Mop bucket

Abstract

The utility model provides a mop bucket, and relates to the technical field of cleaning appliances, the mop bucket comprises a bucket body, the bucket body is provided with a drainage port, and a drainage assembly and a dehydration assembly are movably arranged in the bucket body; the dewatering assembly moves in the barrel body and is switched between a cleaning position and a dewatering position, and a mop which extends into the barrel body and is matched with the dewatering assembly is cleaned at the cleaning position and dewatered at the dewatering position; when the dewatering assembly is switched from the cleaning position to the dewatering position, the drainage assembly is driven to move and is separated from the drainage port, so that sewage generated by cleaning the mop in the bucket body is drained through the drainage port; and / or, when the dewatering assembly is switched from the dewatering position to the cleaning position, the water drainage assembly is driven to move and block the water drainage opening, so that cleaning water is gathered in the barrel body so as to conveniently clean the mop. The dewatering assembly and the drainage assembly are matched with each other to close or open the drainage port, and the user experience is effectively improved.

Description

Technical Field

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

[0002] In related technologies, mop buckets typically have a rubber drain plug at the drain outlet. After cleaning the mop with the mop bucket, when it is necessary to drain the wastewater from the mop bucket, the user needs to manually pull out the drain plug. After the wastewater has drained, the user then plugs the drain outlet back in with the drain plug.

[0003] However, the entire sewage discharge process requires a lot of user involvement, resulting in a poor user experience. Utility Model Content

[0004] This utility model provides a mop bucket to solve the problem that the entire sewage discharge process in related technologies requires a lot of user intervention, resulting in a poor user experience.

[0005] This utility model provides a mop bucket, including: a bucket body, the bucket body is provided with a drain outlet, and a drain component and a dehydration component are movably disposed inside the bucket body;

[0006] The dehydration component switches between a washing position and a dehydration position by moving within the tub. The mop, which extends into the tub and is designed to work with the dehydration component, washes in the washing position and dehydrates in the dehydration position.

[0007] When the dehydration component switches from the washing position to the dehydration position, the drainage component is driven to move and disengage from the drain outlet, so that the wastewater from washing the mop in the tub can be discharged through the drain outlet.

[0008] And / or, when the spin-drying assembly switches from the spin-drying position to the washing position, the drain assembly is driven to move and block the drain outlet so that cleaning water accumulates in the bucket to facilitate washing the mop.

[0009] The mop bucket provided by this utility model has a drain outlet inside the bucket, and a drain component and a spin-dry component are movably arranged inside the bucket. The user can use the spin-dry component in conjunction with the mop to wash the mop in the washing position and spin-dry it in the spin-drying position. When the spin-drying component moves between the washing and spin-drying positions, the drain component is driven to move and block or disengage from the drain outlet, thus closing or opening the drain outlet. Specifically, when the user needs to wash the mop, the spin-drying component switches from the spin-drying position to the washing position. At this time, the drain component is driven to move and block the drain outlet, allowing cleaning water to accumulate in the bucket for washing the mop. When the user needs to spin-dry the mop, the spin-drying component switches from the washing position to the spin-drying position. At this time, the drain component is driven to move and disengage from the drain outlet, allowing the wastewater from washing the mop in the bucket to drain out through the drain outlet. This application eliminates the need for the user to manually insert or remove the drain plug during the entire wastewater discharge process; instead, the drain outlet is closed or opened by the interaction between the spin-drying and drain components, effectively improving the user experience.

[0010] According to the present invention, a mop bucket has a drainage component rotatably disposed inside the bucket body.

[0011] When the dehydration unit switches from the cleaning position to the dehydration position, the drain component is driven to rotate and disengage from the drain outlet, thereby opening the drain outlet.

[0012] And / or, when the dehydration component switches from the dehydration position to the cleaning position, the drain component is driven to rotate and block the drain outlet to close the drain outlet.

