Extrusion module, mop bucket and mop

Abstract

This utility model provides a squeezing module, a mop bucket, and a mop, relating to the field of cleaning equipment technology. The squeezing module has an opening with a side wall and two mounting side walls adjacent to the side wall. The two mounting side walls extend away from the side wall and approach each other until they intersect in this direction. A scraping component is provided on the side of the opening closest to the side wall, used to scrape and / or squeeze the wiping material on the mop blade inserted into the opening. Compared to the rectangular and U-shaped squeezing openings commonly used in related technologies, the three-sided closed opening provided in this application has a simple structure, is easy to manufacture, has a lower cost, and a smaller overall opening size, making it less likely for wastewater to splash out, thus improving the user experience.

Description

Technical Field

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

[0002] For mop buckets, the squeezing nozzle is a core functional component for cleaning and wringing out the mop, and its performance directly affects the user experience and cleaning efficiency.

[0003] Currently, mop buckets typically have two types of squeezing nozzles: a rectangular nozzle and a U-shaped nozzle. Both types of nozzles are either structurally complex and costly, or have a large overall opening that easily leads to wastewater splashing out, resulting in poor user experience. Utility Model Content

[0004] This utility model provides a squeezing module, a mop bucket, and a mop to solve the problems in related technologies where the squeezing port is either complex in structure and costly, or has a large overall opening that easily leads to sewage splashing and poor user experience.

[0005] This utility model provides an extrusion module, which has an opening. The opening has a setting sidewall and two mounting sidewalls respectively adjacent to the setting sidewall. The two mounting sidewalls extend away from the setting sidewall and move closer to each other until they intersect in the direction away from the setting sidewall. A scraping member is provided on the side of the opening near the side wall of the device. The scraping member is used to scrape and / or squeeze the wiping material of the mop board inserted into the opening.

[0006] The extrusion module provided by this utility model has an opening for inserting a mop board. The opening has a set side wall and two mounting side walls respectively arranged adjacent to the set side wall. The two mounting side walls extend away from the set side wall and move closer to each other along the direction away from the set side wall until they intersect to form a three-sided closed opening. Specifically, a scraping component can be provided on the set side wall to scrape and / or squeeze the mop board inserted into the opening. Compared with the rectangular extrusion opening and the convex extrusion opening commonly used in related technologies, the three-sided closed opening provided by this application has a simple structure, is easy to manufacture, has a lower cost, and has a smaller overall opening size, making it less likely for sewage to splash out, thus improving the user experience.

[0007] According to the extrusion module provided by this utility model, both the mounting sidewall and the setting sidewall are planar, and the setting sidewall and the two mounting sidewalls form a triangular opening.

[0008] This embodiment provides a specific implementation of setting an opening on the extrusion module. Both the mounting sidewall and the setting sidewall are set as planes, thus forming a triangular opening between the setting sidewall and the two mounting sidewalls, allowing the mop blade to be inserted and extruded. The triangular opening provided in this application has a simple structure, is easy to manufacture, has low cost, and further reduces the overall opening size, making it less likely for wastewater to splash out, thus improving the user experience.

[0009] According to the present invention, an extrusion module is provided, wherein the setting sidewall is a plane and the mounting sidewall is an arc-shaped surface that bends away from or towards the setting sidewall.

[0010] In this embodiment, another specific implementation of setting an opening on the extrusion module is provided. Specifically, the sidewall is set to be flat, which facilitates the installation of a scraping component on it to clean the mop board. However, the mounting sidewall is set as an arc-shaped surface that curves away from or towards the sidewall. While reducing the overall opening size, the arc-shaped surface design here can accommodate thicker mop boards inserted into the opening for cleaning.

[0011] According to the present invention, the setting sidewall is an arc-shaped surface that bends away from the mounting sidewall, the mounting sidewall is a plane, and the setting sidewall and the two mounting sidewalls form a fan-shaped opening.

[0012] This embodiment provides another specific implementation of setting an opening on the extrusion module. Specifically, the sidewall is set as an arc-shaped surface that curves away from the mounting sidewall, and the mounting sidewall is set as a plane. The aforementioned set sidewall and the two mounting sidewalls form a fan-shaped opening, which facilitates the insertion and cleaning of a mop board with a thicker wiping material.

[0013] According to the present invention, an extrusion module is provided with at least two openings, and the mounting sidewalls of two adjacent openings are arranged adjacent to each other.

[0014] This embodiment provides a specific implementation of the extrusion module. The extrusion module has at least two openings, allowing the same mop board to clean in different openings, or allowing multiple mop boards to clean simultaneously in the openings. Furthermore, the mounting sidewalls of the two adjacent openings are arranged adjacent to each other to save as much space as possible required for the openings.

[0015] According to the present invention, an extrusion module is provided with four openings, each of which is triangular, and the four openings enclose a rectangular opening area.

[0016] This embodiment provides another specific implementation of the extrusion module. The extrusion module has four openings, each triangular, forming a rectangular opening area. By rationally designing the opening shapes and allocating their positions on a conventional rectangular extrusion module, the space required for setting the openings can be effectively saved.

[0017] According to the extrusion module provided by this utility model, the four sides of the rectangular opening area correspond to the sidewalls of each opening.

[0018] This embodiment provides a specific implementation of setting the mounting sidewalls and the sidewalls themselves. Specifically, the four opening sidewalls serve as the four sides of a rectangle, enclosing a rectangular opening area. The four sides of the opening area are generally not easily deformed. By placing the sidewalls that need to scrape and squeeze with the mop board on the four sides of the opening area, the reliability of the extrusion module can be improved as much as possible, and the service life of the extrusion module can be extended to a certain extent.

[0019] According to the present invention, an extrusion module is provided with two openings, each of which is triangular, and the two openings enclose a triangular opening area.

[0020] This embodiment provides another specific implementation of the extrusion module. The extrusion module has two openings, each triangular in shape, which together form a triangular opening area. By rationally designing the opening shape and allocating the opening positions on a conventional triangular extrusion module, the space required for setting the openings can be effectively saved.

[0021] According to the extrusion module provided by this utility model, the bottom edge of the triangular opening setting area corresponds to the mounting sidewall of the two openings, and the two waists respectively correspond to the setting sidewall of the two openings.

[0022] This embodiment provides another specific implementation of setting the mounting sidewalls. Specifically, the two mounting sidewalls are respectively set on the two waists of the triangular opening area. If the squeezing module is installed at the opening of the mop bucket, the installation positions of the two waists will be close to the edge of the opening. The edge can effectively support the two mounting sidewalls, thereby effectively supporting the scraping component to prevent it from moving when the mop board moves up and down in the opening, which helps to improve the cleaning effect.

[0023] According to the present invention, in an extrusion module, the shapes of the at least two openings are either exactly the same or not exactly the same.

[0024] This embodiment provides a specific implementation method for setting the shape of the openings. Specifically, the shapes of the multiple openings can be identical, for example, all set as triangular openings, facilitating the use of multiple replaceable squeezing ports for the same type of mop; the shapes of the multiple openings can also be different, for example, some openings can be set as triangular openings, suitable for cleaning mop boards with thinner wiping materials, while some openings can be set as the aforementioned fan-shaped openings, which is beneficial for inserting and cleaning mop boards with thicker wiping materials. The opening shape of the squeezing module can be flexibly set to suit cleaning different mop boards.

[0025] According to the extrusion module provided by this utility model, the bottom surface of the mop board is provided with the wiping material; The mounting sidewall is provided with abutment, and a squeezing opening is formed between the abutment and the scraping component. When the mop board is inserted into the squeezing opening, the abutment abuts against the top surface of the mop board.

[0026] This embodiment provides another specific implementation of the extrusion module. Specifically, the extrusion module has a stop portion on its mounting sidewall, forming an extrusion opening between the stop portion and the scraping component on the sidewall. When the mop board is inserted into the extrusion opening, the wiping material on the bottom surface of the mop board contacts the scraping component, and the top surface of the mop board abuts against the stop portion. The stop portion helps to provide support for the mop board inserted into the extrusion opening, allowing the wiping material on the bottom surface of the mop board to fully contact the scraping component and perform cleaning, thereby further improving the cleaning effect of the mop board.

[0027] According to the present invention, an extrusion module is provided, wherein the abutment part includes a guide wheel, the guide wheel is rotatably disposed on the mounting side wall, when the mop plate is inserted into the extrusion port, the guide wheel abuts against the top surface of the mop plate, and when the mop plate moves in the extrusion port, the guide wheel rotates under the drive of the mop plate.

[0028] This embodiment provides a specific implementation of the abutment part. The abutment part includes a guide wheel, which is rotatably mounted on the mounting side wall. When the mop board is inserted into the extrusion port and moves up and down, the guide wheel abuts against the top surface of the mop board, and rotates under the influence of the mop board to guide and support the mop board's movement and cleaning within the extrusion port. This application uses a guide wheel to guide the mop board's movement, effectively reducing friction between the top surface of the mop board and the abutment part, facilitating smoother movement of the mop board. Furthermore, the guide wheel is less prone to wear during the guiding process, improving the overall reliability of the extrusion module.

[0029] According to the present invention, an extrusion module is provided with an installation part on the mounting side wall, and the guide wheel is rotatably mounted on the installation part.

[0030] This embodiment provides a specific implementation method for setting the guide wheel. Specifically, a mounting part is provided on the aforementioned mounting sidewall, which can serve as a carrier for the guide wheel, realizing a rotational connection between the guide wheel and the mounting sidewall of the extrusion module.

[0031] According to the present invention, an extrusion module is provided in which the mounting part is detachably connected to the mounting sidewall.

[0032] This embodiment provides a specific implementation of the mounting part. The mounting part can be detachably connected to the mounting sidewall. When it is necessary to install or replace the guide wheel, the mounting part can be removed to facilitate user installation or replacement. After placing the appropriate guide wheel on the mounting part, the mounting part is then placed on the mounting sidewall to position the guide wheel at the appropriate location on the extrusion port, thereby effectively guiding and supporting the mop board.

[0033] According to the present invention, an extrusion module is provided on the mounting sidewall, and at least a portion of the mounting part is accommodated in the mounting groove.

[0034] This embodiment provides another specific implementation of the mounting portion. Compared to the possibility that additional mounting portions on a smooth mounting sidewall may reduce the effective squeezing size of the squeezing nozzle and hinder the smooth movement of the mop blade within the squeezing nozzle, this application provides a mounting groove on the mounting sidewall. At least a portion of the aforementioned mounting portion can be accommodated in the mounting groove. With the addition of guide wheels that provide guidance and support, a larger space can be provided for the squeezing nozzle, facilitating the mop blade to extend into the squeezing nozzle for cleaning.

[0035] According to the extrusion module provided by this utility model, the bottom of the mounting sidewall is recessed to form the mounting groove, and the area of ​​the mounting sidewall near the bottom of the mounting groove is provided with a snap-fit ​​groove or snap-fit ​​hole; The end of the mounting part is provided with a snap-fit ​​block, and the mounting part is inserted into the mounting groove from the bottom of the mounting side wall until the snap-fit ​​block engages with the snap-fit ​​groove or snap-fit ​​hole.

[0036] This embodiment provides a specific implementation of the connection structure between the mounting groove and the mounting part. Specifically, the bottom of the mounting sidewall is recessed to form a mounting groove, and a snap-fit ​​groove or snap-fit ​​hole is provided in the area of ​​the mounting sidewall near the bottom of the mounting groove. Correspondingly, a snap-fit ​​block is provided at the end of the mounting part. During installation, the mounting part is inserted into the mounting groove from the bottom of the mounting sidewall until the snap-fit ​​block on the mounting part engages with the snap-fit ​​groove or snap-fit ​​hole. The installation method is simple and easy to operate, the connection structure is simple and firm, and the mounting part and guide wheel are not easy to fall off when the mop board moves up and down, which improves the reliability of the extrusion module.

[0037] According to the extrusion module provided by this utility model, the mounting part is provided with a mounting sub-frame on the side near the mounting sidewall, and the guide wheel is detachably mounted on the mounting sub-frame.

[0038] This embodiment provides a specific implementation of the mounting section. A mounting sub-frame is provided on the side of the mounting section near the sidewall. Guide wheels are detachably mounted on the mounting sub-frame. The positioning of the mounting sub-frame helps to position the guide wheels on the side facing the squeezing port, thereby effectively guiding and supporting the top surface of the mop board, which helps to improve the cleaning effect of the mop board.

[0039] According to the present invention, an extrusion module is provided with two openings, the mounting sidewalls of the two openings are arranged adjacent to each other, the mounting part is detachably connected to the mounting sidewalls of the two openings respectively, and has two mounting sub-frames, the two mounting sub-frames respectively corresponding to the mounting sidewalls of the two openings, and the guide wheels provided on the two mounting sub-frames respectively form extrusion ports between the scraping parts provided on the two openings.

[0040] This embodiment provides a specific implementation of a mounting part when the extrusion module has two openings. Specifically, when the extrusion module has two openings, the mounting sidewalls of the two openings can be adjacent. In this case, the mounting part can be detachably connected to the mounting sidewalls of the two openings, facilitating the user's installation or replacement of the guide wheels. The mounting part has two mounting sub-frames, each corresponding to one of the sidewalls of the two openings. The guide wheels on the two mounting sub-frames form extrusion openings between themselves and the scraping components of the two openings, guiding and supporting the mop board's movement within these openings. By providing a mounting part on the adjacent mounting sidewalls of the two openings, this application allows the guide wheels on the two mounting sub-frames of the mounting part to form two extrusion openings between themselves and the scraping components of the two openings. Furthermore, the user can adjust the guide wheels corresponding to the two extrusion openings simply by disassembling one mounting part, simplifying the operation and eliminating the need for excessive assembly, thus effectively improving the user experience.

[0041] According to the extrusion module provided by this utility model, the mounting sub-frame is provided with a groove, and shaft holes are provided on opposite sides of the groove. Rotating shafts are provided at both ends of the guide wheel, and the rotating shafts are inserted into the shaft holes so that the guide wheel is rotatably connected to the mounting part.

[0042] This embodiment provides a specific implementation method for installing the guide wheel. The mounting sub-frame has grooves to accommodate the guide wheel, and shaft holes are provided on opposite sides of the grooves. Rotating shafts at both ends of the guide wheel can be inserted into these shaft holes, allowing the guide wheel to be rotatably connected to the mounting part. By providing the connection method of the shaft holes and rotating shafts, it is convenient for users to install the guide wheel onto the mounting sub-frame, and the installation is secure and not easily detached.

[0043] According to the present invention, an extrusion module is provided, wherein the mounting part is a mounting block protruding from the mounting sidewall, the mounting block has a guide sidewall opposite to the mounting sidewall, and the guide wheel is rotatably mounted on the guide sidewall.

[0044] This embodiment provides a specific implementation of the mounting part. The mounting part can be a mounting block fixedly mounted on the mounting sidewall. This mounting block protrudes from the mounting sidewall and has a guide sidewall opposite to the mounting sidewall. A guide wheel is rotatably mounted on this guide sidewall. The structure is simple and easy to manufacture.

[0045] According to the present invention, the extrusion module further includes a constraint sidewall extending away from the mounting sidewall, the constraint sidewall having an angle with the guide sidewall and intersecting at one end away from the mounting sidewall.

[0046] In this embodiment, a specific structure for setting the mounting part is provided. The mounting part can be a mounting block with an approximately triangular cross-section that protrudes from the mounting sidewall. The guide wheel is mounted on the guide sidewall, and the constraint sidewall that intersects with the guide sidewall provides support to the guide sidewall, preventing the mounting block from deforming when the mop board applies a large force to the guide wheel.

