user can drive the dehydration component 101 to the second position. At this position, the dehydration component 101 protrudes from the cleaning component 10312. As the mop board is inserted into the inner cavity of the bucket 30 from the opening A and moves up and down, the items wiped are dehydrated using the dehydration component 101.

[0069] For example, the dehydrating component 101 can be slidably disposed on the squeezing module 10, meaning that the dehydrating component 101 can be driven to slide relative to the squeezing module 10 and switch between a first position and a second position. Specifically, the squeezing module 10 is provided with a sliding groove, the dehydrating component 101 is slidably disposed in the sliding groove, and the dehydrating component 101 is provided with an operating part. When the user needs to clean the wiped material on the mop board 20, they can hold the operating part to drive the dehydrating component 101 to slide along the sliding groove to the first position, at which time the cleaning component 10312 protrudes from the dehydrating component 101. After cleaning is completed, the user can hold the operating part to drive the dehydrating component 101 to slide along the sliding groove to the second position, at which time the dehydrating component 101 protrudes from the cleaning component 10312.

[0070] Alternatively, the dewatering component 101 can also be oscillatingly disposed in the extrusion module 10, that is, the dewatering component 101 can be driven to oscillate relative to the extrusion module 10 and switch between a first position and a second position.

[0071] The extrusion module 10 provided by this utility model is provided with an opening A for inserting a mop plate 20 and for cleaning and dehydrating the mop plate 20. On the side A1 of the opening A, a cleaning component 10312 and a dehydrating component 101 are arranged sequentially along the insertion direction of the mop plate 20. The dehydrating component 101 can be driven to move. When the dehydrating component 101 moves to the first position where the cleaning component 10312 protrudes from the dehydrating component 101, relative movement occurs between the mop plate 20 inserted into the opening A and the cleaning component 10312, and the cleaning component 10312 can clean the wiping object. When the dehydrating component 101 moves to the second position where it protrudes from the cleaning component 10312, relative movement occurs between the mop plate 20 inserted into the opening A and the dehydrating component 101, and the dehydrating component 101 can dehydrate the wiping object. The extrusion module 10 of this application integrates cleaning and dehydration functions in an opening A. The switching between cleaning and dehydration functions is achieved by changing the position of the dehydration component 101. Compared with the related technologies that set up cleaning chambers and dehydration chambers separately, the extrusion module 10 of this application can effectively utilize and save space and improve the user experience.

[0072] According to the present invention, an extrusion module 10 is provided, wherein the dehydration component 101 is rotatably disposed in the extrusion module 10; the dehydration component 101 is driven to rotate and switch between a first position and a second position.

[0073] For example, the dehydrating component 101 is rotatably mounted on the squeezing module 10, meaning the dehydrating component 101 can be driven to rotate relative to the squeezing module 10 and switch between a first position and a second position. Specifically, the squeezing module 10 is provided with a shaft hole, and the dehydrating component 101 has rotating shafts at both ends. The dehydrating component 101 has two protruding ridges along the rotating shaft axial direction, with different distances from the top of the two protruding ridges to the rotating shaft. The dehydrating component 101 is also provided with an operating part. When the user needs to clean the items wiped by the mop board 20, they can hold the operating part to drive the dehydrating component 101 to rotate until the first protruding ridge, whose top is closer to the rotating shaft, is opposite to the reference side A2, i.e., the dehydrating component 101 is in the first position. In fact, the cleaning component 10312 protrudes from the first protruding ridge. When the mop board is inserted into the inner cavity of the bucket 30 from the opening A and moves up and down, the cleaning of the items wiped by the water contained in the inner cavity and the cleaning component 10312 can be completed. After cleaning is complete, the user can hold the operating part to drive the dehydration component 101 to rotate until the second convex ridge, which is far from the rotation axis at the top, is opposite to the reference side A2. That is, the dehydration component 101 is in the second position. At this time, the second convex ridge protrudes from the cleaning component 10312. When the mop board is inserted into the inner cavity of the bucket 30 from the opening A and moves up and down, the dehydration of the wiped item can be completed by the dehydration component 101.

[0074] In the extrusion module 10 provided by this utility model, the dehydration component 101 can switch positions by rotation, which improves the efficiency of position switching. This allows the user to quickly operate the mop bucket to enter the dehydration mode after cleaning the wiping material on the mop head, making it convenient for the user to dehydrate the wiping material on the mop head in a timely manner.

[0075] According to the extrusion module 10 provided by this utility model, the opening A has a reference side A2 opposite to the setting side A1. The dehydrating component 101 includes a mounting part 1011 and a scraping part 1012. The mounting part 1011 is rotatably connected to the extrusion module 10. The first end of the scraping part 1012 is provided with a force receiving part B. When the mop plate 20 is inserted into the side of the opening A near the force receiving part B from above and moves upward in the opening A, it drives the force receiving part B to drive the dehydrating component 101 to rotate upward. In the first position, the dehydrating component 101 remains in the first position so that the cleaning component 10312 can scrape and / or squeeze the wiping material on the mop board 20 when the mop board 20 moves up and down; when the mop board 20 is inserted into the side of the opening A near the force receiving part B from above the opening A and moves downward in the opening A, the force receiving part B is driven to drive the dehydrating component 101 to rotate downward and be limited to the second position so that the dehydrating component 101 can dehydrate the wiping material when the mop board 20 continues to move downward.

[0076] In the extrusion module 10 provided by this utility model, the opening A has a reference side A2 opposite to the setting side A1. The dehydrating component 101 includes a mounting part 1011 and a scraping part 1012. The mounting part 1011 is rotatably connected to the extrusion module 10. The first end of the scraping part 1012 is provided with a force-receiving part B. When the user inserts the mop board 20 downward into the opening A from above the side near the force-receiving part B and moves it upward, the force-receiving part B is driven to rotate the dehydrating component 101 upward to the first position. The dehydrating component 101 is held in the first position so that the cleaning component 10312 can clean the mop board 20 when the mop board 20 moves up and down. The wiping material is scraped and / or squeezed; when the user inserts the mop board 20 into the opening A from above and moves it downward in the opening A, the force receiving part B is driven to rotate the dehydrating component 101 downward and limit it to a second position, so that the dehydrating component 101 can dehydrate the wiping material as the mop board 20 continues to move downward. The position of the dehydrating component 101 can be adjusted by the mop board 20 to switch the mop bucket between the washing function and the dehydrating function. Compared with the related technology that sets the washing chamber and the squeezing chamber separately, the squeezing module 10 of this application can effectively utilize and save space and improve the user experience.

[0077] Figure 1 This is a structural schematic diagram of the mop bucket provided by this utility model. Figure 2 This is one of the structural schematic diagrams of the extrusion module provided by this utility model, such as... Figure 1 and Figure 2 As shown, the extrusion module 10 is provided with an opening A for inserting a mop plate 20. A dehydrating component 101 is provided below the setting side A1 of the opening A. The opening A has a reference side A2 opposite to the setting side A1. The dehydrating component 101 includes a mounting part 1011 and a scraping part 1012. The mounting part 1011 is rotatably connected to the extrusion module 10.