[0013] This embodiment provides a specific implementation of the drainage component. Specifically, the drainage component is rotatably mounted inside the tank. When the dehydration component switches from the dehydration position to the washing position, the drainage component is driven to rotate and block the drain outlet, thus closing the drain outlet. When the dehydration component switches from the washing position to the dehydration position, the drainage component is driven to rotate and disengage from the drain outlet, thus opening the drain outlet. By rotating the drainage component to open or close the drain outlet, friction between the drainage component and the drain outlet can be effectively reduced, making the movement of the drainage component more flexible.

[0014] According to the present invention, a mop bucket has a drainage component including a rotating part and a blocking part. The rotating part is rotatably disposed in the area adjacent to the drain outlet on the inner side wall of the bucket, and the blocking part is kinetically connected to or abuts against the dehydration component.

[0015] When the dehydration component moves from the cleaning position to the dehydration position, the rotating part is driven to rotate in the forward direction, which causes the blockage part to move away from the drain outlet so as to disengage from the drain outlet;

[0016] And / or, when the dehydration component switches from the dehydration position to the cleaning position, the dehydration component drives the blocking part to move towards the drain outlet until the blocking part covers and blocks the drain outlet, and the blocking part drives the rotating part to rotate in the opposite direction to reset.

[0017] This embodiment provides a specific implementation of the drainage component. The drainage component includes a rotating part and a blocking part. The rotating part is rotatably disposed on the inner side wall of the tank near the drain outlet. The blocking part is connected to or abuts against the dehydration component to block the drain outlet. In actual use, when the dehydration component switches from the washing position to the dehydration position, the rotating part is driven to rotate forward, thereby moving the blocking part away from the drain outlet to open it. When the dehydration component switches from the dehydration position to the washing position, it moves the blocking part closer to the drain outlet until the blocking part covers and blocks the drain outlet to close it. During this process, the blocking part drives the rotating part to rotate in the opposite direction to reset. Through the cooperation between the rotating part, the blocking part, and the dehydration component, the opening and closing of the drain outlet is achieved.

[0018] According to the present invention, a mop bucket has a rotating part rotatably disposed above the drain outlet on the inner side wall of the bucket, and a blocking part abutting against the dehydration component.

[0019] When the dehydration component moves from the cleaning position to the dehydration position, the rotating part is driven to rotate in the forward direction, causing the blockage part to flip upward to disengage from the drain outlet;

[0020] And / or, when the dehydration component switches from the dehydration position to the cleaning position, the dehydration component presses against the blockage part and flips downward until the blockage part covers and blocks the drain outlet, and the blockage part drives the rotating part to rotate in the opposite direction to reset.

[0021] In this embodiment, the rotating part is rotatably disposed above the drain outlet on the inner side wall of the barrel, and the blocking part abuts against the dehydration component. By rotating the rotating part, the blocking part can be driven to flip upward to disengage from the drain outlet, and / or the dehydration component abuts against and drives the blocking part to flip downward to cover the drain outlet, so as to realize the opening and closing of the drain outlet. The structure is simple and easy to implement.

[0022] According to the present invention, a mop bucket has an extension extending toward the center of the bucket body above the drain outlet on the inner side wall of the bucket body, and a rotating part is rotatably connected to the extension.

[0023] In this embodiment, an extension is provided above the drain outlet on the inner side wall of the barrel. The extension extends toward the center of the barrel. The rotating part of the drain assembly can be rotatably connected to the extension so that the rotating part is rotatably positioned in the area of ​​the inner side wall of the barrel near the drain outlet, thereby cooperating with the dehydration assembly and the blocking part to realize the opening and closing of the drain outlet.

[0024] According to the present invention, a mop bucket has two lugs on the upper side of the extension, each lug having a mounting hole. Both sides of the rotating part have protrusions, and the two protrusions are respectively rotatably mounted in the mounting holes on the two lugs, so that the rotating part is rotatably mounted on the extension.