[0047] According to the present invention, an extrusion module is provided in which the constraint sidewall and the guide sidewall intersect through a circular arc surface transition; and / or, the extrusion module has two adjacent openings, the two openings share a mounting sidewall, and the mounting blocks are symmetrically arranged at the same position on both sides of the mounting sidewall.

[0048] This embodiment provides a specific structure for setting up the mounting part. The guide sidewall and the constraint sidewall of the mounting part intersect through a rounded surface transition, making it easy to demold the mounting block during manufacturing and reducing the defect rate during production; moreover, when two openings share a mounting sidewall, mounting blocks are symmetrically arranged at the same position on both sides of the mounting sidewall, so that the mounting blocks in the two openings can be integrally formed, simplifying the mold structure.

[0049] According to the extrusion module provided by this utility model, the guide wheel is conical. When the mop plate is inserted into the extrusion port, the side of the conical guide wheel, at least the area near the bottom, abuts against the top surface of the mop plate. When the mop plate moves in the extrusion port, the side of the conical guide wheel, at least the area near the bottom, rolls along the top surface of the mop plate.

[0050] This embodiment provides a specific implementation of the guide wheel. Specifically, the guide wheel is tapered. When the mop plate is inserted into the extrusion port and moves up and down, the side of the tapered guide wheel, at least the area near the bottom of the guide wheel, abuts against the top surface of the mop plate. This area rolls along the top surface of the mop plate to guide and support the mop plate's movement within the extrusion port. Compared to conventionally designed tire-shaped guide wheels, the tapered guide wheel in this application effectively reduces the material used for the guide wheel while forming a wider support surface, thereby effectively reducing manufacturing costs.

[0051] According to the extrusion module provided by this utility model, the conical guide wheel is provided with a rotating shaft along the axial direction of the cone, and the guide wheel is rotatably mounted on the mounting side wall through the rotating shaft.

[0052] This embodiment provides a specific implementation method for installing a conical guide wheel. Specifically, the conical guide wheel is provided with a rotating shaft along the axial direction of the cone. The guide wheel can be rotatably mounted on the mounting side wall through the rotating shaft. The installation method is simple, and the guide wheel is not easy to fall off, which can stably guide and support the mop board.

[0053] According to the extrusion module provided by this utility model, the conical guide wheel has a hollow area, the rotating shaft passes through the hollow area, and a plurality of support walls are arranged in a ring between the inner wall of the hollow area and the rotating shaft.

[0054] This embodiment provides a specific implementation of a conical guide wheel. Specifically, the conical guide wheel has a hollow region through which the aforementioned rotating shaft passes. Multiple support walls are arranged around the inner wall of the hollow region and the rotating shaft to support the side of the guide wheel that abuts against the mop board. This further reduces the material used in the guide wheel while ensuring sufficient support. Furthermore, the multiple support walls prevent damage to the guide wheel during support, improving the overall reliability of the guide wheel.

[0055] According to the extrusion module provided by this utility model, the bottom surface of the conical guide wheel is circular, and the bottom surface and the side surface form a closed structure.

[0056] This embodiment provides another specific implementation of the conical guide wheel. Specifically, the bottom surface of the conical guide wheel is circular, and a closed structure is formed between the bottom surface and the side surface. When the side surface of the conical guide wheel, at least the area near the bottom of the guide wheel, abuts against the top surface of the mop board, the bottom surface of the guide wheel can also act as a support plate to provide a certain amount of support force. It can also support and protect the side surface of the guide wheel from deformation due to force, thereby improving the overall reliability of the guide wheel.

[0057] According to the present invention, in an extrusion module, the rotating shaft is located at the center of the circular bottom surface and protrudes from the bottom surface.

[0058] In this embodiment, another specific implementation of the conical guide wheel is provided. Specifically, the rotation axis of the conical guide wheel can be located at the center of the circular bottom surface, so that the guide wheel can provide a stable guiding force to the top surface of the mop board when rotating, making it easier for the mop board to move up and down more smoothly in the squeezing port; and in this application, the rotation axis of the guide wheel is set to protrude from the bottom surface, so that it can be installed in the shaft hole on the mounting side wall for rotatable connection with the mounting side wall.

[0059] According to the extrusion module provided by this utility model, any point on the generatrix with the smallest distance between the side of the conical guide wheel and the opening is equidistant from the scraping member. This ensures that when the mop plate is inserted into the extrusion port, the side of the conical guide wheel abuts against the top surface of the mop plate, and when the mop plate moves in the extrusion port, the entire side of the guide wheel rolls along the top surface of the mop plate.

[0060] This embodiment provides another specific implementation of the conical guide wheel. Specifically, any point on the generatrix where the side of the conical guide wheel is closest to the sidewall is equidistant from the scraping component at the opening. This ensures that when the mop board is inserted into the squeezing port, the side of the conical guide wheel can always effectively abut against the top surface of the mop board. Furthermore, as the mop board moves within the squeezing port, the entire side of the guide wheel rolls along the top surface of the mop board, providing better guidance and support, and effectively improving the cleaning efficiency and effect of the mop board.

[0061] This utility model provides a mop bucket, including a bucket body for containing cleaning water and a squeezing module as described in any of the above embodiments, wherein the squeezing module is disposed at the opening of the bucket body.

[0062] This embodiment provides a specific implementation of a mop bucket. The mop bucket includes a bucket body and a squeezing module. The bucket body holds cleaning water, and the squeezing module is located at the opening of the bucket body. The user can hold the mop and insert the mop blade into the opening of the squeezing module until it is submerged in the cleaning water within the bucket, then use the squeezing module to effectively clean the mop blade. By assembling the squeezing module with the bucket body, this application allows the user to wet the mop blade using the cleaning water inside the bucket, then directly use the squeezing module to clean and squeeze out the water. This keeps the wastewater inside the bucket, allowing the cleaned mop blade to be removed directly from the bucket, effectively preventing wastewater leakage outside the bucket while cleaning the mop blade.

[0063] According to the present invention, a mop bucket is provided with a plurality of openings on the extrusion module, and the mounting sidewalls of two adjacent openings are arranged adjacent to each other. The barrel is provided with multiple partitions, which divide the barrel into multiple chambers. The end of any partition is located between adjacent mounting sidewalls of two adjacent openings.

[0064] This embodiment provides a specific implementation of the mop bucket. Specifically, since the squeezing module has multiple openings for cleaning the mop board, and the mounting sidewalls of two adjacent openings are adjacent, this application provides multiple partitions inside the bucket. These partitions divide the bucket into multiple chambers, with the end of any partition located between the adjacent mounting sidewalls of two adjacent openings. This allows the multiple chambers to correspond to the multiple openings on the squeezing module, resulting in a mop bucket having multiple independent chambers for cleaning. This makes it convenient for users to use some chambers to clean the mop board and others to squeeze and dehydrate it, making it more flexible to use.

[0065] According to the present invention, a mop bucket is provided with two openings on the squeezing module, and the mounting sidewalls of the two openings are arranged adjacent to each other. The barrel is a triangular prism, and a partition is provided inside the triangular prism barrel along one of its edges to the side wall corresponding to the edge. The end of the partition is located between the adjacent mounting side walls of the two openings.

[0066] This embodiment provides another specific implementation of the mop bucket. Specifically, the squeezing module has two openings, with the mounting sidewalls of the two openings adjacent to each other. Correspondingly, the bucket body is a triangular prism shape. Inside the triangular prism bucket, a partition is provided along one of its edges to the sidewall corresponding to that edge. The end of the partition is located between the adjacent mounting sidewalls of the two openings, dividing the area inside the bucket into two smaller triangular prisms. These two smaller triangular prisms correspond to the two openings on the squeezing module, forming two independent chambers for cleaning. This allows the user to flexibly allocate these two independent chambers to perform the same or different cleaning tasks.

[0067] According to the present invention, a mop bucket is provided with four openings on the extrusion module, and the mounting sidewalls of the four openings are arranged adjacent to each other in sequence. The barrel is a quadrangular prism, and four partitions are provided along the inner edge of the quadrangular prism barrel to the center of the barrel. The four partitions intersect at the center of the barrel, and the end of each partition is located between adjacent mounting sidewalls of two adjacent openings.

[0068] This embodiment provides another specific implementation of the mop bucket. The squeezing module has four openings, with the mounting sidewalls of the four openings arranged sequentially adjacent to each other. Correspondingly, the bucket body is a quadrangular prism shape. Inside the quadrangular prism bucket, along its edges to the center, four partitions are arranged. These four partitions intersect at the center of the bucket, with the end of each partition located between adjacent mounting sidewalls of two adjacent openings. This divides the area inside the bucket into four small triangular prisms. These four small triangular prisms correspond to the four openings on the squeezing module, forming four independent chambers for cleaning. This allows users to flexibly allocate these four independent chambers to perform the same or different cleaning tasks. The above-mentioned partitioning method is simple and easy to implement, and the size of the partitioned chambers is moderate, facilitating mop cleaning.

[0069] According to the present invention, a mop bucket is provided with integrally formed raised blocks on both sides of the partition, which are located in two adjacent chambers respectively.

[0070] This embodiment provides another specific implementation of the mop bucket. Specifically, two integrally formed raising blocks are provided on both sides of the partition, located in two adjacent chambers. These raising blocks elevate the mop board when it is inserted into the bucket near the bottom, preventing wastewater from the bottom of the bucket from re-contaminating the wiping material. Simultaneously, they ensure that the end of the mop board remains in the squeezing opening, preventing the mop board from being fully inserted into the bucket and making it difficult to align with the squeezing opening for easy removal. By providing raising blocks, this application retains at least a portion of the mop board in the squeezing opening of the squeezing module, facilitating easy removal of the mop board from the bucket and improving the user experience.

[0071] According to the present invention, a mop bucket has an insertion groove formed between adjacent mounting sidewalls of two adjacent openings, and the end of the partition extends into the insertion groove.

[0072] This embodiment provides a specific implementation of mop bucket assembly. An insertion groove is formed between adjacent mounting sidewalls of two adjacent openings on the specific extrusion module. The end of the aforementioned partition can extend into the insertion groove, making the assembly between the extrusion module and the bucket body more seamless. This further makes the chambers corresponding to different openings more independent, reducing the mutual influence between different chambers.

[0073] According to the present invention, a mop bucket is provided at the bottom of the bucket body, a drain outlet is provided in the drain outlet, and an operating part and a transmission assembly are movably provided in the mop bucket. The operating part is connected to the transmission assembly, and the transmission assembly is connected to the drain outlet. The operating part is driven to move, which in turn drives the transmission assembly to move. The movement of the transmission assembly drives the drain plug to move relative to the drain outlet, thereby opening or closing the drain outlet.

[0074] This embodiment provides a specific implementation of the drainage mechanism in a mop bucket. Specifically, a drain outlet is provided at the bottom of the bucket, and a drain plug is installed in the drain outlet. When the drain plug is in the drain outlet, the bucket can hold cleaning water, wastewater, etc. When the drain plug is removed from the drain outlet, the cleaning water, wastewater, etc., contained in the bucket will be discharged through the drain outlet. The mop bucket of this application is movably equipped with an operating part and a transmission component, which are connected by a transmission mechanism, and the transmission component is connected to the drain plug. In actual use, the operating part is driven to move, which in turn drives the transmission component to move relative to the drain outlet, thereby opening or closing the drain outlet. The user can indirectly open or close the drain outlet through the operating part, without having to manually open or close the drain outlet directly, thus avoiding contact with liquids or wastewater inside the bucket, improving the user experience.

[0075] According to the present invention, a mop bucket is provided, wherein the operating part is movably disposed on the squeezing module, the transmission component passes through the bucket body, and one end is connected to the operating part for transmission, and the other end is connected to the drain plug.

[0076] This embodiment provides a specific implementation of the drainage mechanism. The operating part is movably mounted on the extrusion module for easy user operation. The transmission component passes through the barrel body, with one end connected to the operating part and the other end connected to the drain plug. Therefore, the user can indirectly open or close the drain outlet inside the barrel by driving the operating part on the extrusion module and using the transmission component, making it convenient to use.

[0077] According to the present invention, a mop bucket is provided, wherein the operating part is rotatably disposed on the squeezing module, the operating part is driven to rotate, thereby driving the transmission component to move, and the movement of the transmission component drives the drain plug to move relative to the drain outlet, so as to open or close the drain outlet.

[0078] This embodiment provides another specific implementation of the drainage mechanism. A user can rotate the operating part on the extrusion module to move the transmission component, which in turn moves the drain plug relative to the drain outlet to open or close the outlet. The rotation method facilitates user operation, and the operating part is unlikely to rotate autonomously due to gravity or other factors, ensuring the stability of the drainage mechanism.

[0079] According to the present invention, a mop bucket is provided, wherein the squeezing module is provided with a through hole, one end of the operating part protrudes from the top of the squeezing module, and the other end extends into the bucket body through the through hole and is connected to the transmission component for transmission.

[0080] This embodiment provides a specific implementation of the operating part. Specifically, a through hole is provided on the extrusion module, and one end of the operating part protrudes from the top of the extrusion module, making it easy for the user to hold and rotate the operating part. The other end of the operating part extends into the barrel through the through hole and is connected to the transmission component to indirectly drive the movement of the drain plug. The assembly structure is simple and easy for the user to use.

[0081] According to the present invention, a mop bucket is provided, wherein the operating part includes a knob and a rotating component, and the rotating component is disposed on the side of the extrusion module near the bucket body; The knob protrudes from the top of the extrusion module, and one end near the barrel passes through the through hole and is circumferentially locked to the rotating component; the rotating component is connected to the transmission assembly. The knob is driven to rotate, which in turn drives the rotating component to rotate. The rotation of the rotating component drives the transmission assembly to move. The movement of the transmission assembly drives the drain plug to move relative to the drain outlet, thereby opening or closing the drain outlet.

[0082] This embodiment provides another specific implementation of the operating unit. The operating unit includes a knob and a rotating component. The knob protrudes from the top of the extrusion module, and its end near the barrel passes through a through hole and engages with the rotating component in a circumferential limiting manner. This allows the user to rotate the rotating component by holding and rotating the knob. The rotating component is connected to a transmission assembly, so its rotation causes the transmission assembly to move, which in turn causes the drain plug to move relative to the drain outlet. The entire drainage mechanism has a simple structure and allows the user to indirectly move the drain plug via the knob, improving the user experience.

[0083] According to the present invention, one of the rotating component and the transmission assembly is provided with an inclined groove, and the other is provided with a sliding block. The sliding block is inserted into the inclined groove and slides in the inclined groove. The rotating component rotates, the sliding block slides along the inclined groove, and drives the transmission component to move linearly. The linear movement of the transmission component drives the drain plug to move relative to the drain outlet, so as to open or close the drain outlet.

[0084] This embodiment provides a specific implementation of assembling a rotating component and a transmission assembly. Specifically, one of the rotating component and the transmission assembly is provided with a groove, and the other with a sliding block. The sliding block slides along the groove after being inserted into it. In actual use, the user drives a knob to rotate the rotating component, which in turn causes the sliding block to slide along the groove, thereby causing the transmission assembly to move linearly. This, in turn, causes the drain plug to move relative to the drain outlet. This application, through the cooperative design of the sliding block and the groove, allows the transmission assembly to move linearly while the rotating component is rotating, facilitating control of the direction of the drain plug's movement relative to the drain outlet, thus helping to effectively open or close the drain outlet. The assembly structure is simple and easy to operate.