[0078] The first end of the scraping part 1012 is provided with a force receiving part B. When the mop plate 20 is inserted into the opening A from above and close to the force receiving part B, and moves upward in the opening A, the force receiving part B is driven to rotate the dehydrating member 101 upward to the first position. The dehydrating member 101 is held in the first position so that when the mop plate 20 is inserted into the opening A from above and away from the force receiving part B, the scraping part 1012 does not contact the mop plate 20. When the mop plate 20 is inserted into the opening A from above and close to the force receiving part B, and moves downward in the opening A, the force receiving part B is driven to rotate the dehydrating member 101 downward and limit it to the second position so as to scrape and / or squeeze the wiping material on the mop plate 20.

[0079] Specifically, the opening A is divided into a side close to the force-bearing part B and a side away from the force-bearing part B. The mop plate 20 can drive the force-bearing part B from the side close to the force-bearing part B to rotate the dehydrating component 101 upward or downward. After driving the dehydrating component 101 upward to the first position, when the mop plate 20 is inserted on the side away from the force-bearing part B, it will not contact the scraping part 1012 of the dehydrating component 101. At this time, the dehydrating component 101 is retracted and not working. Therefore, the mop plate 20 can be driven to move up and down to clean the mop plate 20. During this process, the dehydrating component 101 does not need to squeeze the mop plate 20. After driving the dehydrating component 101 downward to the second position, when the mop plate 20 is inserted on either the side close to the force-bearing part B or the side away from the force-bearing part B, it will contact the scraping part 1012 of the dehydrating component 101. At this time, the dehydrating component 101 is lowered and starts working. The mop plate 20 can be driven to move up and down to squeeze and dehydrate the mop plate 20.

[0080] For example, the working relationship between the mop board 20 and the squeezing module 10 on the mop bucket can achieve the following two modes:

[0081] 1) Cleaning Mode:

[0082] Step 1: Adjust the dehydration component 101 to the first position: The user first inserts the mop board 20 into the side of the opening A near the force-receiving part B from above the opening A and moves it upward in the opening A to drive the force-receiving part B to rotate the dehydration component 101 upward to the first position.

[0083] Step 2, Cleaning: The user inserts the mop board 20 into the side of the opening A away from the force-bearing part B from above the opening A. At this time, the scraping part 1012 does not contact the mop board 20, and the cleaning component 10312 can clean the mop board 20. The cleaning process does not require the scraping part 1012 to squeeze the mop board 20.

[0084] 2) Extrusion dehydration mode:

[0085] The user inserts the mop board 20 into the side of opening A near the force-bearing part B from above opening A and moves it up or down in opening A.

[0086] When the mop board 20 moves upward on this side (the side closer to the force-receiving part B), it will drive the force-receiving part B to rotate the dehydration part 101 upward to the first position, making it easier to remove the mop board 20.

[0087] When the mop plate 20 moves downward on this side (the side closer to the force-receiving part B), the force-receiving part B will first drive the dehydration part 101 to rotate downward to the second position. Then, as the mop plate 20 continues to move downward, the scraping part 1012 can scrape and / or squeeze the mop plate 20 to squeeze and dehydrate it.

[0088] Furthermore, when the mop board 20 finishes wringing, the user pulls the mop board 20 out of the opening A. At this time, the mop board 20 drives the wringing component 101 to rotate upward to the first position through the force-bearing part B. This allows the user to insert the mop board 20 back into the opening A from above the opening A on the side away from the force-bearing part B and move it in the opening A. This keeps the wringing component 101 in the first position, and the cleaning component 10312 protrudes from the wringing component 101 to clean the wiped object.

[0089] The extrusion module provided by this utility model has an opening A for inserting a mop board 20. The opening A has a setting side A1 and a reference side A2 opposite to it. A dehydrating component 101 is provided below the setting side A1. The dehydrating component 101 is rotatably connected to the extrusion module 10. When the dehydrating component 101 rotates downward to the second position, it can effectively squeeze and scrape the mop board 20 to achieve the dehydration function of the mop board 20. When the dehydrating component 101 rotates upward to the first position, it retracts, and the user can use the cleaning component 10312 to effectively clean the mop board 20 to achieve the cleaning function of the mop board 20. Yes; the specific dehydration component 101 includes an installation part 1011 and a scraping part 1012. A force-receiving part B is provided at the first end of the scraping part 1012. When the user moves the mop board 20 downward from the side above the opening A near the force-receiving part B, the mop board 20 can drive the force-receiving part B to rotate the dehydration component 101 downward to the second position to squeeze and dehydrate the mop board 20. When the user moves the mop board 20 upward from the side above the opening A near the force-receiving part B, the mop board 20 can drive the force-receiving part B to rotate the dehydration component 101 upward to the first position so that the dehydration component 101 avoids the opening A, leaving more space for the mop board 20 to clean. The extrusion module 10 of this application integrates cleaning and dehydration functions. By driving the dehydration component 101 to rotate up and down through the force-bearing part B, the function can be switched between cleaning and dehydration. Compared with the related technologies that have separate cleaning and dehydration chambers, the extrusion module 10 of this application can effectively utilize and save space and improve the user experience.

[0090] In some embodiments, a specific implementation of the rotating arrangement of the dehydration component 101 is provided. For example... Figure 1 and Figure 2 As shown, when the mop plate 20 is inserted into the side of the opening A near the force-receiving part B from above and moves upward in the opening A, it contacts the force-receiving part B and applies force to the force-receiving part B to drive the dehydrating component 101 to rotate upward to the first position; when the mop plate 20 is inserted into the side of the opening A near the force-receiving part B from above and moves downward in the opening A, it contacts the force-receiving part B and applies force to the force-receiving part B to drive the dehydrating component 101 to rotate downward and be limited to the second position.

[0091] Specifically, the mop plate 20 contacts the force-receiving part B to drive the force-receiving part B to rotate the dehydrating component 101 upward or downward, so that the dehydrating component 101 can flexibly switch between the first position and the second position. The rotation setting of the dehydrating component 101 is simple. The user can drive the dehydrating component 101 to move up and down by contacting the force-receiving part B with the mop plate 20. The operation is simple and convenient for the user.

[0092] In some embodiments, a specific implementation of the force-bearing part B is provided. For example... Figure 1 and Figure 2 As shown, the force-receiving part B protrudes from the scraping part 1012, and when the dehydrating component 101 is in the first position, the force-receiving part B protrudes from the setting side A1, so that when the mop plate 20 is inserted into the side of the opening A near the force-receiving part B from above the opening A and moves downward in the opening A, the mop plate 20 contacts the force-receiving part B and drives the dehydrating component 101 to rotate downward through the force-receiving part B.

[0093] Specifically, the force-receiving part B protrudes from the scraping part 1012. Regardless of whether the dehydrating component 101 is in the first or second position, the force-receiving part B always protrudes from the setting side A1. This ensures that the mop board 20 can always contact the force-receiving part B and drive the dehydrating component 101 to move up and down. Especially when the dehydrating component 101 is in the first position, i.e., when the dehydrating component 101 is retracted, it is necessary to ensure that the force-receiving part B still protrudes from the setting side A1, so that the mop board 20 can contact the force-receiving part B and drive the dehydrating component 101 to rotate downwards. The aforementioned setting of the force-receiving part B effectively ensures that the dehydrating component 101 can flexibly switch between the first and second positions, facilitating users to use the squeezing module 10 for cleaning or squeezing dehydration, thus improving the user experience.