[0025] This embodiment provides a specific implementation of a rotatable connection between the rotating part and the extension part. Specifically, the upper side of the extension part is provided with two lugs, and the lugs are provided with mounting holes. Correspondingly, both sides of the rotating part are provided with protrusions. The two protrusions can be rotatably installed in the mounting holes of the two lugs, so that the rotating part is rotatably installed on the extension part, and then rotatably connected to the inner wall of the barrel. The rotatable connection structure is simple and easy to install and use.

[0026] According to the present invention, a mop bucket has an elastic component provided between the rotating part and the inner side wall of the bucket.

[0027] When the dehydration component switches from the dehydration position to the cleaning position, the dehydration component presses against the blockage part and moves towards the drain outlet. The blockage part drives the rotating part to rotate in the opposite direction, and the rotating part causes the elastic component to deform to store force.

[0028] And / or, when the dehydration assembly moves from the cleaning position to the dehydration position, the elastic component unloads the force and drives the rotating part to rotate in the forward direction, thereby causing the blockage part to move away from the drain outlet.

[0029] In this embodiment, an elastic component is provided between the rotating part and the inner wall of the barrel. During actual use, when the dehydration component switches from the dehydration position to the washing position, the dehydration component will press against the blockage part and move towards the drain outlet. At this time, the blockage part will drive the rotating part to rotate in the opposite direction away from the inner wall of the barrel, and the elastic component will deform to store force. When the dehydration component switches from the washing position to the dehydration position, the dehydration component no longer applies pressure to the blockage part. At this time, the elastic component will release the force and drive the rotating part to rotate forward towards the inner wall of the barrel, thereby moving the blockage part until it is removed from the drain outlet. By setting the elastic component in conjunction with the movement of the dehydration component, the drain component can be driven to disengage from or block the drain outlet. The structure is simple and easy to replace, and it can effectively ensure the normal operation of the drain component.

[0030] According to the present invention, a mop bucket has an elastic component that is a torsion spring, one end of which abuts against the rotating part and the other end of which abuts against the inner side wall of the bucket.

[0031] In this embodiment, the aforementioned elastic component can be a torsion spring. One end of the torsion spring abuts against the rotating part, and the other end abuts against the inner wall of the barrel. It generates elastic deformation through torsion. When the rotating part rotates away from the inner wall of the barrel, the torsion spring undergoes elastic deformation to store force; and when the rotating part rotates towards the inner wall of the barrel, the torsion spring releases force and resets. This application uses a torsion spring as the elastic component, resulting in a simple structure that can cooperate with the movement of the dewatering assembly to drive the drainage assembly to disengage from or block the drain outlet.

[0032] According to the present invention, a mop bucket is provided with an abutting part on the side of the drain assembly near the dehydration assembly, and the abutting part abuts against the dehydration assembly.

[0033] When the dehydration component switches from the dehydration position to the cleaning position, the dehydration component drives the drainage component to move through the pressing and contacting part until the drainage component blocks the drain outlet.

[0034] In this embodiment, the drainage component is provided with an abutting part on the side near the dehydration component. The dehydration component abuts against this abutting part to drive the blocking part in the drainage component to disengage or block the drain outlet. The abutting part and the dehydration component are effectively abutted, which facilitates the smooth opening of the drain outlet.

[0035] According to the present invention, a mop bucket has a dehydration component with a sliding surface. When the dehydration component drives the drainage component to move by pressing the abutment part, the abutment part slides along the sliding surface.

[0036] In this embodiment, a contact part is provided on the drainage component, and a sliding surface is provided on the dehydration component. When the dehydration component moves the drainage component by pressing against the contact part, the contact part can slide along the sliding surface. While achieving the pressing effect, the friction between the drainage component and the dehydration component is reduced to a certain extent, thereby improving the service life of the drainage component and the dehydration component.