[0085] According to the present invention, a mop bucket is provided with limiting grooves at both ends of the inclined groove; when the sliding block slides along the inclined groove to the end of the inclined groove and is limited to the limiting groove at the end, the drain plug remains in the current position, so that the drain outlet is maintained in the open or closed state.

[0086] This embodiment provides a specific implementation of the inclined groove. Both ends of the inclined groove are provided with limiting grooves. When the sliding block slides along a certain direction of the inclined groove to the end of the groove and is confined to the limiting groove at the end, the sliding block will stop in the limiting groove. At this time, the sliding block is not easy to slide, so the drain plug can be temporarily held in its current position, keeping the drain outlet in an open or closed state to discharge the cleaning water in the bucket, or to allow the bucket to hold the cleaning water for cleaning the mop board. The design of the limiting grooves allows the drain outlet to be stably maintained in an open or closed state when the user operates the drainage mechanism, which helps to quickly discharge wastewater and also helps the bucket to better hold the cleaning water, avoiding leakage from the bucket due to the sliding block sliding when cleaning the mop board.

[0087] According to the present invention, a mop bucket is provided, wherein the rotating member has a mounting arm extending away from the extrusion module, the sliding block is disposed at the end of the mounting arm, and the inclined groove is disposed in the transmission assembly.

[0088] This embodiment provides another specific implementation of assembling the rotating component and the transmission assembly. Specifically, the rotating component has a mounting arm extending away from the extrusion module, a sliding block is disposed at the end of the mounting arm, and correspondingly, a slanted groove is disposed on the transmission assembly. This arrangement makes the overall size of the rotating component relatively small, while the larger slanted groove portion is disposed on the transmission assembly that is normally located inside the barrel.

[0089] According to the present invention, a mop bucket is provided, wherein the inclined groove is disposed on the outer peripheral surface of the transmission component.

[0090] This embodiment provides another specific implementation of setting the inclined groove. Specifically, the inclined groove is set on the outer peripheral surface of the transmission component. The rotating component drives the sliding block to slide in the inclined groove on the outer peripheral surface of the transmission component, which can drive the transmission component to move linearly in the direction away from or towards the extrusion module, thereby causing the drain plug to dislodge from the drain port or to be inserted into the drain port. The operation is simple and easy to implement.

[0091] According to the present invention, one of the rotating components and the transmission assembly is provided with an inclined surface, and the other is provided with an abutment block; The rotating component rotates, the abutting block slides along the inclined surface, and drives the transmission component to move linearly. The linear movement of the transmission component drives the drain plug to move relative to the drain outlet, so as to open or close the drain outlet.

[0092] This embodiment provides another specific implementation of assembling the rotating component and the transmission assembly. Specifically, one of the rotating component and the transmission assembly is provided with an inclined surface, and the other is provided with an abutment block. When the rotating component rotates, the abutment block slides along the inclined surface, thereby driving the transmission assembly to move in a straight line, so as to move the drain plug relative to the drain outlet to open or close the drain outlet. Through the cooperative design of the inclined surface and the abutment block, this application enables the transmission assembly to move in a straight line when the rotating component rotates, which facilitates the control of the direction of the drain plug's movement relative to the drain outlet, thereby helping to effectively open or close the drain outlet. The cooperative structure is simple and easy to operate.

[0093] According to the present invention, a mop bucket is provided, wherein the drain outlet is provided on the bottom surface of the bucket body, and the end of the transmission component is fixedly connected to the drain plug; The rotating component rotates, causing the transmission assembly to move up and down along the depth direction of the barrel; The transmission component moves upward, causing the drain plug to move in the same direction to open the drain outlet; the transmission component moves downward, causing the drain plug to move in the same direction to close the drain outlet.

[0094] This embodiment provides a specific implementation of the drainage mechanism. The drain outlet is located on the bottom surface of the bucket, and the end of the transmission component is fixedly connected to the drain plug to effectively move the drain plug, thereby opening or closing the drain outlet. In actual use, the user drives the rotating component to rotate, which in turn moves the transmission component up and down along the depth direction of the bucket, causing the drain plug to move up and down synchronously. When the drain plug moves upward, it disengages from the drain outlet at the bottom of the bucket to open the drain outlet; when the drain plug moves downward, it gradually inserts into the drain outlet at the bottom of the bucket to close the drain outlet. The drainage mechanism is simple and easy to operate, and the up-and-down movement of the transmission mechanism and the drain plug does not easily affect the cleaning space reserved for the mop blade inside the bucket.

[0095] According to the present invention, a mop bucket is provided, wherein the transmission assembly includes a mating part and a connecting rod, one end of the connecting rod is fixedly connected to the mating part, and the other end is fixedly connected to the drain plug, and the mating part is throttlely connected to the operating part; One of the rotating component and the mating component is provided with an inclined groove, and the other is provided with a sliding block. The sliding block is inserted into the inclined groove and slides in engagement with the inclined groove.

[0096] This embodiment provides a specific implementation of the transmission component. The specific transmission component includes a mating part and a connecting rod, wherein one end of the connecting rod is fixedly connected to the mating part, and the other end is fixedly connected to the drain plug to drive the drain plug to move. The mating part and the operating part are connected by a transmission mechanism. One of the rotating parts of the operating part and the mating part is provided with an inclined groove, and the other is provided with a sliding block. The sliding block is inserted into the inclined groove and slides within it, so that when the rotating part rotates, it engages with the mating part to drive the connecting rod to move within the barrel, thereby driving the drain plug to move. The mating structure is simple and easy to implement.

[0097] According to the present invention, a mop bucket has a drain outlet located on the bottom surface of the bucket body, and the end of the transmission component is fixedly connected to the drain plug. The operating part is driven to move, causing the transmission assembly to move up and down along the depth direction of the barrel; the upward movement of the transmission assembly causes the drain plug to move in the same direction to open the drain outlet; the downward movement of the transmission assembly causes the drain plug to move in the same direction to close the drain outlet.

[0098] This embodiment provides another specific implementation of the drainage mechanism. Specifically, the drain outlet is located on the bottom surface of the bucket, and the end of the transmission component is fixedly connected to the drain plug to effectively drive the drain plug to move, thereby opening or closing the drain outlet. In actual use, the user drives the operating unit to rotate, which in turn drives the transmission component to move up and down along the depth direction of the bucket, thereby causing the drain plug to move up and down synchronously. When the drain plug moves upward, it disengages from the drain outlet at the bottom of the bucket to open the drain outlet; when the drain plug moves downward, it gradually inserts into the drain outlet at the bottom of the bucket to close the drain outlet. The drainage mechanism is simple and easy to operate, and the up-and-down movement of the transmission mechanism and the drain plug does not easily affect the cleaning space reserved for the mop blade inside the bucket.

[0099] According to the present invention, a mop bucket is provided, wherein the transmission assembly includes a mating component and a connecting rod, one end of the connecting rod is fixedly connected to the mating component, and the other end is fixedly connected to the drain plug, and the mating component is throttlely connected to the operating part; The operating part is driven to move, causing the mating component to move up and down along the depth direction of the barrel. The mating component drives the drain plug to move up and down through the connecting rod.

[0100] This embodiment provides another specific implementation of the transmission component. The specific transmission component includes a mating part and a connecting rod, wherein one end of the connecting rod is fixedly connected to the mating part, and the other end is fixedly connected to the drain plug to drive the drain plug to move; the mating part is connected to the operating part via a transmission mechanism. When the operating part is driven to move, it drives the mating part to move up and down along the depth direction of the barrel, thereby driving the connecting rod and indirectly driving the drain plug to move up and down. The transmission component has a simple structure and can effectively transmit power to drive the drain plug to move up and down.

[0101] According to the present invention, a mop bucket further includes a reset member, which is disposed between the operating part and the squeezing module, or between the operating part and the transmission assembly, or between the transmission assembly and the bucket body. When the operating part is driven to move, it drives the transmission assembly to move, which in turn drives the drain plug to move to open or close the drain outlet, the reset member stores force; when the reset member releases force, it drives the drain plug to move and reset, and drives the operating part and the transmission assembly to reset.

[0102] This embodiment provides another specific implementation of the mop bucket. The mop bucket may further include a reset component. After the user drives the operating unit to rotate, causing the drainage mechanism to move, the reset component stores force. If the operating unit stops being driven, the reset component releases force, allowing the operating unit and drainage mechanism to reset. For example, if the position of the drainage mechanism when the drain outlet is closed is set as the normal setting position, then when the user drives the operating unit to open the drain outlet, if the operating unit stops being driven, the reset component will cause the operating unit and drainage mechanism to reset, restoring them to the normal setting position. This allows the user to return to the normal setting position without additional user intervention, making it convenient for the user to directly use the normal setting position of the mop bucket for cleaning next time, thus improving the user experience.

[0103] According to the present invention, a mop bucket is provided, wherein the reset member is a spring disposed between the operating part and the squeezing module, or between the operating part and the transmission assembly, or between the transmission assembly and the bucket body; When the operating part is driven to move the transmission assembly, which in turn moves the drain plug away from the drain outlet to open the drain outlet, the reset member stores force; when the reset member releases force, it moves the drain plug closer to the drain outlet to close the drain outlet, and resets the operating part and the transmission assembly.

[0104] This embodiment provides a specific implementation of the reset component. The reset component can be a spring positioned between the operating part and the extrusion module, between the operating part and the transmission assembly, or between the transmission assembly and the barrel. In actual use, when the operating part is driven to move, causing the transmission assembly to move and thus the drain plug to move away from the drain outlet to open it, the spring compresses and stores force. When the operating part stops being driven, the spring releases force, causing the drain plug to move closer to the drain outlet to close it, and resetting the operating part and the transmission assembly for the next use. Using a spring as the reset component is simple and feasible, and the required cost is low to add the reset function.

[0105] According to the present invention, a mop bucket is provided, wherein the reset member is an elastic rope disposed between the transmission assembly and the bucket body; When the operating part is driven to move the transmission assembly, which in turn moves the drain plug toward the drain outlet to close the drain outlet, the reset member stores force; when the reset member releases force, it moves the drain plug away from the drain outlet to open the drain outlet, and resets the operating part and the transmission assembly.

[0106] This embodiment provides another specific implementation of the reset component. Specifically, the reset component can be an elastic rope disposed between the transmission assembly and the barrel. During actual use, when the operating part is driven to move, causing the transmission assembly to move and thus moving the drain plug towards the drain outlet to close it, the elastic rope is stretched and stores energy. When the operating part stops being driven, the elastic rope releases the force, causing the drain plug to move away from the drain outlet to open it, and resetting the operating part and transmission assembly for the next use. Using an elastic rope as the reset component is simple and feasible, and the reset function can be added at a low cost.

[0107] According to the present invention, a mop bucket is provided, wherein the bucket body is divided into multiple chambers by a partition, and each chamber is provided with a drain outlet at the bottom, and each drain outlet is provided with a drain plug; The transmission components are connected to the plurality of drain plugs respectively; the operating part is driven to move, which in turn drives the transmission components to move, and the movement of the transmission components drives the plurality of drain plugs to move, so as to open or close the plurality of drain outlets simultaneously, thereby improving the efficiency of opening or closing the plurality of drain outlets and providing a better user experience.

[0108] This embodiment provides a specific implementation of the bucket body. Specifically, the bucket body is divided into multiple chambers by partitions. Each chamber has a drain outlet at its bottom, and each drain outlet has a drain plug. The transmission component can be connected to each of these drain plugs. The multiple chambers can independently clean the mop board. In actual use, the operating part is driven to move, which in turn drives the transmission component to move synchronously, thereby opening or closing multiple drain outlets simultaneously, achieving synchronous drainage from multiple chambers.

[0109] This utility model provides a mop, including a mop handle, a mop plate hinged to the end of the mop handle, and a squeezing module as described in any of the above embodiments movably disposed on the mop handle.

[0110] In this embodiment, the mop includes a mop handle, a mop plate, and the aforementioned squeezing module. Specifically, the mop plate is hinged to the end of the mop handle, and the squeezing module can be sleeved on the mop handle. By sliding the squeezing module, the mop plate can be inserted into the squeezing module for cleaning, which is convenient to use and has a good cleaning effect. Attached Figure Description

[0111] 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.

[0112] Figure 1 This is one of the structural schematic diagrams 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; Figure 3 This is the second structural schematic diagram of the extrusion module provided by this utility model; Figure 4 This is a schematic diagram of the mounting groove in the extrusion module provided by this utility model; Figure 5 This is a schematic diagram of the mounting part in the extrusion module provided by this utility model; Figure 6 This is the third structural schematic diagram of the extrusion module provided by this utility model; Figure 7 This is one of the structural schematic diagrams of the guide wheel in the extrusion module provided by this utility model; Figure 8 This is the second schematic diagram of the guide wheel in the extrusion module provided by this utility model; Figure 9 This is the second structural schematic diagram of the mop bucket provided by this utility model; Figure 10 This is the third structural schematic diagram of the mop bucket provided by this utility model; Figure 11 This is the fourth structural schematic diagram of the extrusion module provided by this utility model; Figure 12 This is the fourth structural schematic diagram of the mop bucket provided by this utility model; Figure 13 This is a schematic diagram of the bottom structure of the mop bucket provided by this utility model; Figure 14 This is the fifth structural schematic diagram of the mop bucket provided by this utility model; Figure 15 This is a schematic diagram of the connection structure between the knob and the rotating part in the mop bucket provided by this utility model; Figure 16 This is the sixth structural schematic diagram of the mop bucket provided by this utility model; Figure 17 This is the seventh structural schematic diagram of the mop bucket provided by this utility model; Figure 18 This is the eighth structural schematic diagram of the mop bucket provided by this utility model; Figure 19 This is the ninth structural schematic diagram of the mop bucket provided by this utility model.

[0113] Figure label: 10: Mop bucket; 20: Mop board; 30: Mop handle; 101: Extrusion module; 102: Barrel body; 103: Operating unit; 104: Transmission assembly; 105: Reset component; 1011: Scraping component; 1012: Guide wheel; 1021: Partition; 1022: Raised block; 1023: Drain outlet; 1031: Knob; 1032: Rotating component; 1041: Mating component; 1042: Connecting rod; A: Opening; B: Sidewall setting; C: Installation sidewall; D: Installation part; E: Installation groove; F: Snap-fit ​​hole; G: Snap-fit ​​block; H: Shaft hole for mounting subframe; J: Rotation shaft of guide wheel; K: Hollow area; L: Support wall; M: Insertion groove; N: Drain plug; P: Inclined groove; Q: Sliding block; R: Limiting groove; S: Installation arm; T: Inclined surface; U: Abutment block; V: Installation block; V1: Guide sidewall; V2: Constraint sidewall. Detailed Implementation

[0114] 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.

[0115] 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.

[0116] 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.

[0117] 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.

[0118] The following description, in conjunction with the accompanying drawings, describes the extrusion module, mop bucket, and mop of this utility model.

[0119] According to one aspect, this utility model provides an extrusion module. Figure 1 This is one of the structural schematic diagrams 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 101 is provided with an opening A. The opening A has a side wall B and two mounting side walls C respectively adjacent to the side wall B. The two mounting side walls C extend away from the side wall B and move closer to each other until they intersect in the direction away from the side wall B. A scraping member 1011 is provided on the side of the opening A near the side wall B. The scraping member 1011 is used to scrape and / or squeeze the wiping material of the mop board 20 inserted into the opening A.