[0094] In some embodiments, a specific implementation of the force-receiving part B is provided. The force-receiving part B includes a plurality of protrusions disposed at the first end of the scraping part 1012;

[0095] And / or, the force-bearing part B includes a plurality of comb teeth disposed at the first end of the scraping part 1012.

[0096] It should be noted that, as Figure 2 As shown in the figure, the force-receiving part B includes multiple comb teeth disposed at the first end of the scraping part 1012 as an example. The force-receiving part B may also include multiple protrusions and multiple comb teeth at the same time. This embodiment does not impose any restrictions.

[0097] Specifically, the force-receiving part B may include a plurality of protrusions disposed at the first end of the scraping part 1012, and / or a plurality of comb teeth disposed at the first end of the scraping part 1012. By providing a plurality of protrusions and / or a plurality of comb teeth, the force-receiving part B can make effective contact with the mop board 20, increasing the friction between the force-receiving part B and the mop board 20. Thus, the mop board 20 can stably drive the force-receiving part B to drive the dehydration component 101 to move up and down, making it less likely that the mop board 20 will slip between the force-receiving part B and the dehydration component 101 to move up and down stably, further improving the user experience.

[0098] In some embodiments, a specific implementation of the scraping portion 1012 is provided. For example... Figure 1 and Figure 2 As shown, the distance between the second end of the scraping part 1012 and the force-receiving part B is greater than or equal to the dimension of the mop board 20 along the extension direction of the dehydrating member 101.

[0099] Specifically, after the user moves the dehydrating component 101 upward to retract it, the mop board 20 can be cleaned on the side of the opening A away from the force-bearing part B. In this application, the distance between the second end of the scraping part 1012 and the force-bearing part B is greater than or equal to the dimension of the mop board 20 along the extension direction of the dehydrating component 101. This avoids the mop board 20 from contacting the force-bearing part B and causing the dehydrating component 101 to move up and down during the cleaning process, thus affecting the cleaning process of the mop board 20 and ensuring the stability of the mop board 20's cleaning work.

[0100] In some embodiments, a specific implementation of the relative position between the scraping part 1012 and the force-receiving part B is provided. For example... Figure 1 and Figure 2 As shown, the distance between the second end of the scraping part 1012 and the force-receiving part B is the distance between the second end and the side of the force-receiving part B closest to the second end.

[0101] Specifically, this application sets the distance between the second end of the scraping part 1012 and the force-receiving part B to be the distance between the second end and the side of the force-receiving part B closest to the second end. Setting this distance to be greater than or equal to the dimension of the mop board 20 along the extension direction of the dehydrating member 101 can effectively prevent the mop board 20 from contacting the force-receiving part B during the cleaning process in the opening A, thus ensuring the stability of the cleaning operation of the mop board 20.

[0102] In some embodiments, a specific implementation of the extrusion module 10 is provided. Figure 3 This is the second structural schematic diagram of the extrusion module provided by this utility model, as shown below. Figures 1 to 3 As shown, the extrusion module 10 includes a top cover 102 with an opening A and an assembly part 103 located below the top cover 102. The mounting part 1011 of the dewatering component 101 is rotatably connected to the assembly part 103.

[0103] Specifically, the extrusion module 10 includes a top cover 102 with an opening A and an assembly part 103 located below the top cover 102. The mounting part 1011 of the dehydrating component 101 is rotatably connected to the assembly part 103. After the user inserts the extrusion module 10 into the top cover 102 through the opening A, the dehydrating component 101 will rotate relative to the assembly part 103. The assembly part 103 can be used to support the dehydrating component 101 so that the dehydrating component 101 can work stably in a suitable position.

[0104] In some embodiments, a specific implementation of the assembly part 103 is provided. Figure 4 This is the third structural schematic diagram of the extrusion module provided by this utility model. Figure 4 This is a cross-sectional view of the extrusion module, such as... Figures 1 to 4As shown, the assembly part 103 includes a first component 1031 and / or a second component 1032 disposed opposite to each other. The first component 1031 is disposed below the setting side A1 of the opening A, and the second component 1032 is disposed below the reference side A2 of the opening A.

[0105] When the mop plate 20 is inserted into the opening A from above and continues to move downward to the assembly part 103, the first component 1031 abuts against the wiping material provided on the bottom surface of the mop plate 20 and / or the second component 1032 abuts against the top surface of the mop plate 20.

[0106] Specifically, the assembly part 103 includes a first component 1031 and / or a second component 1032 disposed opposite to each other. The first component 1031 is disposed below the setting side A1 of the opening A, and the second component 1032 is disposed below the reference side A2 of the opening A. When the user inserts the mop board 20 into the opening A from above and continues to move it downward to the assembly part 103 during the use of the extrusion module 10, the first component 1031 will abut against the wiping material disposed on the bottom surface of the mop board 20 and / or the second component 1032 will abut against the top surface of the mop board 20. The first component 1031 and the second component 1032 can restrict the mop board 20 within a certain space, so as to facilitate effective cleaning of the mop board 20 by using, for example, the dehydration component 101, which helps to improve cleaning efficiency and cleaning effect.

[0107] In some embodiments, a specific implementation of the first component 1031 is provided. Figure 5 This is one of the structural schematic diagrams of the first component in the extrusion module provided by this utility model, such as... Figures 1 to 5 As shown, the first component 1031 includes two mounting posts 10311 extending along the insertion direction of the mop board. The top ends of the two mounting posts 10311 are detachably or fixedly connected to the top cover 102. A plurality of cleaning components 10312 are provided between the two mounting posts 10311. The two ends of each cleaning component 10312 are fixed to the two mounting posts 10311 respectively. The cleaning component 10312 abuts against the wiping material of the mop board 20, and when the mop board 20 moves up and down through the insertion opening A, the cleaning component 10312 is used to clean the wiping material.

[0108] Specifically, the first component 1031 includes two mounting posts 10311 extending along the insertion direction of the mop board 20. The top ends of the two mounting posts 10311 are detachably or fixedly connected to the top cover 102. When the two are detachably connected, it is convenient for the user to remove the two components and clean them separately after using the squeezing module 10 for a period of time. In addition, a plurality of cleaning components 10312 are provided between the two mounting posts 10311. The two ends of each cleaning component 10312 are fixed to the two mounting posts 10311 respectively. The cleaning component 10312 is used to abut against the wiping material of the mop board 20 inserted into the opening A. When the mop board 20 is inserted into the opening A and moves up and down, the cleaning component 10312 can clean the wiping material. For example, it can assist the mop board 20 in scraping off stains during the cleaning process. It can also assist the mop board 20 in performing preliminary squeezing of water during the wringing process. Subsequently, the water can be further squeezed out using the dehydration component 101, which effectively improves the cleaning efficiency and cleaning effect.

[0109] For example, the number of mounting posts 10311 included in the first component 1031 may be limited to two or more. When there are multiple mounting posts 10311, multiple cleaning components 10312 may be provided between every two mounting posts 10311.