[0037] According to the present invention, a mop bucket has a sliding surface that is arc-shaped or inclined. The dehydration component presses against the abutting part, causing the abutting part to slide along the arc-shaped or inclined surface. The sliding of the abutting part along the arc-shaped or inclined surface drives the drainage component to rotate and block the drain outlet.

[0038] In this embodiment, the sliding surface can be set as an arc-shaped surface or an inclined surface. The arc-shaped surface or inclined surface is adapted to the shape of a dehydration component, such as a dehydration basket, that can accommodate a mop head. Setting such a sliding surface is more convenient, and the abutment part can slide more smoothly on the sliding surface during the process of the dehydration component pressing the abutment part and the process of the drain component resetting after the pressure is released. This makes it easier for the user to open or close the drain outlet using the dehydration component.

[0039] According to the present invention, a mop bucket is provided with a guide wheel or ball bearing at the end of the contact part near the dehydration component.

[0040] In this embodiment, a guide wheel or ball is provided at one end of the contact part near the dehydration component. The guide wheel or ball can slide on the sliding surface. The guide wheel or ball further reduces the friction between the contact part and the dehydration component, improves the service life of the drainage component and the dehydration component, and facilitates the contact part to slide more smoothly on the sliding surface, thereby improving the user experience.

[0041] According to the present invention, a mop bucket has a drainage component including a rotating part and a blocking part. The rotating part is rotatably disposed in the area of ​​the inner side wall of the bucket near the drain outlet, and the blocking part abuts against the dehydration component. The abutting part is disposed on the side of the blocking part close to the dehydration component.

[0042] In this embodiment, the abutting part is disposed on the side of the blockage part close to the dehydration component. The dehydration component can indirectly press the blockage part through the abutting part, thereby causing the blockage part to rotate toward the drain outlet until the drain outlet is blocked. Compared with direct pressing, indirect pressing through the abutting part does not require restriction on the relative positional relationship between the blockage part and the dehydration component, making it easier to adjust the position of the blockage part and the dehydration component more flexibly.

[0043] According to the present invention, a mop bucket includes a dehydration component comprising a dehydration basket, and a sliding surface is disposed on the outer side wall of the dehydration basket.

[0044] This embodiment provides a specific implementation of the dehydration component. The dehydration component may include a dehydration basket, with the aforementioned sliding surface disposed on the outer wall of the basket. The user can place a mop in the basket and drive it to move the basket, thereby indirectly pressing against the blockage part through the pressing contact part until it blocks the drain outlet.

[0045] According to the present invention, a mop bucket has a spin-dry basket that is vertically adjustable and is installed inside the bucket. The spin-dry basket is driven to move up and down within the bucket to switch between a washing position and a spin-drying position.

[0046] In this embodiment, the dehydration basket can be raised and lowered inside the barrel. Specifically, the dehydration basket is driven to rise and fall inside the barrel to switch between a lower washing position and a higher dehydration position, while simultaneously causing the drainage component to detach from or block the drain outlet.

[0047] According to the present invention, a mop bucket includes a dehydration component comprising a dehydration basket and a support, wherein the support drives the dehydration basket to move up and down within the bucket to switch between a washing position and a dehydration position.

[0048] The sliding surface is located on the side of the bracket near the bottom of the barrel.

[0049] This embodiment provides another specific implementation of the dehydration component. The dehydration component may include a dehydration basket and a support. The support drives the dehydration basket to move up and down within the container, switching between a lower washing position and a higher dehydration position. The support abuts against a drainage component to disengage the drainage component from or block the drain outlet. Therefore, the sliding surface can be positioned on the side of the support near the bottom of the container, allowing it to slide against the abutting part of the drainage component.

[0050] According to the present invention, a mop bucket has a spin-dry basket rotatably connected to a support. In the washing position and / or the spin-drying position, the spin-dry basket is driven to rotate relative to the support, so that the mop can be washed in the washing position and spun dry in the spin-drying position.