[0120] Optionally, the scraping component 1011 may include at least one of a scraper, a roller, comb teeth, a boss, and a brush.

[0121] Optionally, the aforementioned sidewall B and the two mounting sidewalls C can be connected by assembly to form opening A, or they can be integrally formed to form opening A. This application does not limit this.

[0122] Optionally, the two side walls forming the opening A can be fixedly connected to each other to make the opening A more secure, thereby improving the reliability of the entire extrusion module 101.

[0123] Specifically, the extrusion module 101 of this application is provided with an opening A for inserting a mop board 20. The opening A has a setting side wall B and two mounting side walls C respectively arranged adjacent to the setting side wall B. The two mounting side walls C extend away from the setting side wall B and move closer to each other until they intersect in the direction away from the setting side wall B to form a three-sided closed opening A. Specifically, a scraping member 1011 can be provided on the setting side wall B to scrape and / or squeeze the mop board 20 inserted into the opening A.

[0124] In this embodiment of the utility model, compared with the rectangular extrusion port and the convex-shaped extrusion port commonly used in related technologies, the three-sided closed opening provided in this application has a simple structure, is easy to manufacture, has a lower cost, and has a smaller overall opening size, making it less likely for sewage to splash out, thus improving the user experience.

[0125] In some embodiments, a specific implementation is provided where an opening A is provided on the extrusion module 101. For example... Figure 1 and Figure 2As shown, both the mounting sidewall C and the setting sidewall B are planar, and the setting sidewall B and the two mounting sidewalls C form a triangular opening A.

[0126] Specifically, if both the mounting sidewall C and the setting sidewall B are set as planes, a triangular opening A will be formed between the setting sidewall B and the two mounting sidewalls C, allowing the mop board 20 to be inserted and squeezed. The triangular opening A provided in this application has a simple structure, is easy to manufacture, has a low cost, and further reduces the overall opening size, making it less likely for sewage to splash out and improving the user experience.

[0127] For example, after the side wall B and the two mounting side walls C form a triangular opening A, the connection part of the two side walls can be provided with a rounded corner so that the opening A can better accommodate the mop board.

[0128] In some embodiments, another specific implementation is provided in which an opening A is provided on the extrusion module 101. For example... Figure 1 and Figure 2 As shown, sidewall B is set as a plane, and sidewall C is a curved surface that curves away from or towards sidewall B.

[0129] Specifically, side wall B is set as a flat surface to facilitate the installation of a scraping component 1011 on it to clean the mop board 20. However, the mounting side wall C is set as an arc-shaped surface that curves away from or towards the mounting side wall B. Based on reducing the overall size of the opening A, the arc-shaped surface design here can be used to insert a thicker mop board 20 into the opening A for cleaning.

[0130] In some embodiments, another specific implementation is provided in which an opening A is provided on the extrusion module 101. For example... Figure 1 and Figure 2 As shown, sidewall B is set as an arc-shaped surface that bends away from mounting sidewall C, and mounting sidewall C is a plane. Sidewall B and the two mounting sidewalls C form a fan-shaped opening A.

[0131] Specifically, sidewall B is set as an arc-shaped surface that curves away from mounting sidewall C, and mounting sidewall C is set as a plane. The aforementioned sidewall B and the two mounting sidewalls C form a fan-shaped opening A, which facilitates the insertion and cleaning of a mop board 20 with a thicker wiping material.

[0132] Optionally, the aforementioned side wall B and the two mounting side walls C can all be set to be non-planar, so that the enclosed opening A can be used to clean the mop board 20 normally.

[0133] In some embodiments, a specific implementation of the extrusion module 101 is provided. For example... Figure 1 and Figure 2As shown, the extrusion module 101 is provided with at least two openings A, and the mounting sidewalls C of two adjacent openings A are arranged adjacent to each other.

[0134] It should be noted that, Figure 2 The example shown is only one with four openings A on the extrusion module 101, and this application does not limit this.

[0135] Specifically, the extrusion module 101 is provided with at least two openings A, so that the same mop board 20 can be cleaned in different openings A, or multiple mop boards 20 can be cleaned simultaneously in openings A. In addition, the mounting sidewalls C of the two adjacent openings A are arranged adjacently to save as much space as possible required to set up the openings A.

[0136] For example, the mounting sidewalls C of the two adjacent openings A can be set adjacent to each other or can be set to share the same mounting sidewall C, so as to reduce the number of mounting sidewalls C, making the extrusion module 101 simpler to manufacture, lower manufacturing cost, and effectively saving the space on the extrusion module 101 used to set the openings A.

[0137] In some embodiments, another specific implementation of the extrusion module 101 is provided. For example... Figure 1 and Figure 2 As shown, the extrusion module 101 has four openings A, each of which is triangular, and the four openings A enclose a rectangular opening area.

[0138] Specifically, the extrusion module 101 is provided with four openings A, each of which is triangular. The four openings A enclose a rectangular opening area. On a conventional rectangular extrusion module 101, by reasonably designing the shape of the openings A and allocating the positions of the openings A, the space required to set the openings A can be effectively saved.

[0139] In some embodiments, a specific implementation of setting up sidewall C and sidewall B is provided. For example... Figure 1 and Figure 2 As shown, the four sides of the rectangular opening A setting area correspond to the setting sidewall B of each opening A.

[0140] Specifically, the four openings A are set with sidewalls B as the four sides of a rectangle, forming a rectangular opening area. The four sides of the opening area are usually not easily deformed. By setting the sidewalls B, which need to be scraped and squeezed with the mop board 20, on the four sides of the opening area, the reliability of the squeezing module 101 can be improved as much as possible, and the service life of the squeezing module 101 can be extended to a certain extent.

[0141] In some embodiments, another specific implementation of the extrusion module 101 is provided. See reference... Figure 1and Figure 2 The figure above shows an example of an extrusion module 101 with four openings A. In this embodiment, the extrusion module 101 has two openings A, each of which is a triangle. The two openings A enclose a triangular opening area, which can be considered as one of the areas after the rectangular opening areas corresponding to the four openings A are separated along the diagonal.

[0142] Specifically, the extrusion module 101 is provided with two openings A, each of which is triangular. The two openings A enclose a triangular opening area. In a conventional triangular extrusion module 101, by reasonably designing the shape of the openings and allocating their positions, the space required to set the openings A can be effectively saved.

[0143] In some embodiments, another specific implementation of setting mounting sidewall C and setting sidewall B is provided. The base of the triangular opening setting area corresponds to the mounting sidewall C of the two openings A, and the two sides correspond to the setting sidewall B of the two non-adjacent openings A, respectively.

[0144] Specifically, the two sidewalls B are respectively set on the two waists of the triangular opening area. If the squeezing module 101 is installed at the opening of the mop bucket 10, the installation position of the two waists will be close to the edge of the opening. The edge can effectively support the two sidewalls B, and thus can effectively support the scraping component 1011 to prevent it from moving when the mop board 20 moves up and down in the opening A, which helps to improve the cleaning effect.

[0145] In some embodiments, a specific implementation of setting the shape of opening A is provided. At least two openings A may have identical or different shapes.

[0146] Specifically, the shapes of the multiple openings A can be exactly the same, for example, all can be set as triangular openings, which makes it convenient to use multiple replaceable squeezing ports for the same type of mop; the shapes of the multiple openings A can also be not exactly the same, for example, some openings A can be set as triangular openings, which is suitable for cleaning mop boards 20 with thinner wiping materials, and some openings A can be set as the aforementioned fan-shaped openings, which is beneficial for mop boards 20 with thicker wiping materials to be inserted into openings A and cleaned. The shape of the openings A of the squeezing module 101 can be flexibly set to be suitable for cleaning different mop boards 20.

[0147] In some embodiments, another specific implementation of the extrusion module 101 is provided. For example... Figure 1 and Figure 2 As shown, the bottom surface of the mop board 20 is provided with wiping material; An abutment is provided on the mounting side wall C, and a squeezing opening is formed between the abutment and the scraping component 1011. When the mop plate 20 is inserted into the squeezing opening, the abutment abuts against the top surface of the mop plate 20.

[0148] Specifically, the mounting side wall C of the extrusion module 101 is provided with an abutment part, which forms an extrusion port with the scraping member 1011 on the mounting side wall B. When the mop plate 20 is inserted into the extrusion port, the wiping material on the bottom surface of the mop plate 20 will come into contact with the scraping member 1011, and the top surface of the mop plate 20 will abut with the abutment part. The abutment part helps to provide support for the mop plate 20 inserted into the extrusion port, so that the wiping material on the bottom surface of the mop plate 20 can fully contact the scraping member 1011 and clean it, which can further improve the cleaning effect of the mop plate 20.

[0149] For example, abutment portions can be provided on both mounting sidewalls C, and the two abutment portions are symmetrically arranged with respect to the extrusion port, so that the mop board 20 can be subjected to symmetrical support force when it is in the extrusion port, and thus can move up and down smoothly in the extrusion port.

[0150] In some embodiments, a specific implementation of the abutment is provided. For example... Figure 1 and Figure 2 As shown, the abutment part includes a guide wheel 1012, which is rotatably mounted on the mounting side wall C. When the mop plate 20 is inserted into the squeezing port, the guide wheel 1012 abuts against the top surface of the mop plate 20. When the mop plate 20 moves in the squeezing port, the guide wheel 1012 rotates under the drive of the mop plate 20.

[0151] Optionally, the guide wheel 1012 can be configured as a tire-shaped guide wheel, a frustum-shaped guide wheel, a conical guide wheel, etc. This application does not limit the shape of the guide wheel 1012.

[0152] Optionally, the aforementioned abutment may include one or more guide wheels 1012, and technicians may set the number of guide wheels 1012 according to actual usage.

[0153] Specifically, the abutment part includes a guide wheel 1012, which is rotatably mounted on the mounting side wall C. When the mop plate 20 is inserted into the extrusion port and moves up and down, the guide wheel 1012 abuts against the top surface of the mop plate 20, and the guide wheel 1012 rotates under the drive of the mop plate 20 to guide and support the mop plate 20 to move and clean in the extrusion port. This application uses a guide wheel 1012 to guide the movement of the mop plate 20, effectively reducing friction between the top surface of the mop plate 20 and the abutment part, facilitating smoother movement of the mop plate 20. Furthermore, the guide wheel 1012 is less prone to wear during the guiding process, improving the overall reliability of the extrusion module 101.

[0154] In some embodiments, a specific implementation of setting the guide wheel 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 3As shown, the mounting sidewall C is provided with a mounting part D, and the guide wheel 1012 is rotatably mounted on the mounting part D.

[0155] Specifically, the mounting sidewall C is provided with a mounting part D, which can serve as a carrier for the guide wheel 1012, thereby realizing the rotational connection between the guide wheel 1012 and the mounting sidewall C of the extrusion module 101.

[0156] In some embodiments, a specific implementation of setting the mounting section D is provided. For example... Figures 1 to 3 As shown, the mounting part D is detachably connected to the mounting side wall C.

[0157] Specifically, the mounting part D can be detachably connected to the mounting side wall C. When it is necessary to install or replace the guide wheel 1012, the mounting part D can be removed to facilitate the user to install or replace the guide wheel 1012. After the appropriate guide wheel 1012 is set on the mounting part D, the mounting part D is then set on the mounting side wall C to position the guide wheel 1012 at the appropriate position of the extrusion port, so as to effectively guide and support the mop board 20.

[0158] In some embodiments, another specific implementation of the installation unit D is provided. Figure 4 This is a schematic diagram of the mounting groove in the extrusion module provided by this utility model. Figure 5 This is a structural schematic diagram of the mounting part in the extrusion module provided by this utility model, as shown below. Figures 1 to 5 As shown, a mounting groove E is provided on the mounting side wall C, and at least a portion of the mounting part D is accommodated in the mounting groove E.

[0159] Specifically, compared to the possibility that providing an additional mounting portion D on the smooth mounting sidewall C might reduce the effective squeezing size of the squeezing port and hinder the smooth movement of the mop plate 20 in the squeezing port, this application provides a mounting groove E on the mounting sidewall C, in which at least a portion of the aforementioned mounting portion D can be accommodated. Based on the provision of guide wheels 1012 that have guiding and supporting functions, a larger space can be provided for the squeezing port as much as possible, making it easier for the mop plate 20 to extend into the squeezing port for cleaning.

[0160] In some embodiments, a specific implementation of the connection structure between the mounting slot E and the mounting part D is provided. For example... Figures 1 to 5 As shown, the bottom of the mounting sidewall C is recessed to form a mounting groove E, and a snap-fit ​​groove or snap-fit ​​hole F is provided in the area of ​​the mounting sidewall C near the bottom of the mounting groove E; The end of the mounting part D is provided with a snap-fit ​​block G. The mounting part D is inserted into the mounting groove E from the bottom of the mounting side wall C until the snap-fit ​​block G engages with the snap-fit ​​groove or snap-fit ​​hole F.

[0161] It should be noted that the above Figure 4An example is shown where a snap-fit ​​hole F is provided at the bottom of the mounting slot E.

[0162] Specifically, the bottom of the mounting sidewall C is recessed to form a mounting groove E. The area of ​​the mounting sidewall C near the bottom of the mounting groove E is provided with a snap-fit ​​groove or snap-fit ​​hole F. Correspondingly, the end of the mounting part D is provided with a snap-fit ​​block G. During installation, the mounting part D will be inserted into the mounting groove E from the bottom of the mounting sidewall C until the snap-fit ​​block G on the mounting part D snaps into the snap-fit ​​groove or snap-fit ​​hole F. The installation method is simple and easy to operate, and the connection structure is simple and firm. The mounting part D and the guide wheel 1012 are not easy to fall off when the mop plate 20 moves up and down, which improves the reliability of the extrusion module 101.

[0163] In some embodiments, a specific implementation of the mounting unit D is provided. For example... Figures 1 to 5 As shown, a mounting sub-frame is provided on the side of the mounting part D near the mounting side wall B, and the guide wheel 1012 is detachably mounted on the mounting sub-frame.

[0164] Specifically, a mounting sub-frame can be provided on the side of the mounting part D near the side wall B. The guide wheel 1012 is detachably mounted on the mounting sub-frame. The position of the mounting sub-frame helps to position the guide wheel 1012 on the side facing the squeezing port, thereby effectively guiding and supporting the top surface of the mop board 20, which helps to improve the cleaning effect of the mop board 20.

[0165] In some embodiments, a specific implementation of providing a mounting portion D is provided when two openings A are provided on the extrusion module 101. (See reference...) Figures 1 to 5 The extrusion module 101 has two openings A, and the mounting sidewalls C of the two openings A are arranged adjacent to each other. The mounting part D is detachably connected to the mounting sidewalls C of the two openings A respectively, and has two mounting sub-frames. The two mounting sub-frames correspond to the mounting sidewalls B of the two openings A respectively. The guide wheels 1012 provided on the two mounting sub-frames form extrusion ports between them and the scraping parts 1011 provided on the two openings A respectively.

[0166] Specifically, when the extrusion module 101 has two openings A, the mounting sidewalls C of the two openings A can be arranged adjacent to each other. At this time, the mounting part D can be detachably connected to the mounting sidewalls C of the two openings A respectively, which facilitates the user to install or replace the guide wheels 1012. The mounting part D has two mounting sub-frames, which correspond to the mounting sidewalls B of the two openings A respectively. The guide wheels 1012 on the two mounting sub-frames form extrusion openings between the scraping parts 1011 of the two openings A respectively, so as to guide and support the mop board 20 to move in the extrusion openings. By setting a mounting part D on the mounting sidewalls C of the two openings A adjacent to each other, the guide wheels 1012 on the two mounting sub-frames of the mounting part D can form two extrusion openings between the scraping parts 1011 of the two openings A respectively. The user can adjust the guide wheels 1012 corresponding to the two extrusion openings by disassembling one mounting part D. The operation is simple and does not require too much assembly operation, which effectively improves the user experience.