[0110] It should be noted that the multiple cleaning components 10312 may include different types of cleaning components, such as raised cleaning components, scraper-type cleaning components, comb-type cleaning components, etc. The multiple cleaning components 10312 may be stacked between two mounting posts 10311 to be suitable for different types of scraping and cleaning, thereby improving the scraping and cleaning effect.

[0111] In some embodiments, a specific implementation of the cleaning component 10312 is provided. For example... Figure 5 As shown, the cleaning component 10312 is wavy or triangular zigzag.

[0112] Specifically, the cleaning component 10312 can be wavy or triangular zigzag-shaped to increase the friction between itself and the mop board 20, which helps to scrape off more dirt during the cleaning process of the mop board 20 and achieve a better initial wringing effect, thus effectively improving cleaning efficiency and cleaning effect.

[0113] In some embodiments, another specific implementation of the assembly part 103 is provided. For example... Figures 1 to 5 As shown, the assembly part 103 also includes at least one support column 1033, which is disposed on the side of the cleaning member 10312 away from the opening A, and is used to provide support force to the cleaning member 10312.

[0114] Specifically, the assembly part 103 also includes at least one support column 1033, which is disposed on the side of the cleaning component 10312 away from the opening A. When the user inserts the mop board 20 into the opening A and moves it downward, the support column 1033 can provide support to the cleaning component 10312, thereby preventing the mop board 20 from causing the cleaning component 10312 to shift or even be squeezed and damaged during the cleaning process. This improves the cleaning effect and extends the service life of the cleaning component 10312 to a certain extent.

[0115] In some embodiments, another specific implementation of the first component 1031 is provided. For example... Figures 1 to 5 As shown, the first component 1031 includes two mounting posts 10311 whose top end is detachably or fixedly connected to the top cover 102, and the two ends of the mounting part 1011 of the dehydration component 101 are respectively rotatably connected to the two mounting posts 10311.

[0116] Specifically, the first component 1031 includes two mounting posts 10311 that are detachably or fixedly connected to the top cover 102. When the two mounting posts 10311 are detachably connected to the top cover 102, it is convenient for the user to remove the two components and clean them separately after using the squeezing module 10 for a period of time. In addition, the two ends of the mounting part 1011 of the dehydrating component 101 are rotatably connected to the two mounting posts 10311 respectively. The two mounting posts 10311 are used to support the mounting part 1011 in a suitable position, so as to facilitate the cooperation between the dehydrating component 101 and the mop board 20 to achieve the angle adjustment of the dehydrating component 101.

[0117] In some embodiments, a specific implementation method is provided for limiting the dehydration element 101. Figure 6 This is the second structural schematic diagram of the first component in the extrusion module provided by this utility model, as shown below. Figures 1 to 6 As shown, at least one mounting post 10311 is provided with a limiting member C, which is used to limit the dehydration member 101 when it rotates downward, so that the dehydration member 101 is limited to the second position.

[0118] Specifically, at least one mounting post 10311 is provided with a limiting member C, which is used to limit the dehydration member 101 when it rotates downward. Through the support and limiting of the limiting member C, the dehydration member 101 can be limited to the second position, which facilitates the effective scraping or squeezing of the mop board 20.

[0119] In some embodiments, a specific implementation of the limiting member is provided. For example... Figures 1 to 6As shown, the limiting member C is a limiting plate, and the two ends of the limiting plate are fixedly connected to two mounting posts 10311 respectively; when the dehydration member 101 rotates downward to the second position, it abuts against the limiting plate C.

[0120] Specifically, the limiting member C is a limiting plate, with its two ends fixedly connected to two mounting posts 10311. When the dehydrating member 101 rotates downward to the second position, it abuts against the limiting plate. At this time, the limiting plate supports and limits the dehydrating member 101, keeping it in the second position, which helps to effectively scrape or squeeze the mop board 20. In addition, compared with setting a limiting protrusion on at least one mounting post 10311, this application, by setting a limiting plate, can effectively support the dehydrating member 101 through the contact surface between the limiting plate and the dehydrating member 101, improving the limiting effect of the limiting member C. This avoids the situation where the limiting protrusion is squeezed or even damaged when the user applies a large downward force to drive the dehydrating member 101, resulting in poor limiting effect. It also improves the service life of the limiting member C to a certain extent.

[0121] For example, the limiting member C can also be a limiting protrusion provided on the side of the mounting column 10311. When the dehydrating member 101 rotates downward to the second position, it will abut against the limiting protrusion. The setting method of the limiting protrusion is simple and can play a limiting and supporting role.

[0122] In some embodiments, a specific implementation of the location of the dehydration element 101 is provided. For example... Figures 1 to 6 As shown, when the dehydration component 101 rotates downward to the second position, the scraping part 1012 protrudes from the limiting plate, so that the scraping part 1012 can scrape and / or squeeze the wiping material on the mop board 20.

[0123] Specifically, when the dehydrating component 101 rotates downward to the second position, the scraping part 1012 will protrude from the limiting plate, so that the scraping part 1012 can scrape and / or squeeze the wiping material on the mop board 20. While ensuring that the limiting plate limits and supports the dehydrating component 101, the limiting plate will not affect the scraping part 1012 from performing normal cleaning on the mop board 20.

[0124] In some embodiments, another specific implementation of the scraping part 1012 is provided. Figure 7 This is the third structural schematic diagram of the first component in the extrusion module provided by this utility model, as shown below. Figures 1 to 7 As shown, the scraping part 1012 is provided with an abutting block D on the side near the limiting plate. When the dewatering part 101 abuts against the limiting plate, the abutting block D abuts against the edge of the limiting plate.

[0125] It should be noted that the number of abutment blocks D provided on the scraping part 1012 can be one or more. The more abutment blocks D are provided, the more the force transmitted to the edge of the limiting plate after being subjected to the force of the mop board 20 can be distributed on the limiting plate. In addition to preventing the dehydrating part 101 from moving away from the mop board 20 during the scraping process, which would cause the dehydrating part 101 to be squeezed and damaged or to fall out of the mounting post 10311, the limiting plate can also be protected from damage to a certain extent.

[0126] For example, if multiple abutment blocks D are provided, the multiple abutment blocks D can be evenly arranged along the extension direction of the scraping part 1012 so that the force of the abutment block D from the mop board 20 is evenly transmitted to the edge of the limiting plate. In addition to preventing the dehydrating part 101 from moving away from the mop board 20 during the scraping of the mop board 20, which would cause the dehydrating part 101 to be squeezed and damaged or to fall out of the mounting post 10311, the limiting plate can be further protected from damage.

[0127] Specifically, the scraping part 1012 is provided with an abutment block D on the side near the limiting plate. When the dehydrating part 101 abuts against the limiting plate, the abutment block D abuts against the edge of the limiting plate. The edge of the limiting plate supports and limits the abutment block D, thereby preventing the dehydrating part 101 from moving away from the mop board 20 during the scraping process, which would cause the dehydrating part 101 to be squeezed and damaged or to fall out of the mounting post 10311. While protecting the dehydrating part 101 from damage and extending its service life, the dehydrating part 101 can normally scrape or squeeze the mop board 20, thus improving the cleaning efficiency and cleaning effect of the dehydrating part 101.