[0167] In some embodiments, a specific implementation of mounting the guide wheel 1012 is provided. For example... Figures 1 to 5 As shown, the mounting subframe is provided with a groove, and shaft holes H are provided on the opposite sides of the groove. Rotating shafts J are provided at both ends of the guide wheel 1012. The rotating shafts J are inserted into the shaft holes H so that the guide wheel 1012 is rotatably connected to the mounting part D.

[0168] Specifically, the mounting sub-frame is provided with a groove to accommodate the guide wheel 1012, and shaft holes H are provided on opposite sides of the groove. The rotating shafts J at both ends of the guide wheel 1012 can be inserted into the shaft holes H, so that the guide wheel 1012 is rotatably connected to the mounting part D. By providing the connection method of shaft holes H and rotating shafts J, it is convenient for users to install the guide wheel 1012 onto the mounting sub-frame, and the installation is firm and not easy to fall off.

[0169] In some embodiments, such as Figure 19 As shown, the mounting part D can also be a mounting block V protruding from the mounting side wall C. The mounting block V has a guide side wall V1 opposite to the mounting side wall B, and the guide wheel 1012 is rotatably mounted on the guide side wall V1.

[0170] Specifically, the extension direction of the guide sidewall V1 can be the same as the extension direction of the scraper 1011, that is, the extension direction of the guide sidewall V1 is approximately the same as the length direction of the scraper 1011, so that the guide sidewall V1 and the scraper 1011 can be approximately parallel, forming a compression opening between them. If the sidewall B of the opening A is planar, then the guide sidewall V1 and the sidewall B can be set parallel to each other.

[0171] This embodiment provides a specific implementation of the mounting part D. Specifically, the mounting part D can be a mounting block V fixedly mounted on the mounting sidewall C. The mounting block V protrudes from the mounting sidewall C and has a guide sidewall V1 opposite to the mounting sidewall B. A guide wheel is rotatably mounted on the guide sidewall V1. The structure is simple and easy to manufacture.

[0172] Optionally, the mounting block V may also include a constraint sidewall V2 extending away from the mounting sidewall C, the constraint sidewall V2 having an angle with the guide sidewall V1 and intersecting at the end away from the mounting sidewall C.

[0173] Specifically, a triangular mounting block V can be protruding from the mounting sidewall C. The bottom edge of the mounting block V is fixed to the mounting sidewall C. Of the other two sides, the one closer to the mounting sidewall B is the guide sidewall V1, and the one farther from the mounting sidewall B is the constraint sidewall V2. When the mop board is inserted into the squeezing port, the guide wheel on the guide sidewall V1 abuts against the top surface of the mop board, and the constraint sidewall V2 provides support for the guide sidewall V1, preventing the mounting block V from deforming under stress.

[0174] In this embodiment, the mounting part D can be a mounting block V with an approximately triangular cross section that protrudes from the mounting sidewall C. The guide wheel 1012 is mounted on the guide sidewall V1, and the constraint sidewall V2 that intersects with the guide sidewall V1 provides support for the guide sidewall V1, so as to avoid the mounting block V from deforming when the mop board applies a large force to the guide wheel 1012.

[0175] Optionally, the constraint sidewall V2 and the guide sidewall V1 intersect through a circular arc surface transition, making it easy to demold the mounting block V during manufacturing and reducing the defect rate during production.

[0176] Example, reference Figure 19 As shown, the extrusion module 101 has two adjacent openings A, which share a mounting sidewall C. Mounting blocks V can be symmetrically arranged at the same position on both sides of the mounting sidewall C. Approximately triangular mounting blocks V can protrude from the same position on both sides of the mounting sidewall C. The two mounting blocks V can be integrally formed, simplifying the structure of the production mold. Optionally, the two mounting blocks V can be positioned close to the adjacent area of ​​the mounting sidewall B and the mounting sidewall C, making the structure of the mounting blocks V and the scraper 1011 on the mounting sidewall B compact and more conducive to cleaning the flat mop board.

[0177] In some embodiments, a specific implementation of the guide wheel 1012 is provided. Figure 6 This is the third structural schematic diagram of the extrusion module provided by this utility model. Figure 7 This is one of the structural schematic diagrams of the guide wheel in the extrusion module provided by this utility model, such as... Figures 1 to 7As shown, the guide wheel 1012 is conical. When the mop plate 20 is inserted into the squeezing port, the side of the conical guide wheel 1012, at least the area near the bottom, abuts against the top surface of the mop plate 20. When the mop plate 20 moves in the squeezing port, the side of the conical guide wheel 1012, at least the area near the bottom, rolls along the top surface of the mop plate 20.

[0178] Specifically, the guide wheel 1012 can be set as conical, which can be understood as the outer peripheral surface of the guide wheel 1012 being conical. When the mop plate 20 is inserted into the extrusion port and moves up and down, the side of the conical guide wheel 1012, at least the area near the bottom of the guide wheel 1012, will abut against the top surface of the mop plate 20, and this area will roll along the top surface of the mop plate 20 to guide and support the mop plate 20 to move in the extrusion port. The conical guide wheel 1012 set in this application, compared with the conventionally set tire-shaped guide wheel, can effectively reduce the material used of the guide wheel 1012 while forming a wider support surface, thereby effectively reducing manufacturing costs.

[0179] In some embodiments, a specific implementation of mounting the tapered guide wheel 1012 is provided. For example... Figures 1 to 7 As shown, the conical guide wheel 1012 is provided with a rotating shaft J along the axial direction of the cone, and the guide wheel 1012 is rotatably mounted on the mounting side wall C through the rotating shaft J.

[0180] Specifically, the aforementioned conical guide wheel 1012 is provided with a rotating shaft J along the axial direction of the cone. The guide wheel 1012 can be rotatably mounted on the mounting side wall C through the rotating shaft J. The installation method is simple, and the guide wheel 1012 is not easy to fall off, so it can stably guide and support the mop board 20.

[0181] Optionally, the guide wheel 1012 can be indirectly mounted to the mounting side wall C via the mounting part D through the rotating shaft J, or it can be directly mounted to the mounting side wall C.

[0182] In some embodiments, a specific implementation of the tapered guide wheel 1012 is provided. For example... Figures 1 to 7 As shown, the conical guide wheel 1012 has a hollow region K, the rotating shaft J passes through the hollow region K, and multiple support walls L are arranged in a ring between the inner wall of the hollow region K and the rotating shaft J.

[0183] Specifically, the conical guide wheel 1012 has a hollow region K, through which the aforementioned rotating shaft J passes. A plurality of support walls L are arranged around the inner wall of the hollow region K and the rotating shaft J to support the side of the guide wheel 1012 that abuts against the mop board 20. This further reduces the material used in the guide wheel 1012 while ensuring that the guide wheel 1012 can provide sufficient support to a certain extent. Furthermore, the multiple support walls L make the guide wheel 1012 less prone to damage when providing support, thus improving the overall reliability of the guide wheel 1012.

[0184] In some embodiments, another specific implementation of the tapered guide wheel 1012 is provided. Figure 8 This is the second schematic diagram of the guide wheel structure in the extrusion module provided by this utility model, as shown below. Figures 1 to 8 As shown, the bottom surface of the conical guide wheel 1012 is circular, and the bottom surface and the side surface form a closed structure.

[0185] Specifically, the bottom surface of the conical guide wheel 1012 is circular, and a closed structure is formed between the bottom surface and the side surface. When the side surface of the conical guide wheel 1012, at least the area near the bottom of the guide wheel 1012, abuts against the top surface of the mop plate 20, the bottom surface of the guide wheel 1012 can also serve as a support plate to provide a certain support force. It can also support and protect the side surface of the guide wheel 1012 from deformation due to force, thereby improving the overall reliability of the guide wheel 1012.

[0186] In some embodiments, another specific implementation of the tapered guide wheel 1012 is provided. For example... Figures 1 to 8 As shown, the rotation axis J is located at the center of the circular bottom surface and protrudes from the bottom surface.

[0187] Specifically, the rotation shaft J of the conical guide wheel 1012 can be located at the center of the circular bottom surface, so that the guide wheel 1012 can provide a stable guiding force to the top surface of the mop plate 20 when rotating, making it easier for the mop plate 20 to move up and down more smoothly in the squeezing port; and the rotation shaft J of the guide wheel 1012 protrudes from the bottom surface, so that the rotation shaft J can be installed in the shaft hole on the mounting side wall C for rotatable connection with the mounting side wall C.

[0188] In some embodiments, another specific implementation of the tapered guide wheel 1012 is provided. For example... Figures 1 to 8 As shown, the side of the conical guide wheel 1012 is equidistant from any point on the generatrix where the side wall B is located, and from the scraping member 1011 located at the opening A. This ensures that when the mop plate 20 is inserted into the squeezing port, the side of the conical guide wheel 1012 abuts against the top surface of the mop plate 20, and when the mop plate 20 moves in the squeezing port, the entire side of the guide wheel 1012 rolls along the top surface of the mop plate 20.

[0189] Specifically, any point on the generatrix where the side of the conical guide wheel 1012 is closest to the side wall B is equidistant from the scraping member 1011 in the opening A. This ensures that when the mop board 20 is inserted into the squeezing port in the opening A, the side of the conical guide wheel 1012 can always effectively abut against the top surface of the mop board 20. Furthermore, when the mop board 20 moves in the squeezing port, the entire side of the guide wheel 1012 rolls along the top surface of the mop board 20, which better guides and supports the mop board 20, effectively improving the cleaning efficiency and cleaning effect of the mop board 20.

[0190] According to another aspect, this utility model provides a mop bucket 10. For example... Figures 1 to 8 As shown, it includes a tank 102 for containing cleaning water and a squeezing module 101 of any of the above embodiments, the squeezing module 101 being disposed at the opening of the tank 102.

[0191] The mop bucket provided by this utility model includes a bucket body 102 and a squeezing module 101. The bucket body 102 is used to hold cleaning water. The squeezing module 101 is provided at the opening of the bucket body 102. The user can hold the mop and insert the mop board 20 into the opening A of the squeezing module 101 until it is submerged in the cleaning water contained in the bucket body 102. The squeezing module 101 is then used to effectively clean the mop board 20. By assembling the squeezing module 101 with the bucket body 102, this application allows the user to wet the mop board 20 using the cleaning water in the bucket body 102, and then directly use the squeezing module 101 to clean and squeeze out the water. This leaves the wastewater inside the bucket body 102, and the cleaned mop board 20 can be directly removed from the bucket body 102. This effectively prevents wastewater from leaking outside the bucket body 102 while cleaning the mop board 20.

[0192] In some embodiments, a specific implementation of the barrel 102 is provided. Figure 9 This is the second structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figures 1 to 9 As shown, the extrusion module 101 is provided with multiple openings A, and the mounting sidewalls C of two adjacent openings A are arranged adjacent to each other. The barrel 102 is provided with multiple partitions 1021, which divide the barrel 102 into multiple chambers. The end of any partition 1021 is located between adjacent mounting sidewalls C of two adjacent openings A.

[0193] Optionally, the partition 1021 can be set as a flat or curved surface, as long as it can provide sufficient space for the cleaning mop, and this application does not limit it.

[0194] Specifically, since the squeezing module 101 is provided with multiple openings A for cleaning the mop board 20, and the mounting sidewalls C of two adjacent openings A are adjacent, the present application provides multiple partitions 1021 inside the bucket 102. The multiple partitions 1021 can divide the bucket 102 into multiple chambers. The end of any partition 1021 is located between the adjacent mounting sidewalls C of two adjacent openings A, so that the multiple chambers correspond to the multiple openings A on the squeezing module 101, so that a mop bucket 10 is provided with multiple independent chambers for cleaning, which makes it convenient for users to use some chambers to clean the mop board 20 and use other chambers to squeeze and dehydrate the mop board 20, making it more flexible to use.

[0195] In some embodiments, another specific implementation of the mop bucket is provided. (See references.) Figure 9 In the case where the extrusion module 101 has four openings A, in this embodiment of the application, the extrusion module 101 has two openings A, and the mounting sidewalls C of the two openings A are adjacent to each other. Therefore, the extrusion module 101 of this embodiment can be considered as... Figure 9 One of the parts of the rectangular extrusion module 101 after being split along the diagonal; The barrel 102 is a triangular prism. A partition 1021 is provided inside the triangular prism barrel 102 along one of its edges to the side wall corresponding to the edge. The end of the partition 1021 is located between the adjacent mounting side walls C of the two openings A.

[0196] Specifically, the extrusion module 101 is provided with two openings A, and the mounting sidewalls C of the two openings A are arranged adjacent to each other. Correspondingly, the barrel 102 is set in the shape of a triangular prism. A partition 1021 is provided inside the triangular prism barrel 102 along one of its edges to the sidewall corresponding to that edge. The end of the partition 1021 is located between the adjacent mounting sidewalls C of the two openings A, so as to divide the area inside the barrel 102 into two small triangular prisms. These two small triangular prism barrels 102 correspond to the two openings A on the extrusion module 101, respectively, to form two independent chambers for cleaning, so that the user can flexibly allocate these two independent chambers to perform the same or different cleaning tasks.

[0197] In some embodiments, another specific implementation of the mop bucket 10 is provided. For example... Figures 1 to 9 As shown, the extrusion module 101 is provided with four openings A, and the mounting sidewalls C of the four openings A are arranged adjacent to each other in sequence. The barrel 102 is a quadrangular prism. Four partitions 1021 are provided along the inner edge of the quadrangular prism barrel 102 to the center of the barrel 102. The four partitions 1021 intersect at the center of the barrel 102. The end of each partition 1021 is located between two adjacent mounting sidewalls C of two adjacent openings A.

[0198] Specifically, the extrusion module 101 is provided with four openings A, and the mounting sidewalls C of the four openings A are arranged adjacent to each other in sequence. Correspondingly, the barrel 102 is set in a quadrangular prism shape. Four partitions 1021 are arranged along the edges to the center of the barrel 102. The four partitions 1021 intersect at the center of the barrel 102. The end of each partition 1021 is located between the adjacent mounting sidewalls C of two adjacent openings A, so as to divide the area inside the barrel 102 into four small triangular prisms. These four small triangular prism barrels 102 correspond to the four openings A on the extrusion module 101, so as to form four independent chambers for cleaning. This allows the user to flexibly allocate these four independent chambers to perform the same or different cleaning tasks. The above separation method is simple and easy to implement, and the size of the separated chambers is moderate, which is convenient for mop cleaning.

[0199] In some embodiments, another specific implementation of the mop bucket 10 is provided. Figure 10 This is the third structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figures 1 to 10 As shown, integrally formed raised blocks 1022 are provided on both sides of the partition 1021, which are located in two adjacent chambers respectively.

[0200] Specifically, the partition 1021 has integrally formed raising blocks 1022 on both sides, located in two adjacent chambers. The raising blocks 1022 can elevate the mop board 20 when it is inserted into the bucket 102 and near the bottom, so as to prevent the residual sewage at the bottom of the bucket 102 from contaminating the mop board again. Moreover, it can keep the end of the mop board 20 in the squeezing port of the squeezing module 101, so that the mop board 20 is not completely inserted into the bucket 102, which would make it difficult to align the mop board 20 with the squeezing port and remove it smoothly from the mop bucket 10. By setting the raising blocks 1022, this application keeps at least a part of the mop board 20 in the squeezing port of the squeezing module 101, which makes it easier for the user to remove the mop board 20 from the mop bucket 10 and improves the user experience.