[0128] In some embodiments, a specific implementation of the top cover is provided. Figure 8 This is a structural schematic diagram of the top cover portion of the extrusion module provided by this utility model, as shown below. Figures 1 to 8 As shown, the extrusion module also includes a clean water tank 1021, a water spray unit 104, and a switch unit 105. Optionally, the clean water tank 1021 can be disposed on the top cover 102, the water spray unit 104 is disposed between the top cover 102 and the dewatering component 101, and is connected to the clean water tank 1021 through a connecting pipe; the switch unit 105 is configured in conjunction with the connecting pipe to open or close the connecting pipe.

[0129] The switch part 105 is located at the end of the opening A away from the force-bearing part B. When the mop plate 20 is inserted into the side of the opening A away from the force-bearing part B from above, the mop plate 20 triggers the switch part 105. The switch part 105 opens the connecting pipe, so that the water in the water tank 1021 is sprayed onto the wiping object of the mop plate 20 through the spray part 104.

[0130] For example, the switch 105 can be located at the end of the opening A away from the force-bearing part B. In actual use, each time the user inserts the mop board 20 from above the opening A near the force-bearing part B to wring water, and then pulls the mop board 20 out of the opening, the mop board 20 drives the force-bearing part B to rotate the wringing component 101 to a first position and maintain it in that first position. When the user needs to clean the mop board 20 again after use, the user can insert the mop board 20 from above the opening A away from the force-bearing part B. At this time, the wringing component 101 is in the first position, that is, the cleaning component 10312 protrudes from the wringing component 101. The mop board 20 triggers the switch 105, and the water spraying part 104 sprays water so that the cleaning component 10312 can clean the mop board 20 when the user holds the mop board 20 and moves it up and down. After cleaning is complete, the user pulls the mop board 20 out of the opening A and inserts it from above the opening A near the force-receiving part B. At this time, the mop board 20 contacts the force-receiving part B of the dehydrating component 101 and drives the force-receiving part B to rotate the dehydrating component 101 and limit it to the second position protruding from the cleaning component 10312. At this time, the mop board 20 does not contact the opening and cannot trigger the water spraying part 104 to spray water. Therefore, the mop board 20 can continue to move downward to dehydrate the wiped object through the dehydrating component 101. The mop board 20 can also move upward to rotate the dehydrating component 101 upward through the force-receiving part B, avoiding the problem that the mop board 20 cannot move quickly in the mop bucket due to excessive force applied by the dehydrating component 101 to the wiped object. When the mop board 20 moves downward again, the force-receiving part B drives the dehydrating component 101 to rotate downward again and limit it to the second position, so that the wiped object can be dehydrated again through the dehydrating component 101. The material can be dehydrated by moving up and down repeatedly through the dehydration component 101.

[0131] Specifically, the top cover 102 is equipped with a clean water tank 1021, and the squeezing module 10 also includes a water spraying part 104 and a switch part 105; wherein the water spraying part 104 is disposed between the top cover 102 and the dehydration component 101, and is connected to the clean water tank 1021 through a connecting pipe, and the switch part 105 is configured to cooperate with the connecting pipe for opening or closing the connecting pipe; in addition, the switch part 105 is disposed at the end of the opening A away from the force-bearing part B. In actual use, when the user needs to clean the mop board 20, he inserts the mop board 20 into the side of the opening A away from the force-bearing part B from above the opening A, at which time the mop board 20 will trigger the switch. The switch 105 opens the connecting pipe, allowing water from the clean water tank 1021 to be sprayed onto the mop board 20 through the spray nozzle 104 to clean the mop board 20. When the user needs to squeeze the mop board 20 to remove water, they insert the mop board 20 into the side of the opening A near the force-bearing part B from above the opening A. At this time, the switch 105 will not be triggered, the connecting pipe will be closed, and the mop board 20 will be squeezed to remove water. The user can simply trigger the switch 105 to spray water, eliminating the need for manual water spraying on the mop board 20. This improves cleaning efficiency and enhances the user experience.

[0132] According to another extrusion module provided by this utility model, the switch part is configured to cooperate with the cleaning part, and the extrusion module is also provided with a limiting part, which is disposed between the dehydrating part and the switch part; when the dehydrating part is driven to move to the second position and the mop plate is inserted and moved from the opening, the limiting part is used to restrict the contact between the mop plate and the switch part.

[0133] For example, the extrusion module 10 is disposed at the opening of the barrel 30, so that the dehydration component 101 and the cleaning component 10312 extend into the inner cavity of the barrel 30. Specifically, the cleaning component 10312 is disposed below the dehydration component 101, the switch part 105 is disposed on or below the cleaning component 10312, and the limiting part is disposed on the second abutment post L near the force-bearing part B. In practical use, when the user needs to clean the mop board 20, the user inserts the mop board 20 from above the opening A on the side of the opening A away from the force-bearing part B. At this time, the mop board 20 is not restricted by the limiting part and can be inserted into the bottom of the inner cavity of the bucket 30, which triggers the switch part 105 to open the connecting pipe, so that the water in the water tank 1021 is sprayed onto the mop board 20 through the spray part 104, so that the mop board 20 is cleaned by the cleaning part 10312. When the user needs to squeeze the mop board 20 to dehydrate, the user pulls the mop board 20 out of the opening A and inserts it again from above the opening A on the side of the opening A near the force-bearing part B. At this time, the mop board 20 or the mop handle is restricted by the limiting part and cannot be inserted into the bottom of the inner cavity of the bucket 30, that is, the mop board 20 will not trigger the switch part 105, the connecting pipe is closed, and the user can then squeeze the mop board 20 to dehydrate through the dehydration chamber 101.

[0134] In some embodiments, another specific implementation of the first component 1031 is provided. Figure 9 This is the fourth structural schematic diagram of the first component in the extrusion module provided by this utility model, as shown below. Figures 1 to 9 As shown, the first component 1031 includes two mounting posts 10311. The first mounting post E, which is away from the force-bearing part B, is provided with an extension plate G extending towards the second mounting post F, which is close to the force-bearing part B, and a mounting plate H, which is fixed to the edge of the extension plate G and extends towards the opening A. The end of the mounting part 1011 of the dehydrating component 101 that is close to the force-bearing part B is rotatably connected to the second mounting post F, and the end that is away from the force-bearing part B is rotatably connected to the mounting plate H. A receiving space J is formed between the mounting plate H and the first mounting post E, so that when the mop plate 20 is inserted into the side of the opening A away from the force-bearing part B from above the opening A, the mop plate 20 squeezes the switch part 105 to move into the receiving space J, so that the switch part 105 is triggered.

[0135] Specifically, the first component 1031 includes two mounting posts 10311. The first mounting post E, which is away from the force-bearing part B, is provided with an extension plate G extending towards the second mounting post F, which is close to the force-bearing part B, and a mounting plate H, which is fixed to the edge of the extension plate G and extends towards the opening A. A receiving space J is formed between the mounting plate H, the first mounting post E, and the extension plate G to accommodate the movement of the switch part 105 within the receiving space J when driven, so that the switch part 105 can be triggered. In addition, the installation of the mounting part 1011 also needs to be adapted. Specifically, the end of the mounting part 1011 of the dehydrating component 101 that is close to the force-bearing part B is rotatably connected to the second mounting post F, and the end that is away from the force-bearing part B is rotatably connected to the mounting plate H. While forming the receiving space J to facilitate the triggering of the switch part 105, it does not affect the normal installation and use of the dehydrating component 101.

[0136] In some embodiments, a specific implementation of the second component 1032 is provided. Figure 10 This is a schematic diagram of the structure of the second component in the extrusion module provided by this utility model, as shown below. Figures 1 to 10 As shown, the second component 1032 includes a first abutting post K. The top end of the first abutting post K is detachably or fixedly connected to the top cover 102. The first abutting post K is disposed opposite to the switch part 105. When the mop plate 20 is inserted into the side of the opening A away from the force-bearing part B from above the opening A and the switch part 105 is triggered, the first abutting post K abuts against the side of the mop plate 20 away from the switch part 105.

[0137] Specifically, the second component 1032 includes a first abutment post K. The top of the first abutment post K is detachably or fixedly connected to the top cover 102. When the two are detachably connected, it is convenient for the user to remove the two components and clean them separately after using the squeezing module 10 for a period of time. In addition, the first abutment post K is arranged opposite to the switch part 105. When the mop plate 20 is inserted into the side of the opening A away from the force-bearing part B from above the opening A and the switch part 105 is triggered, the first abutment post K abuts against the side of the mop plate 20 away from the switch part 105. With the support of the first abutment post K, it is convenient for the mop plate 20 to abut against the switch part 105 stably, so as to continuously open the connecting pipe for water spraying and cleaning, thereby improving the stability of the operation of the triggering switch part 105.

[0138] In some embodiments, a specific implementation of the first abutment post K is provided. For example... Figures 1 to 10 As shown, a first abutting wheel M is provided at the position corresponding to the first abutting post K and the switch part 105. When the mop plate 20 is inserted into the side of the opening A away from the force-bearing part B from above the opening A and the switch part 105 is triggered, the first abutting wheel M abuts against the side of the mop plate 20 away from the switch part 105.

[0139] Specifically, a first abutting wheel M is provided at the position corresponding to the first abutting post K and the switch part 105. When the mop plate 20 is inserted into the side of the opening A away from the force-bearing part B from above the opening A and the switch part 105 is triggered, the first abutting wheel M abuts against the side of the mop plate 20 away from the switch part 105. The first abutting wheel M guides the movement of the mop plate 20 and also reduces the distance between the mop plate 20 and the switch part 105 to a certain extent, so that the switch part 105 can be effectively triggered by the mop plate 20 to continuously open the connecting pipe for water spraying and cleaning, thereby improving the stability of the operation of the triggering switch part 105.

[0140] In some embodiments, a specific implementation of the water purification tank setup is provided. For example... Figure 8 As shown, the water purification tank 1021 has an opening around it.

[0141] Specifically, the water tank 1021 can be arranged around the opening A, while retaining the opening A for inserting the mop board 20 for cleaning, making full use of the available space of the top cover 102 to store water, so that users can store enough cleaning water to effectively clean the mop board 20 without connecting to an external water source.

[0142] In some embodiments, another specific implementation of the second component 1032 is provided. For example... Figures 1 to 10As shown, the second component 1032 includes at least one second abutment post L. The top end of the second abutment post L is detachably or fixedly connected to the top cover 102 and extends along the direction in which the mop plate 20 is inserted into the opening A. Each second abutment post L is provided with a plurality of second abutment wheels N. When the mop plate 20 is inserted into the opening A and moves up and down, it drives the plurality of second abutment wheels N to rotate.

[0143] Specifically, the second component 1032 includes at least one second abutment post L. The top of the second abutment post L is detachably or fixedly connected to the top cover 102. When the two are detachably connected, it is convenient for the user to remove the two after using the squeezing module 19 for a period of time and clean them separately. In addition, the second abutment post L extends along the direction of the mop board 20 insertion opening A. Each second abutment post L is provided with multiple second abutment wheels N. When the mop board 20 is inserted into the opening A and moves up and down, it drives the multiple second abutment wheels N to rotate. The second abutment post L of this application can play a good supporting and guiding role for the up and down movement of the mop board 20. Moreover, the friction between the multiple second abutment wheels N on the second abutment post L and the mop board 20 is relatively small, making it more flexible and effortless for the user to move the mop board 20 up and down.

[0144] For example, Figure 11 This is a structural schematic diagram of the mop board provided by this utility model, as shown below. Figure 11 As shown, the bottom surface of the mop board 20 is provided with a first insert X and a second insert Y. The first insert X is a fixed insert, and the second insert Y is a rotatable insert. The first insert X and the second insert Y are arranged side by side on the mop board 20. The first insert X is suspended from the mop board 20 only on the side away from the second insert Y, and the other three sides are fixed to the bottom surface of the mop board 20. The second insert Y is fixed to the bottom surface of the mop board 20 only on the side close to the first insert X, and the other three sides are suspended from the mop board 20. A latch is provided between the second insert Y and the bottom surface of the mop board 20. When the latch is engaged, the second insert Y abuts against the bottom surface of the mop board 20. When the user opens the latch, the three suspended sides of the second insert Y can move away from the bottom surface of the mop board 20 and rotate toward the side of the first insert X.

[0145] The following describes the method of fixing the wiping material: When installing the wiping material on the mop board 20, first, put the pocket at one end of the wiping material into the suspended side of the first insert X, and open the buckle mentioned above. When the second insert Y is rotated close to the first insert X, put the pocket at the other end of the wiping material into the suspended side of the second insert Y. After putting it in, you can fasten the buckle so that the wiping material unfolds and abuts against the bottom surface of the mop board 20.

[0146] It should be noted that the mop board 20 can be inserted into the opening A of the extrusion module 10 either horizontally or vertically, and this application does not impose any restrictions.

[0147] In some embodiments, the mop plate 20 is inserted laterally into the opening A of the extrusion module 10. Then, a first insert X is provided on one long side of the bottom surface of the mop plate 20, and a rotatable buckle is provided on the other long side. The buckle is provided on the second insert Y and can be engaged with the top surface of the mop plate 20.

[0148] According to the extrusion module 10 provided by this utility model, the cleaning component 10312 is movably disposed in the extrusion module 10; when the dehydrating component 101 is driven to move away from the opening A to the first position, the cleaning component 10312 is driven to move towards the opening A to the third position protruding from the dehydrating component 101, the mop board 20 is inserted from the opening A and moves, and the cleaning component 10312 scrapes and / or squeezes the wiping material of the mop board 20 to facilitate cleaning the wiping material; when the dehydrating component 101 is driven to move towards the opening A to the second position, the cleaning component 10312 is driven to move away from the opening A to the fourth position protruding from the cleaning component 10312, the mop board 20 is inserted from the opening A and moves, and the dehydrating component 101 scrapes and / or squeezes the wiping material of the mop board 20 to facilitate dehydration of the wiping material.

[0149] For example, the cleaning component 10312 can be slidably disposed on the extrusion module 10, or the cleaning component 10312 can be rotatably disposed on the extrusion module 10, or the cleaning component 10312 can be oscillatingly disposed on the extrusion module 10.