[0201] In some embodiments, a specific implementation of the mop bucket 10 assembly is provided. Figure 11 This is the fourth structural schematic diagram of the extrusion module provided by this utility model, as shown below. Figures 1 to 11 As shown, an insertion groove M is formed between the adjacent mounting sidewalls C of two adjacent openings A, and the end of the partition 1021 extends into the insertion groove M.

[0202] Specifically, an insertion groove M is formed between the adjacent mounting sidewalls C of two adjacent openings A on the extrusion module 101. The end of the partition plate 1021 can extend into the insertion groove M, making the assembly between the extrusion module 101 and the barrel 102 more seamless, thereby making the chambers corresponding to different openings A more independent and reducing the mutual influence between different chambers.

[0203] In some embodiments, a specific implementation of the drainage mechanism in the mop bucket 10 is provided. Figure 12 This is the fourth structural schematic diagram of the mop bucket provided by this utility model. Figure 13 This is a schematic diagram of the bottom structure of the mop bucket provided by this utility model, as shown below. Figures 1 to 13 As shown, a drain outlet 1023 is provided at the bottom of the bucket body 102, and a drain plug N is provided in the drain outlet 1023. An operating part 103 and a transmission assembly 104 are movably provided in the mop bucket 10. The operating part 103 is connected to the transmission assembly 104, and the transmission assembly 104 is connected to the drain plug N. The operating unit 103 is driven to move, which in turn drives the transmission assembly 104 to move. The movement of the transmission assembly 104 drives the drain plug N to move relative to the drain outlet 1023, thereby opening or closing the drain outlet 1023.

[0204] Specifically, a drain outlet 1023 is provided at the bottom of the bucket 102, and a drain plug N is provided in the drain outlet 1023. When the drain plug N is in the drain outlet 1023, the bucket 102 can contain cleaning water, sewage, etc. When the drain plug N is removed from the drain outlet 1023, the cleaning water, sewage, etc contained in the bucket 102 will be discharged through the drain outlet 1023. The mop bucket 10 of this application is movably provided with an operating part 103 and a transmission component 104, which are connected by transmission, and the transmission component 104 is connected to the drain plug N. In actual use, the operating part 103 is driven to move, which will drive the transmission component 104 to move, and then drive the drain plug N to move relative to the drain outlet 1023 to open or close the drain outlet 1023. The user can indirectly open or close the drain outlet 1023 through the operating part 103, without having to manually open or close the drain outlet 1023 directly, which would cause the user to come into contact with the liquid or sewage in the bucket 102, thus improving the user experience.

[0205] In some embodiments, a specific implementation of the drainage mechanism is provided. For example... Figures 1 to 13 As shown, the operating part 103 is movably disposed on the extrusion module 101, and the transmission component 104 passes through the barrel 102, with one end connected to the operating part 103 and the other end connected to the drain plug N.

[0206] Specifically, the operating part 103 is movably disposed in the extrusion module 101 for easy direct operation by the user, and the transmission component 104 is inserted into the barrel 102, with one end connected to the operating part 103 and the other end connected to the drain plug N. Therefore, the user can indirectly open or close the drain outlet 1023 provided in the barrel 102 by driving the operating part 103 on the extrusion module 101 through the transmission component 104, which is convenient to use.

[0207] In some embodiments, another specific implementation of the drainage mechanism is provided. For example... Figures 1 to 13 As shown, the operating part 103 is rotatably disposed on the extrusion module 101. The operating part 103 is driven to rotate, which drives the transmission component 104 to move. The movement of the transmission component 104 drives the drain plug N to move relative to the drain outlet 1023, so as to open or close the drain outlet 1023.

[0208] Specifically, the user can rotate the operating part 103 on the extrusion module 101 to drive the transmission component 104 to move, thereby driving the drain plug N to move relative to the drain outlet 1023 to open or close the drain outlet 1023. The rotation method is convenient for the user to operate, and the operating part 103 is unlikely to be driven to rotate on its own due to factors such as gravity, thus ensuring the stability of the drainage mechanism.

[0209] In some embodiments, a specific implementation of the setting operation unit 103 is provided. Figure 14 This is the fifth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figures 1 to 14 As shown, the extrusion module 101 is provided with a through hole, one end of the operation part 103 protrudes from the top of the extrusion module 101, and the other end extends into the barrel 102 through the through hole and is connected to the transmission assembly 104 for transmission.

[0210] Specifically, a through hole is provided on the extrusion module 101, and one end of the operating part 103 protrudes from the top of the extrusion module 101, making it easy for the user to hold and rotate the operating part 103. The other end of the operating part 103 extends into the barrel 102 through the through hole and is connected to the transmission component 104 to indirectly drive the drain plug N to move. The assembly structure is simple and easy for the user to use.

[0211] In some embodiments, another specific implementation of the setting operation unit 103 is provided. Figure 15 This is a schematic diagram of the connection structure between the knob and the rotating part in the mop bucket provided by this utility model, as shown in the figure. Figures 1 to 15 As shown, the operation unit 103 includes a knob 1031 and a rotating component 1032, the rotating component 1032 being disposed on the side of the extrusion module 101 near the barrel 102; The knob 1031 protrudes from the top of the extrusion module 101, and one end near the barrel 102 passes through the through hole and is circumferentially locked to the rotating component 1032; the rotating component 1032 is connected to the transmission assembly 104 for transmission. The knob 1031 is driven to rotate, which in turn drives the rotating component 1032 to rotate. The rotation of the rotating component 1032 drives the transmission assembly 104 to move. The movement of the transmission assembly 104 drives the drain plug N to move relative to the drain outlet 1023, so as to open or close the drain outlet 1023.

[0212] Specifically, the operating unit 103 includes a knob 1031 and a rotating component 1032. The knob 1031 protrudes from the top of the extrusion module 101, and one end near the barrel 102 passes through a through hole and is circumferentially locked to the rotating component 1032. This allows the user to rotate the rotating component 1032 by holding and rotating the knob 1031. The rotating component 1032 is connected to the transmission assembly 104, so the rotation of the rotating component 1032 will drive the transmission assembly 1032 to move, thereby driving the drain plug N to move relative to the drain outlet 1023. The entire drainage mechanism has a simple structure and allows the user to indirectly drive the drain plug N to move through the knob 1031, improving the user experience.

[0213] For example, such as Figure 15 As shown, the knob 1031 and the rotating part 1032 are circumferentially limited and engaged, for example, by a fixed connection through the engagement structure shown in the figure.

[0214] In some embodiments, a specific implementation is provided for assembling the rotating member 1032 with the transmission assembly 104. For example... Figures 1 to 15 As shown, one of the rotating component 1032 and the transmission assembly 104 is provided with a slanted groove P, and the other is provided with a sliding block Q. The sliding block Q is inserted into the slanted groove P and slides in the slanted groove P. Rotating component 1032 rotates, sliding block Q slides along inclined groove P, and drives transmission component 104 to move linearly. The linear movement of transmission component 104 drives drain plug N to move relative to drain outlet 1023, so as to open or close drain outlet 1023.

[0215] It should be noted that the above Figure 14 The example shown is that the rotating component 1032 is provided with a sliding block Q and the transmission assembly 104 is provided with a slanted groove P.

[0216] For example, depending on the positions of the inclined groove P and the sliding block Q, the following two cases can be distinguished: In scenario 1, when the inclined groove P is set on the rotating member 1032 and the sliding block Q is set on the transmission assembly 104, when the rotating member 1032 in the operating part 103 rotates, it will drive the inclined groove P on the rotating member 1032 to rotate relative to it. Assuming that the inclined groove P is set to form a sliding area by spiraling upward or downward along the outer circumference of the rotating member 1032, the sliding block Q can slide within the sliding area. The upward or downward spiraling sliding area combined with the rotation of the inclined groove P will cause the sliding block Q to move up and down, thereby driving the transmission assembly 104 to move up and down, so as to drive the drain plug N to move up and down.

[0217] In scenario 2, when the inclined groove P is set on the transmission assembly 104 and the sliding block Q is set on the rotating member 1032, when the rotating member 1032 in the operating part 103 rotates, it will drive the sliding block Q on the rotating member 1032 to rotate relative to each other. Assuming that the inclined groove P is set to form a sliding area by spiraling upward or downward along the outer periphery of the transmission assembly 104, the sliding block Q can slide within the sliding area. The upward or downward spiral forming of the sliding area, combined with the rotation of the sliding block Q, will cause the transmission assembly 104 to move up and down, thereby driving the drain plug N to move up and down.

[0218] In this embodiment, one of the rotating member 1032 and the transmission assembly 104 is provided with a groove P, and the other is provided with a sliding block Q. After the sliding block Q is inserted into the groove P, it will slide along the groove P. In actual use, the user drives the knob 1031 to drive the rotating member 1032 to rotate, which will drive the sliding block Q to slide along the groove P, thereby driving the transmission assembly 104 to move in a straight line, so as to drive the drain plug N to move relative to the drain outlet 1023. Through the cooperative design of the sliding block Q and the groove P, this application enables the transmission assembly 104 to move in a straight line when the rotating member 1032 rotates, which makes it easy to control the direction of the drain plug N relative to the drain outlet 1023, thereby helping to effectively open or close the drain outlet 1023. The cooperative structure is simple and easy to operate.

[0219] In some embodiments, a specific implementation of setting the skewed slot P is provided. For example... Figures 1 to 15 As shown, both ends of the inclined groove P are provided with limiting grooves R; when the sliding block Q slides along the inclined groove P to the end of the inclined groove P and is limited to the limiting groove R at the end, the drain plug N remains in the current position, so that the drain outlet 1023 is kept in the open or closed state.

[0220] Specifically, both ends of the inclined groove P are provided with limiting grooves R. When the sliding block Q slides along a certain direction of the inclined groove P to the end of the inclined groove P and is limited to the limiting groove R at the end, the sliding block Q will stay in the limiting groove R. At this time, the sliding block Q is not easy to slide, so the drain plug N can be temporarily kept in the current position, so that the drain outlet 1023 is kept in the open or closed state to drain the cleaning water in the bucket 102, or to allow the bucket 102 to contain the cleaning water for cleaning the mop board 20. The design of the limiting groove R allows the drain outlet 1023 to be kept in the open or closed state relatively stably when the user operates the drain mechanism, which helps the sewage to be discharged quickly and also helps the bucket 102 to better contain the cleaning water, avoiding the phenomenon of water leakage in the bucket 102 due to the sliding of the sliding block Q when cleaning the mop board 20.

[0221] Optionally, a limiting groove R can be provided only at one end of the inclined groove P, so that the drain outlet 1023 can be maintained in either an open or closed state by limiting it.

[0222] In some embodiments, another specific implementation is provided for assembling the rotating member 1032 with the transmission assembly 104. For example... Figures 1 to 15 As shown, the rotating member 1032 has a mounting arm S extending away from the extrusion module 101, a sliding block Q is disposed at the end of the mounting arm S, and a slant P is disposed in the transmission assembly 104.

[0223] Specifically, the rotating component 1032 has a mounting arm S extending away from the extrusion module 101, and a sliding block Q is disposed at the end of the mounting arm S. Correspondingly, a slant P is disposed on the transmission assembly 104. This arrangement makes the overall size of the rotating component 1032 relatively small, while the larger slant P is disposed on the transmission assembly 104 which is normally disposed inside the barrel 102.

[0224] In some embodiments, another specific implementation of setting the skew groove P is provided. For example... Figures 1 to 15 As shown, the inclined groove P is disposed on the outer peripheral surface of the transmission assembly 104.

[0225] Specifically, the inclined groove P is set on the outer peripheral surface of the transmission assembly 104. The rotating component 1032 drives the sliding block Q to slide in the inclined groove P on the outer peripheral surface of the transmission assembly 104, which can drive the transmission assembly 104 to move linearly in the direction away from or close to the extrusion module 101, thereby causing the drain plug N to be dislodged from the drain port 1023, or to be inserted into the drain port 1023. The operation is simple and easy to implement.

[0226] In some embodiments, another specific implementation is provided for assembling the rotating member 1032 with the transmission assembly 104. Figure 16 This is the sixth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figures 1 to 16 As shown, one of the rotating component 1032 and the transmission assembly 104 is provided with an inclined surface T, and the other is provided with an abutment block U; Rotating component 1032 rotates, abutting block U slides along inclined plane T, and drives transmission component 104 to move linearly. The linear movement of transmission component 104 drives drain plug N to move relative to drain port 1023, so as to open or close drain port 1023.

[0227] It should be noted that, Figure 16 The example shown is that the rotating component 1032 is provided with an abutment block U and the transmission component 104 is provided with an inclined surface T.

[0228] Specifically, one of the rotating member 1032 and the transmission assembly 104 is provided with an inclined surface T, and the other is provided with an abutment block U. When the rotating member 1032 rotates, the abutment block U slides along the inclined surface T, which in turn drives the transmission assembly 104 to move in a straight line, thereby causing the drain plug N to move relative to the drain outlet 1023 to open or close the drain outlet 1023. Through the cooperative design of the inclined surface T and the abutment block U, this application enables the transmission assembly 104 to move in a straight line when the rotating member 1032 rotates, which facilitates the control of the direction of the drain plug N relative to the drain outlet 1023, thereby helping to effectively open or close the drain outlet 1023. The cooperative structure is simple and easy to operate.

[0229] In some embodiments, a specific implementation of the drainage mechanism is provided. For example... Figures 1 to 16 As shown, the drain outlet 1023 is located on the bottom surface of the barrel 102, and the end of the transmission assembly 104 is fixedly connected to the drain plug N. The rotating component 1032 rotates, causing the transmission assembly 104 to move up and down along the depth direction of the barrel 102; The transmission assembly 104 moves upward, causing the drain plug N to move in the same direction to open the drain outlet 1023; the transmission assembly 104 moves downward, causing the drain plug N to move in the same direction to close the drain outlet 1023.

[0230] Specifically, the drain outlet 1023 is located on the bottom surface of the bucket 102. The end of the transmission component 104 is fixedly connected to the drain plug N to effectively drive the drain plug N to move, thereby opening or closing the drain outlet 1023. In actual use, the user drives the rotating component 1032 to rotate, which will drive the transmission component 104 to move up and down along the depth direction of the bucket 102, and thus drive the drain plug N to move up and down synchronously. When the drain plug N is driven to move upward, the drain plug N will disengage from the drain outlet 1023 at the bottom of the bucket 102 to open the drain outlet 1023. When the drain plug N is driven to move downward, the drain plug N will gradually insert into the drain outlet 1023 at the bottom of the bucket 102 to close the drain outlet 1023. The drainage mechanism is simple and easy to operate, and the transmission mechanism 104 and the drain plug N do not easily affect the cleaning space reserved for the mop board 20 inside the bucket 102 when they move up and down.

[0231] In some embodiments, a specific implementation of the transmission assembly 104 is provided. For example... Figures 1 to 16 As shown, the transmission assembly 104 includes a mating part 1041 and a connecting rod 1042. One end of the connecting rod 1042 is fixedly connected to the mating part 1041, and the other end is fixedly connected to the drain plug N. The mating part 1041 is connected to the operating part 103 in a transmission manner. One of the rotating part 1032 and the mating part 1041 is provided with a slanted groove P, and the other is provided with a sliding block Q. The sliding block Q is inserted into the slanted groove P and slides in fit with the slanted groove P.