[0150] For example, the cleaning component 10312 can be slidably disposed on the squeezing module 10, meaning that the cleaning component 10312 can be driven to slide relative to the squeezing module 10 and switch between a third position and a fourth position. Specifically, the squeezing module 10 is provided with a sliding groove, the cleaning component 10312 is slidably disposed in the sliding groove, and the cleaning component 10312 is provided with an operating part. When the user needs to clean the wiping material on the mop board 20, they can drive the dehydrating component 101 to move to the first position, and at the same time, hold the operating part to drive the cleaning component 10312 to slide along the sliding groove to the third position, at which time the cleaning component 10312 protrudes from the dehydrating component 101. After cleaning is completed, the user can drive the dehydrating component 101 to move to the second position, and at the same time, hold the operating part to drive the cleaning component 10312 to slide along the sliding groove to the fourth position, at which time the dehydrating component 101 protrudes from the cleaning component 10312, so that the dehydrating component 101 can dehydrate the wiping material on the mop board 20.

[0151] Optionally, the cleaning component 10312 can also be rotatably mounted on the extrusion module 10 via a rotating shaft. When the user needs to clean the wiping material on the mop board 20, the user can drive the dehydration component 101 to move to the first position, while the gripping operation unit drives the cleaning component 10312 to rotate to the third position. After cleaning is completed, the user can drive the dehydration component 101 to move to the second position, while the gripping operation unit drives the cleaning component 10312 to rotate to the fourth position.

[0152] Alternatively, the cleaning component 10312 can also be oscillatingly disposed on the extrusion module 10, switching between a third position and a fourth position by oscillating relative to the extrusion module 10.

[0153] In this embodiment, another specific installation method of the cleaning component 10312 is provided. That is, the cleaning component 10312 is movably disposed in the extrusion module 10. When the dehydration component 101 is driven to move away from the opening A to the first position, the cleaning component 10312 can be driven to move towards the opening A to the third position protruding from the dehydration component 101. At this time, the mop board 20 is inserted and moved from the opening A, and the cleaning component 10312 scrapes and / or squeezes the wiping material of the mop board 20 to facilitate cleaning the wiping material. When the dehydration component 101 is driven to move towards the opening A to the second position, the cleaning component 10312 is driven to move away from the opening A to the fourth position protruding from the cleaning component 10312. At this time, the mop board 20 is inserted and moved from the opening A, and the dehydration component 101 scrapes and / or squeezes the wiping material of the mop board 20 to facilitate dehydration of the wiping material. In other words, the dehydration component 101 can move simultaneously with the cleaning component 10312, allowing the mop bucket to switch between cleaning and dehydration functions, thus improving the efficiency of the mop bucket's function switching.

[0154] According to the extrusion module 10 provided by this utility model, the cleaning component 10312 and the dehydrating component 101 are linked together. The dehydrating component 101 is driven to move away from the opening A to the first position, which drives the cleaning component 10312 to move towards the opening A to the third position; the dehydrating component 101 is driven to move towards the opening A to the second position, which drives the cleaning component 10312 to move away from the opening A to the fourth position.

[0155] For example, the dehydrating component 101 and the cleaning component 10312 are respectively disposed at both ends of a seesaw. The center of the seesaw is disposed on the side A1 of the opening A on the extrusion module 10 via a rotating shaft. When the user needs to clean the items wiped by the mop board 20, he can press the end of the seesaw where the cleaning component 10312 is disposed, causing the cleaning component 10312 to swing towards the opening A, and the dehydrating component 101 to swing away from the opening A. This causes the dehydrating component 101 and the cleaning component 10312 to swing until the cleaning component 10312 protrudes from the dehydrating component 101 and locks the seesaw, so that the dehydrating component 101 and the cleaning component 10312 are maintained in this state. At this time, the user inserts the mop board 20 from the opening A and moves it up and down. The cleaning component 10312 can then clean the items wiped by the water contained in the inner cavity of the bucket 30 or the water sprayed by the spray unit 104. After cleaning, the user can press the end of the seesaw with the dehydration component 101, causing the dehydration component 101 to swing towards the opening A and the cleaning component 10312 to swing away from the opening A. This causes the dehydration component 101 and the cleaning component 10312 to swing until the dehydration component 101 protrudes from the cleaning component 10312 and locks the seesaw, keeping the dehydration component 101 and the cleaning component 10312 in this state. At this time, the user inserts the mop board 20 into the opening A and moves it up and down, and the dehydration component 101 can dehydrate the wiped item.

[0156] In this embodiment, another specific installation method for the dehydration component 101 and the cleaning component 10312 is provided, namely, the cleaning component 10312 is linked with the dehydration component 101. In this way, when the dehydration component 101 is driven to move away from the opening A to the first position, it can drive the cleaning component 10312 to move towards the opening A to the third position; when the dehydration component 101 is driven to move towards the opening A to the second position, it can drive the cleaning component 10312 to move away from the opening A to the fourth position, thereby enabling the mop bucket to switch between the cleaning function and the dehydration function, improving the function switching efficiency of the mop bucket.

[0157] According to another aspect, this utility model also provides a mop bucket. For example... Figures 1 to 10 As shown, it includes a bucket body 30 and a squeezing module 10 of any of the above embodiments; the opening A of the squeezing module 10 is connected to the inner cavity of the bucket body 30 so that the mop board 20 can be inserted into the inner cavity of the bucket body 30 from above the opening A and continue to move downwards; the dehydration component 101 and the cleaning component 10312 are disposed on the side of the squeezing module 10 near the bucket body 30.

[0158] Specifically, it includes a barrel 30 and the aforementioned squeezing module 10. The opening A of the squeezing module 10 is connected to the inner cavity of the barrel 30, so that when the mop board 20 is inserted into the opening A from above and continues to move downward, it extends into the inner cavity of the barrel 30. While supporting the squeezing module 10, the inner cavity of the barrel 30 can also hold cleaning water or squeezing wastewater. In addition, the dewatering component 101 is provided on the side of the squeezing module 10 near the barrel 30, so that the squeezed wastewater will not be carried out from the squeezing module 10 after the mop board 20 is squeezed and scraped.

[0159] In some embodiments, another specific implementation of the mop bucket is provided. For example... Figures 1 to 10 As shown, the extrusion module 10 includes a top cover 102 with an opening A and an assembly part 103 located below the top cover 102. The top cover 102 is located at the opening A of the barrel 30, and the assembly part 102 is located in the inner cavity of the barrel 30.

[0160] Specifically, the extrusion module 10 includes a top cover 102 with an opening A and an assembly part 103 located below the top cover 102. The top cover 102 is located at the opening A of the bucket 30, and the assembly part 103 is located in the inner cavity of the bucket 30. After the user inserts the mop board 20 through the opening A, the mop board 20 can effectively clean a large area of ​​the inner cavity of the bucket 30.

[0161] For example, such as Figures 1 to 10 As shown, a support platform P can also be provided below the assembly part 103 to support the entire assembly part 103. Specifically, the support platform P can be detachably connected to the second component 1032 or integrally formed, and the bottom surface of the support platform P can also be detachably connected to the bottom surface of the mop bucket body 30 (e.g., snap-fit ​​connection) to fix the assembly part 103 in the inner cavity of the mop bucket body 30. This prevents the assembly part 103 from moving in the inner cavity of the bucket body 30 during the user's cleaning of the mop board 20, thus affecting the cleaning efficiency and improving the user experience.

[0162] Finally, it should be noted that the above embodiments are only used to illustrate the technical solutions of this utility model, and not to limit it. Although this utility model has been described in detail with reference to the foregoing embodiments, those skilled in the art should understand that modifications can still be made to the technical solutions described in the foregoing embodiments, or equivalent substitutions can be made to some of the technical features. Such modifications or substitutions do not cause the essence of the corresponding technical solutions to deviate from the spirit and scope of the technical solutions of the embodiments of this utility model.

Claims

1. An extrusion module, characterized in that, The extrusion module is provided with an opening for inserting a mop board to clean and dehydrate the mop board. A cleaning component and a dehydrating component are arranged sequentially along the insertion direction of the mop board on the side of the opening. The dehydrating component is movably connected to the extrusion module, and the cleaning component is movably or fixedly connected to the extrusion module. The dehydrating component is driven to move away from the opening until the cleaning component protrudes from the dehydrating component at a first position. The mop board is inserted into and moves from the opening. The cleaning component scrapes and / or squeezes the wiping material on the mop board to facilitate cleaning the wiping material. The dehydrating component is driven to move towards the opening until it protrudes from the second position of the cleaning component. The mop board is inserted into and moved from the opening. The dehydrating component scrapes and / or squeezes the mop board to dehydrate the mop material.

2. The extrusion module according to claim 1, characterized in that, The dehydrating component is rotatably mounted on the extrusion module; the dehydrating component is driven to rotate and switch between the first position and the second position.

3. The extrusion module according to claim 2, characterized in that, The opening has a reference side opposite to the setting side, and the dehydration component includes a mounting part and a scraping part, wherein the mounting part is rotatably connected to the extrusion module; The first end of the scraping part is provided with a force-receiving part. When the mop board is inserted into the opening from above and near the force-receiving part and moves upward in the opening, the force-receiving part is driven to rotate the dehydrating component upward to the first position. The dehydrating component is held in the first position so that the cleaning component can scrape and / or squeeze the wiping material on the mop board when the mop board moves up and down. When the mop board is inserted into the opening from above and near the force-receiving part and moves downward in the opening, the force-receiving part is driven to rotate the dehydrating component downward and limit it to the second position so that the dehydrating component can dehydrate the wiping material when the mop board continues to move downward.

4. The extrusion module according to claim 3, characterized in that, When the mop blade is inserted into the opening from above and moves upward within the opening, it contacts the force-receiving part and applies force to the force-receiving part to drive the dehydrating component to rotate upward to the first position; when the mop blade is inserted into the opening from above and moves downward within the opening, it contacts the force-receiving part and applies force to the force-receiving part to drive the dehydrating component to rotate downward, so that the dehydrating component is limited to the second position.

5. The extrusion module according to claim 4, characterized in that, When the force-receiving part protrudes from the scraping part and the dehydrating component is in the first position, the force-receiving part protrudes from the setting side, so that when the mop board is inserted into the side of the opening near the force-receiving part from above and moves downward in the opening, the mop board contacts the force-receiving part and drives the dehydrating component to rotate downward through the force-receiving part.

6. The extrusion module according to claim 5, characterized in that, The force-bearing part includes a plurality of protrusions disposed at the first end of the scraping part; And / or, the force-receiving part includes a plurality of comb teeth disposed at the first end of the scraping part.

7. The extrusion module according to any one of claims 3 to 6, characterized in that, The extrusion module includes a top cover with the opening and an assembly part located below the top cover. The mounting part of the dewatering component is rotatably connected to the assembly part.

8. The extrusion module according to claim 7, characterized in that, The assembly part includes two mounting posts extending along the insertion direction of the mop board. The top ends of the two mounting posts are detachably or fixedly connected to the top cover. A plurality of cleaning components are arranged between the two mounting posts, and the two ends of each cleaning component are respectively fixed to the two mounting posts.

9. The extrusion module according to claim 8, characterized in that, Both ends of the mounting portion of the dehydrating component are rotatably connected to the two mounting columns respectively; at least one of the mounting columns is provided with a limiting member, which is used to limit the dehydrating component when it rotates downward, so that the dehydrating component is limited to the second position.

10. The extrusion module according to any one of claims 1 to 6, 8, and 9, characterized in that, The extrusion module also includes a clean water tank, a water spray section, and a switch section; the water spray section is correspondingly arranged with the cleaning component and is connected to the clean water tank through a connecting pipe; the switch section is configured to cooperate with the connecting pipe and is used to open or close the connecting pipe. The dehydration component is driven to move to the first position. When the mop board is inserted into the opening and moves, the switch is triggered. The switch opens the connecting pipe, so that the water in the clean water tank is sprayed onto the mop board through the spray unit, so that the cleaning component can clean the mop board. The dehydrating component is driven to move to the second position, the mop plate is inserted into and moved from the opening, and the mop plate does not trigger the switch, so that the dehydrating component can dehydrate the wiping material.

11. The extrusion module according to claim 10, characterized in that, The switch part is configured to cooperate with the cleaning component, and the extrusion module is also provided with a limiting part, which is disposed between the dehydration component and the switch part; When the dehydrating component is driven to move to the second position, and the mop plate is inserted and moved from the opening, the limiting part is used to restrict the mop plate from contacting the switch part.

12. The extrusion module according to any one of claims 1 to 6, 8, 9, and 11, characterized in that, The cleaning component is movably mounted on the extrusion module; When the dehydrating component is driven to move away from the opening to the first position, the cleaning component is driven to move towards the opening to the third position protruding from the dehydrating component. The mop board is inserted into and moves from the opening, and the cleaning component scrapes and / or squeezes the wiping material on the mop board to facilitate cleaning the wiping material. When the dehydrating component is driven to move towards the opening to the second position, the washing component is driven to move away from the opening to the fourth position where the dehydrating component protrudes from the washing component. The mop board is inserted into and moves from the opening, and the dehydrating component scrapes and / or squeezes the wiping material on the mop board to dehydrate the wiping material.

13. The extrusion module according to claim 12, characterized in that, The cleaning component is slidably disposed on the extrusion module, or the cleaning component is rotatably disposed on the extrusion module, or the cleaning component is oscillatingly disposed on the extrusion module.

14. The extrusion module according to claim 13, characterized in that, The cleaning component and the dehydrating component are linked together. The dehydrating component is driven to move away from the opening to the first position, which in turn drives the cleaning component to move closer to the opening to the third position. The dehydrating component is driven to move closer to the opening to the second position, which in turn drives the cleaning component to move away from the opening to the fourth position.

15. A mop bucket, characterized in that, The device includes a bucket body and a squeezing module as described in any one of claims 1 to 14; the opening of the squeezing module communicates with the inner cavity of the bucket body so that the mop blade can be inserted into the opening from above and continue to move downward into the inner cavity of the bucket body, and the dehydration component and the cleaning component are disposed on the side of the squeezing module near the bucket body.

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