[0232] Optionally, the aforementioned connecting rod 1042 can be formed by connecting multiple connecting rod segments.

[0233] Specifically, the transmission assembly 104 includes a mating part 1041 and a connecting rod 1042. One end of the connecting rod 1042 is fixedly connected to the mating part 1041, and the other end is fixedly connected to the drain plug N to drive the drain plug N to move. The mating part 1041 is connected to the operating part 103 for transmission. Specifically, one of the rotating parts 1032 of the operating part 103 and the mating part 1041 are provided with a groove P, and the other is provided with a sliding block Q. By inserting the sliding block Q into the groove P and slidingly engaging with the groove P, the rotating part 1032 will engage with the mating part 1041 for transmission when rotating, thereby driving the connecting rod 1042 to move within the barrel 102, and thus driving the drain plug N to move. The mating structure is simple and easy to implement.

[0234] In some embodiments, another specific implementation of the drainage mechanism is provided. For example... Figures 1 to 16 As shown, the drain outlet 1023 is located on the bottom surface of the barrel 102, and the end of the transmission assembly 104 is fixedly connected to the drain plug N; The operating unit 103 is driven to move, causing the transmission assembly 104 to move up and down along the depth direction of the barrel 102; the upward movement of the transmission assembly 104 causes the drain plug N to move in the same direction to open the drain outlet 1023; the downward movement of the transmission assembly 104 causes the drain plug N to move in the same direction to close the drain outlet 1023.

[0235] Specifically, the drain outlet 1023 is located on the bottom surface of the bucket 102, and the end of the transmission component 104 is fixedly connected to the drain plug N to effectively drive the drain plug N to move, thereby opening or closing the drain outlet 1023. In actual use, when the user drives the operating part 103 to rotate, it will drive the transmission component 104 to move up and down along the depth direction of the bucket 102, which will in turn drive the drain plug N to move up and down synchronously. When the drain plug N is driven to move upward, the drain plug N will disengage from the drain outlet 1023 at the bottom of the bucket 102 to open the drain outlet 1023. When the drain plug N is driven to move downward, the drain plug N will gradually insert into the drain outlet 1023 at the bottom of the bucket 102 to close the drain outlet 1023. The drainage mechanism is simple and easy to operate, and the transmission mechanism 104 and the drain plug N do not easily affect the cleaning space reserved for the mop board 20 inside the bucket 102 when they move up and down.

[0236] In some embodiments, another specific implementation of the transmission assembly 104 is provided. For example... Figures 1 to 16 As shown, the transmission assembly 104 has a mating part 1041 and a connecting rod 1042. One end of the connecting rod 1042 is fixedly connected to the mating part 1041, and the other end is fixedly connected to the drain plug N. The mating part 1041 is connected to the operating part 103 in a transmission connection. The operating part 103 is driven to move, causing the mating part 1041 to move up and down along the depth direction of the barrel 102. The mating part 1041 drives the drain plug N to move up and down through the connecting rod 1042.

[0237] Specifically, the transmission assembly 104 includes a mating part 1041 and a connecting rod 1042. One end of the connecting rod 1042 is fixedly connected to the mating part 1041, and the other end is fixedly connected to the drain plug N to drive the drain plug N to move. The mating part 1041 is connected to the operating part 1042. Specifically, when the operating part 103 is driven to move, it will drive the mating part 1041 to move up and down along the depth direction of the barrel 102, thereby driving the connecting rod 1042 and indirectly driving the drain plug N to move up and down. The transmission assembly 104 has a simple structure and can effectively transmit power, driving the drain plug N to move up and down.

[0238] In some embodiments, another specific implementation of the mop bucket 10 is provided. For example... Figures 1 to 16 As shown, the mop bucket 10 also includes a reset member 105, which is disposed between the operation part 103 and the squeezing module 101, or between the operation part 103 and the transmission assembly 104, or between the transmission assembly 104 and the bucket body 102. When the operating unit 103 is driven to move, it drives the transmission assembly 104 to move, which in turn drives the drain plug N to move to open or close the drain outlet 1023, the reset member 105 stores force; when the reset member 105 releases force, it drives the drain plug N to move and reset, and drives the operating unit 103 and the transmission assembly 104 to reset.

[0239] Specifically, the mop bucket 10 may also include a reset member 105. After the user drives the operating unit 103 to rotate and drive the drainage mechanism to move, the reset member 105 stores force. If the operating unit 103 stops being driven, the reset member 105 releases force and can drive the operating unit 103 and the drainage mechanism to reset. For example, if the position of the drainage mechanism when the drain outlet 1023 is closed is set as the normal setting position, then when the user drives the operating unit 103 to drive the drainage mechanism to open the drain outlet 1023, if the operating unit 103 stops being driven, the reset member 105 will drive the operating unit 103 and the drainage mechanism to reset to the normal setting position. The normal setting position can be restored without the user's additional operation, making it convenient for the user to directly use the normal setting position of the mop bucket 10 to clean the mop next time, thus improving the user experience.

[0240] In some embodiments, a specific implementation of the reset element 105 is provided. Figure 17 This is the seventh structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figures 1 to 17 As shown, the reset member 105 is a spring disposed between the operating part 103 and the extrusion module 101, or between the operating part 103 and the transmission assembly 104, or between the transmission assembly 104 and the barrel 102. When the operating unit 103 is driven to move, it drives the transmission assembly 104 to move, which in turn drives the drain plug N to move away from the drain outlet 1023 to open the drain outlet 1023. At this time, the reset member 105 stores force. When the reset member 105 releases force, it drives the drain plug N to move closer to the drain outlet 1023 to close the drain outlet 1023, and drives the operating unit 103 and the transmission assembly 104 to reset.

[0241] It should be noted that, Figure 16 and Figure 17 The number of springs shown differs. Figure 16 In this example, one spring is used, and this spring is positioned between the operating part 103 and the transmission assembly 104; Figure 17 In the example shown, four springs are used, and all four springs are arranged between the transmission assembly 104 and the barrel 102. The barrel 102 is not shown at this time.

[0242] Specifically, the reset element 105 can be a spring disposed between the operating part 103 and the extrusion module 101, or between the operating part 103 and the transmission assembly 104, or between the transmission assembly 104 and the barrel 102. In actual use, when the operating part 103 is driven to move, it drives the transmission assembly 104 to move, which in turn drives the drain plug N to move away from the drain outlet 1023 to open the drain outlet 1023. The spring is compressed and stores force. When the operating part 103 stops being driven, the spring releases force and drives the drain plug N to move closer to the drain outlet 1023 to close the drain outlet 1023. This resets the operating part 103 and the transmission assembly 104 so that the user can use it again. Using a spring as the reset element 105 is simple and feasible, and the required cost is low to add the reset function.

[0243] In some embodiments, another specific implementation of the reset element 105 is provided. Figure 18 This is the eighth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figures 1 to 18 As shown, the reset component 105 is an elastic rope disposed between the transmission assembly 104 and the barrel 102; When the operating unit 103 is driven to move, it drives the transmission assembly 104 to move, which in turn drives the drain plug N to move closer to the drain outlet 1023 to close the drain outlet 1023. At this time, the reset member 105 stores force. When the reset member 105 releases force, it drives the drain plug N to move away from the drain outlet 1023 to open the drain outlet 1023, and drives the operating unit 103 and the transmission assembly 104 to reset.

[0244] It should be noted that, Figure 18 In this example, one elastic rope is used, and the elastic rope is set between the transmission component 104 and the barrel 102. However, multiple elastic ropes can also be set. This application does not impose any restrictions.

[0245] Specifically, the reset element 105 can be an elastic rope disposed between the transmission assembly 104 and the barrel 102. In actual use, when the operating part 103 is driven to move, the transmission assembly 104 moves, which in turn moves the drain plug N toward the drain outlet 1023 to close the drain outlet 1023, the elastic rope is stretched and stores energy. When the operating part 103 stops being driven, the elastic rope releases the force and moves the drain plug N away from the drain outlet 1023 to open the drain outlet 1023, and resets the operating part 103 and the transmission assembly 104 so that the user can use it again. Using an elastic rope as the reset element 105 is simple and feasible, and the required cost is low to add the reset function.

[0246] In some embodiments, a specific implementation of the barrel 102 is provided. For example... Figures 1 to 18As shown, the barrel 102 is divided into multiple chambers by a partition 1021. Each chamber has a drain outlet 1023 at the bottom, and each drain outlet 1023 is equipped with a drain plug N. The transmission assembly 104 is connected to multiple drain plugs N respectively; the operating part 103 is driven to move, which drives the transmission assembly 104 to move, and the movement of the transmission assembly 104 drives the multiple drain plugs N to move, so as to simultaneously open or close multiple drain ports 1023.

[0247] Specifically, the bucket body 102 is divided into multiple chambers by a partition 1021. Each chamber has a drain outlet 1023 at its bottom, and each drain outlet 1023 has a drain plug N. The transmission component 104 can be connected to each of these drain plugs N. The multiple chambers can independently clean the mop board 20. In actual use, the operating part 103 is driven to move, which will drive the transmission component 104 to move, and then drive the multiple drain plugs N to move synchronously, so as to open or close multiple drain outlets 1023 at the same time, realize the synchronous drainage of multiple chambers, improve the opening or closing efficiency of multiple drain outlets 1023, and provide a better user experience.

[0248] According to another aspect, this utility model provides a mop. For example... Figures 1 to 18 As shown, the mop includes a mop handle 30, a mop plate 20 hinged to the end of the mop handle 30, and a squeezing module 101 of any of the above embodiments movably disposed on the mop handle 30.

[0249] Specifically, the squeezing module 101 can be installed on the mop. Specifically, the squeezing module 101 can be sleeved on the mop handle 30 and slide along the axial direction of the mop handle 30 so that the mop plate 20 can enter the opening A of the squeezing module 101 for cleaning. It is convenient to use and has a good cleaning effect.

[0250] The following examples illustrate the extrusion module, mop bucket, and mop provided in the embodiments of this application.

[0251] There are two types of extrusion nozzles in the relevant technologies: one is a convex-shaped extrusion nozzle and the other is a rectangular extrusion nozzle. Both types of extrusion nozzles are either complex in structure and costly, or have a large overall opening, which can easily lead to sewage splashing out.

[0252] In response, this application provides an opening structure. The opening has a scraper on its sidewall and two mounting sidewalls on its adjacent sides. The two mounting sidewalls extend from both ends of the scraper away from the scraper and move closer to each other until they intersect, forming a triangular opening. The two mounting sidewalls are provided with abutment parts (e.g., abutment guide wheels), which form a squeezing opening between the abutment parts and the scraper for cleaning the wiping material on the mop board.

[0253] Furthermore, a mounting part is snapped onto the mounting side wall, and a guide wheel is provided on the mounting part.

[0254] Optionally, the squeezing module of the mop bucket is provided with two openings, which share a mounting sidewall. The mounting sidewall is provided with a mounting part having two mounting sub-frames, and the two mounting sub-frames are provided with abutting guide wheels that extend into the two openings respectively.

[0255] Optionally, the mop bucket may include a triangular bucket body with a triangular opening at the top. A partition is provided between the apex and the bottom of the triangular opening, dividing the triangular opening into two triangular openings to form two squeezing ports.

[0256] Optionally, the mop bucket can be configured to include a square bucket body, with a square opening at the top. Four partitions are provided at the top corners of the square opening, extending towards the center. The four partitions divide the square opening into four triangular openings, forming four squeezing ports.

[0257] It should be noted that the scraper installed in the extrusion port is detachably connected to the side wall of the opening.

[0258] On the other hand, regarding the drainage mechanism of the mop bucket, the drain outlet is located on the bottom surface, and an operating part is located on the top surface. This operating part is movably connected to the drain plug. Users can open or close the drain outlet by driving the drain plug through the operating part on the top surface, improving the convenience of opening the drain outlet and providing a better user experience. The following solutions are mainly available: 1) Option 1: The operating unit includes a knob, which engages with a rotating component and drives the rotating component to rotate. A sliding block is located at the end of the rotating component, and the sliding block is slidably connected to an inclined groove (i.e., the aforementioned inclined groove) on the rotating component. When the user drives the knob to rotate, the sliding block slides along the inclined groove of the rotating component, causing the rotating component to rise or fall. The rotating component is connected to a transmission mechanism, which is connected to a drain plug. When the rotating component rises, it causes the drain plug to move upwards to open the drain outlet; when the rotating component falls, it causes the drain plug to move downwards to close the drain outlet.

[0259] 2) Option 2: The knob and the rotating part are connected by a spring (e.g., a tension spring). The tension spring always applies a force to the rotating part, bringing it closer to the knob. When the knob rotates in the forward direction, the abutment post slides along the abutment slope, pressing the rotating part down and causing the drain plug to move down, thus closing the drain outlet. When the knob rotates in the reverse direction, the tension spring pulls the rotating part up, causing the drain plug to move up, thus opening the drain outlet.

[0260] 3) Option 3: The spring is positioned between the transmission mechanism and the bottom of the barrel, constantly applying an upward force to the transmission mechanism. When the knob is rotated clockwise, the abutment block on the transmission mechanism slides along the abutment slope, pressing the rotating part downward, which in turn moves the drain plug downward, closing the drain outlet; when the knob is rotated counterclockwise, the spring moves the transmission mechanism upward, which in turn moves the drain plug upward, opening the drain outlet.

[0261] 4) Option 4: Install elastic ribs (e.g., elastic ropes) between the transmission mechanism and the barrel body. The elastic ribs always exert an upward force on the transmission mechanism.

[0262] On the other hand, for the drainage of a mop bucket with multiple drain outlets, the mop bucket is provided with multiple inner cavities, each inner cavity is provided with at least one drain outlet, and the multiple drain outlets are connected to the operating unit through a transmission component. The user can drive the operating unit to open or close the multiple drain outlets at the same time, which improves the opening or closing efficiency of the multiple drain outlets and provides a better user experience.

[0263] Specifically, the bottom of the mop bucket is provided with four drain outlets, which correspond to the four inner cavities inside the bucket. The four drain outlets correspond to four drain plugs, and the four drain plugs are connected to the rotating parts through four transmission mechanisms.

[0264] The operating part is a knob, which engages with a rotating component and drives the component to rotate. A sliding block is located at the end of the rotating component, and this sliding block is slidably connected to an inclined groove on the rotating component. When the user drives the knob to rotate, the sliding block slides along the inclined groove of the rotating component, causing the rotating component to rise or fall. When the rotating component rises, it moves four transmission mechanisms upwards, which in turn moves four drain plugs upwards, opening the four drain outlets; when the rotating component falls, it moves four transmission mechanisms downwards, which in turn moves four drain plugs downwards, closing the four drain outlets.

[0265] On the other hand, traditional guide wheels are tire-shaped. After the mop board is inserted into the squeezing port, the entire outer circumference of the guide wheel abuts against the top surface of the mop board. However, in reality, it is only necessary for the guide wheels on both sides of the squeezing port to abut against the top surface of the mop board to provide symmetrical support to the mop board. The wider the outer circumference of the guide wheel, the greater the manufacturing cost.

[0266] Simply reducing the outer circumference of the guide wheel, i.e. making the guide wheel narrower, can easily cause the guide wheel to deform when it comes into contact with the mop board.

[0267] In response, this application provides a conical abutment wheel and an extrusion module, a mop, and a mop bucket equipped with the guide wheel. The outer circumferential surface of the guide wheel is conical, with a rotating shaft at the apex and a rotating shaft at the center of the bottom surface. The guide wheel is rotatably mounted to the opening of the extrusion module via the two rotating shafts. When the mop plate is inserted into the opening, the outer circumference with the largest diameter of the conical surface abuts against the top surface of the mop plate. Due to the support of the remaining conical surfaces, the abutment guide wheel is not easily deformed, and the material used for the abutment guide wheel is greatly reduced, thus reducing manufacturing costs.

[0268] 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, the opening having a setting sidewall and two mounting sidewalls respectively arranged adjacent to the setting sidewall, the two mounting sidewalls extending away from the setting sidewall, and the two mounting sidewalls approaching each other until they intersect in the direction away from the setting sidewall; A scraping member is provided on the side of the opening near the side wall of the device. The scraping member is used to scrape and / or squeeze the wiping material of the mop board inserted into the opening.

2. The extrusion module according to claim 1, characterized in that, Both the mounting sidewall and the setting sidewall are planar, and the setting sidewall and the two mounting sidewalls form a triangular opening.

3. The extrusion module according to claim 1, characterized in that, The setting sidewall is a plane, and the mounting sidewall is an arc-shaped surface that curves away from or towards the setting sidewall.

4. The extrusion module according to claim 1, characterized in that, The setting sidewall is an arc-shaped surface that curves away from the mounting sidewall, the mounting sidewall is a plane, and the setting sidewall and the two mounting sidewalls form a fan-shaped opening.

5. The extrusion module according to any one of claims 1 to 4, characterized in that, The extrusion module is provided with at least two openings, and the mounting sidewalls of the two adjacent openings are arranged adjacent to each other.

6. The extrusion module according to claim 5, characterized in that, The extrusion module has four openings, each of which is triangular, and the four openings enclose a rectangular opening area.

7. The extrusion module according to claim 6, characterized in that, The four sides of the rectangular opening area correspond to the sidewalls of each opening.

8. The extrusion module according to claim 5, characterized in that, The extrusion module is provided with two openings, each of which is triangular, and the two openings enclose a triangular opening area.

9. The extrusion module according to claim 8, characterized in that, The base of the triangular opening area corresponds to the mounting sidewall of the two openings, and the two sides correspond to the setting sidewall of the two openings respectively.

10. The extrusion module according to claim 5, characterized in that, The shapes of the at least two openings are either exactly the same or not exactly the same.

11. The extrusion module according to any one of claims 1 to 4, 6 to 10, characterized in that, The mop board has the wiping material on its bottom surface; The mounting sidewall is provided with abutment, and a squeezing opening is formed between the abutment and the scraping component. When the mop board is inserted into the squeezing opening, the abutment abuts against the top surface of the mop board.

12. The extrusion module according to claim 11, characterized in that, The abutment part includes a guide wheel, which is rotatably mounted on the mounting side wall. When the mop plate is inserted into the squeezing port, the guide wheel abuts against the top surface of the mop plate, and when the mop plate moves in the squeezing port, the guide wheel rotates under the drive of the mop plate.

13. The extrusion module according to claim 12, characterized in that, The mounting sidewall is provided with a mounting part, and the guide wheel is rotatably mounted on the mounting part.

14. The extrusion module according to claim 13, characterized in that, The mounting part is detachably connected to the mounting sidewall.

15. The extrusion module according to claim 14, characterized in that, The mounting sidewall is provided with a mounting groove, and at least a portion of the mounting part is accommodated in the mounting groove.

16. The extrusion module according to claim 15, characterized in that, The bottom of the mounting sidewall is recessed to form the mounting groove, and the area of ​​the mounting sidewall near the bottom of the mounting groove is provided with a snap-fit ​​groove or snap-fit ​​hole; The end of the mounting part is provided with a snap-fit ​​block, and the mounting part is inserted into the mounting groove from the bottom of the mounting side wall until the snap-fit ​​block engages with the snap-fit ​​groove or snap-fit ​​hole.

17. The extrusion module according to any one of claims 13 to 16, characterized in that, The mounting part is provided with a mounting sub-frame on the side near the mounting sidewall, and the guide wheel is detachably mounted on the mounting sub-frame.

18. The extrusion module according to claim 17, characterized in that, The extrusion module is provided with two openings, and the mounting sidewalls of the two openings are arranged adjacent to each other. The mounting part is detachably connected to the mounting sidewalls of the two openings respectively, and has two mounting sub-frames. The two mounting sub-frames correspond to the mounting sidewalls of the two openings respectively, and the guide wheels provided on the two mounting sub-frames form extrusion ports between them and the scraping parts provided on the two openings.

19. The extrusion module according to claim 18, characterized in that, The mounting subframe is provided with a groove, and shaft holes are provided on opposite sides of the groove. Rotating shafts are provided at both ends of the guide wheel, and the rotating shafts are inserted into the shaft holes so that the guide wheel is rotatably connected to the mounting part.

20. The extrusion module according to claim 13, characterized in that, The mounting part is a mounting block protruding from the mounting sidewall. The mounting block has a guide sidewall opposite to the mounting sidewall, and the guide wheel is rotatably mounted on the guide sidewall.

21. The extrusion module according to claim 20, characterized in that, The mounting block also includes a constraint sidewall extending away from the mounting sidewall, the constraint sidewall having an angle with the guide sidewall and intersecting at the end away from the mounting sidewall.

22. The extrusion module according to claim 21, characterized in that, The constraint sidewall and the guide sidewall intersect through a circular arc surface transition; And / or, the extrusion module has two adjacent openings, the two openings share a mounting sidewall, and the mounting blocks are symmetrically arranged at the same position on both sides of the mounting sidewall.

23. The extrusion module according to any one of claims 12 to 16, 18, and 19 to 22, characterized in that, The guide wheel is conical. When the mop plate is inserted into the squeezing port, the side of the conical guide wheel, at least the area near the bottom, abuts against the top surface of the mop plate. When the mop plate moves in the squeezing port, the side of the conical guide wheel, at least the area near the bottom, rolls along the top surface of the mop plate.

24. The extrusion module according to claim 23, characterized in that, The conical guide wheel is provided with a rotating shaft along the axial direction of the cone, and the guide wheel is rotatably mounted on the mounting side wall via the rotating shaft.

25. The extrusion module according to claim 24, characterized in that, The conical guide wheel has a hollow area, the rotating shaft passes through the hollow area, and multiple support walls are arranged around the inner wall of the hollow area and the rotating shaft.

26. The extrusion module according to claim 24 or 25, characterized in that, The bottom surface of the conical guide wheel is circular, and the bottom surface and the side surface form a closed structure.

27. The extrusion module according to claim 26, characterized in that, The rotating shaft is located at the center of the circular bottom surface and protrudes from the bottom surface.

28. The extrusion module according to any one of claims 24, 25 and 27, characterized in that, The side of the conical guide wheel is equidistant from any point on the generatrix where the sidewall is minimized, and from the scraping member at the opening. This ensures that when the mop plate is inserted into the squeezing port, the side of the conical guide wheel abuts against the top surface of the mop plate, and when the mop plate moves in the squeezing port, the entire side of the guide wheel rolls along the top surface of the mop plate.

29. A mop bucket, characterized in that, It includes a tank for containing cleaning water and a compression module as described in any one of claims 1 to 28, the compression module being disposed at the opening of the tank.

30. The mop bucket according to claim 29, characterized in that, The extrusion module is provided with multiple openings, and the mounting sidewalls of two adjacent openings are arranged adjacent to each other. The barrel is provided with multiple partitions, which divide the barrel into multiple chambers. The end of any partition is located between adjacent mounting sidewalls of two adjacent openings.

31. The mop bucket according to claim 30, characterized in that, The extrusion module has two openings, and the mounting sidewalls of the two openings are arranged adjacent to each other. The barrel is a triangular prism, and a partition is provided inside the triangular prism barrel along one of its edges to the side wall corresponding to the edge. The end of the partition is located between the adjacent mounting side walls of the two openings.

32. The mop bucket according to claim 30, characterized in that, The extrusion module is provided with four openings, and the mounting sidewalls of the four openings are arranged adjacent to each other in sequence. The barrel is a quadrangular prism, and four partitions are provided along the inner edge of the quadrangular prism barrel to the center of the barrel. The four partitions intersect at the center of the barrel, and the end of each partition is located between adjacent mounting sidewalls of two adjacent openings.

33. The mop bucket according to any one of claims 30 to 32, characterized in that, The partition has integrally formed raised blocks on both sides, located in two adjacent chambers respectively.

34. The mop bucket according to any one of claims 30 to 32, characterized in that, An insertion groove is formed between adjacent mounting sidewalls of two adjacent openings, and the end of the partition extends into the insertion groove.

35. The mop bucket according to any one of claims 29 to 32, characterized in that, The bottom of the bucket is provided with a drain outlet, and a drain plug is provided in the drain outlet. The mop bucket is movably provided with an operating part and a transmission assembly. The operating part is connected to the transmission assembly, and the transmission assembly is connected to the drain plug. The operating part is driven to move, which in turn drives the transmission assembly to move. The movement of the transmission assembly drives the drain plug to move relative to the drain outlet, thereby opening or closing the drain outlet.

36. The mop bucket according to claim 35, characterized in that, The operating part is movably disposed on the extrusion module, the transmission component passes through the barrel body, and one end is connected to the operating part for transmission, and the other end is connected to the drain plug.

37. The mop bucket according to claim 36, characterized in that, The operating part is rotatably mounted on the extrusion module. The operating part is driven to rotate, which drives the transmission component to move. The movement of the transmission component drives the drain plug to move relative to the drain outlet, so as to open or close the drain outlet.

38. The mop bucket according to claim 37, characterized in that, The extrusion module is provided with a through hole. One end of the operating part protrudes from the top of the extrusion module, and the other end extends into the barrel through the through hole and is connected to the transmission assembly for transmission.

39. The mop bucket according to claim 38, characterized in that, The operating unit includes a knob and a rotating component, the rotating component being disposed on the side of the extrusion module near the barrel body; The knob protrudes from the top of the extrusion module, and one end near the barrel passes through the through hole and is circumferentially locked to the rotating component; the rotating component is connected to the transmission assembly. The knob is driven to rotate, which in turn drives the rotating component to rotate. The rotation of the rotating component drives the transmission assembly to move. The movement of the transmission assembly drives the drain plug to move relative to the drain outlet, thereby opening or closing the drain outlet.

40. The mop bucket according to claim 39, characterized in that, One of the rotating components and the transmission assembly is provided with an inclined groove, and the other is provided with a sliding block. The sliding block is inserted into the inclined groove and slides in the inclined groove. The rotating component rotates, the sliding block slides along the inclined groove, and drives the transmission component to move linearly. The linear movement of the transmission component drives the drain plug to move relative to the drain outlet, so as to open or close the drain outlet.

41. The mop bucket according to claim 40, characterized in that, Both ends of the inclined groove are provided with limiting grooves; when the sliding block slides along the inclined groove to the end of the inclined groove and is limited to the limiting groove at the end, the drain plug remains in the current position, so that the drain outlet is maintained in the open or closed state.

42. The mop bucket according to claim 40 or 41, characterized in that, The rotating component has a mounting arm extending away from the extrusion module, a sliding block is disposed at the end of the mounting arm, and a slant is disposed in the transmission assembly.

43. The mop bucket according to claim 42, characterized in that, The inclined groove is disposed on the outer peripheral surface of the transmission component.

44. The mop bucket according to claim 39, characterized in that, The rotating component and the transmission assembly are provided with an inclined surface on one of them and an abutment block on the other. The rotating component rotates, the abutting block slides along the inclined surface, and drives the transmission component to move linearly. The linear movement of the transmission component drives the drain plug to move relative to the drain outlet, so as to open or close the drain outlet.

45. The mop bucket according to any one of claims 39 to 41, 43 and 44, characterized in that, The drain outlet is located on the bottom surface of the barrel, and the end of the transmission assembly is fixedly connected to the drain plug; The rotating component rotates, causing the transmission assembly to move up and down along the depth direction of the barrel; The transmission component moves upward, causing the drain plug to move in the same direction to open the drain outlet; the transmission component moves downward, causing the drain plug to move in the same direction to close the drain outlet.

46. ​​The mop bucket according to claim 45, characterized in that, The transmission assembly includes a mating component and a connecting rod. One end of the connecting rod is fixedly connected to the mating component, and the other end is fixedly connected to the drain plug. The mating component is throttle-connected to the operating part. One of the rotating component and the mating component is provided with an inclined groove, and the other is provided with a sliding block. The sliding block is inserted into the inclined groove and slides in engagement with the inclined groove.

47. The mop bucket according to any one of claims 36 to 41, 43 and 44, characterized in that, The drain outlet is located on the bottom surface of the barrel, and the end of the transmission component is fixedly connected to the drain plug. The operating part is driven to move, causing the transmission assembly to move up and down along the depth direction of the barrel; the upward movement of the transmission assembly causes the drain plug to move in the same direction to open the drain outlet; the downward movement of the transmission assembly causes the drain plug to move in the same direction to close the drain outlet.

48. The mop bucket according to claim 47, characterized in that, The transmission assembly includes a mating component and a connecting rod, with one end of the connecting rod fixedly connected to the mating component and the other end fixedly connected to the drain plug, and the mating component being drively connected to the operating part. The operating part is driven to move, causing the mating component to move up and down along the depth direction of the barrel. The mating component drives the drain plug to move up and down through the connecting rod.

49. The mop bucket according to any one of claims 36 to 41, 43, 44, 46 and 48, characterized in that, The mop bucket also includes a reset component, which is disposed between the operating part and the squeezing module, or between the operating part and the transmission assembly, or between the transmission assembly and the bucket body; When the operating part is driven to move, it drives the transmission assembly to move, which in turn drives the drain plug to move to open or close the drain outlet, the reset member stores force; when the reset member releases force, it drives the drain plug to move and reset, and drives the operating part and the transmission assembly to reset.

50. The mop bucket according to claim 49, characterized in that, The reset element is a spring disposed between the operating part and the extrusion module, or between the operating part and the transmission assembly, or between the transmission assembly and the barrel body; When the operating part is driven to move the transmission assembly, which in turn moves the drain plug away from the drain outlet to open the drain outlet, the reset member stores force; when the reset member releases force, it moves the drain plug closer to the drain outlet to close the drain outlet, and resets the operating part and the transmission assembly.

51. The mop bucket according to claim 49, characterized in that, The reset component is an elastic rope disposed between the transmission assembly and the barrel body; When the operating part is driven to move the transmission assembly, which in turn moves the drain plug toward the drain outlet to close the drain outlet, the reset member stores force; when the reset member releases force, it moves the drain plug away from the drain outlet to open the drain outlet, and resets the operating part and the transmission assembly.

52. The mop bucket according to any one of claims 36 to 41, 43, 44, 46, 48, 50 and 51, characterized in that, The barrel is divided into multiple chambers by partitions, and each chamber has a drain outlet at the bottom, and each drain outlet has a drain plug. The transmission assembly is connected to the plurality of drain plugs respectively; the operating part is driven to move, which drives the transmission assembly to move, and the movement of the transmission assembly drives the plurality of drain plugs to move, so as to simultaneously open or close the plurality of drain outlets.

53. A mop, characterized in that, The invention includes a mop handle, a mop plate hinged to the end of the mop handle, and an extrusion module as described in any one of claims 1 to 28, which is movably disposed on the mop handle.

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