[0051] In this embodiment, the spin-dry basket and the support are rotatably connected. When the support drives the spin-dry basket to the washing position, the spin-dry basket can be driven to rotate relative to the support, so as to drive the mop to rotate and wash in the cleaning water. When the support drives the spin-dry basket to the dehydration position, the spin-dry basket can also be driven to rotate relative to the support, so as to rotate and dehydrate the mop.

[0052] According to the present invention, a mop bucket is provided in which the drainage component and the dehydration component are connected by a linkage mechanism.

[0053] When the dehydration component moves from the cleaning position to the dehydration position, it drives the drainage component to move through the linkage mechanism to disengage from the drain outlet;

[0054] And / or, when the dehydration component switches from the dehydration position to the cleaning position, the drain component is moved by the linkage mechanism to block the drain outlet.

[0055] In this embodiment, the drainage component and the dehydration component can be connected by a linkage mechanism. Specifically, the dehydration component can drive the linkage mechanism to move, thereby indirectly driving the drainage component to move, so as to detach from or block the drain outlet. Through indirect transmission via the linkage mechanism, the relative positional relationship between the drainage component and the dehydration component does not need to be restricted, making it easier to adjust the positions of the drainage component and the dehydration component more flexibly.

[0056] According to the present invention, a mop bucket has a drainage component that is slidably or rotatably disposed within the bucket body.

[0057] When the dehydration component moves from the washing position to the dehydration position, it drives the drainage component to slide or rotate inside the barrel through the linkage mechanism, so as to open the drain outlet.

[0058] And / or, when the dehydration component switches from the dehydration position to the cleaning position, the drain component is driven to slide or rotate inside the tank through the linkage mechanism to block the drain outlet.

[0059] This embodiment provides a specific implementation of the driven movement of the drainage component. Specifically, the drainage component is slidably or rotatably disposed within the tank, and the dewatering component can drive the drainage component to slide or rotate within the tank via a linkage mechanism to disengage from or block the drain outlet.

[0060] According to the present invention, a mop bucket includes a drainage assembly comprising a rotating part and a blocking part, the rotating part being rotatably disposed in the area adjacent to the drain outlet on the inner side wall of the bucket; a linkage mechanism comprising multiple sub-rods, the multiple sub-rods being rotatably connected in sequence; the sub-rods at both ends of the linkage mechanism being rotatably connected to the blocking parts of the dehydration assembly and the drainage assembly, respectively.

[0061] When the dehydration assembly moves from the cleaning position to the dehydration position, multiple sub-rods slide and / or rotate relative to each other inside the barrel, causing the blockage part to flip away from the drain outlet through the rotating part relative to the drain outlet, so as to disengage from the drain outlet.

[0062] And / or, when the dehydration assembly switches from the dehydration position to the cleaning position, multiple sub-rods slide and / or rotate relative to each other inside the barrel, causing the blocking part to flip relative to the drain outlet through the rotating part towards the drain outlet, thereby blocking the drain outlet.

[0063] In this embodiment, the drainage component includes a rotating part and a blocking part, and the linkage mechanism includes multiple sub-rods that are rotatably connected in sequence. The sub-rods at both ends of the linkage mechanism are rotatably connected to the blocking parts of the dehydration component and the drainage component, respectively. In actual use, when the dehydration component moves to the dehydration position, the multiple sub-rods slide and / or rotate relative to each other in the barrel, thereby causing the blocking part to flip away from the drain outlet to disengage from it. When the dehydration component moves to the washing position, the multiple sub-rods slide and / or rotate relative to each other in the barrel, thereby causing the blocking part to flip towards the drain outlet to block it. Through the cooperation between the linkage mechanism and the rotating part and the blocking part in the drainage component, the opening and closing of the drain outlet is realized. The structure is simple and easy to operate.

[0064] According to the present invention, a mop bucket has a dehydration component including a dehydration basket and a lifting column supporting the dehydration basket. The lifting column is vertically and vertically disposed in the bucket body, and a linkage mechanism is rotatably connected to the lifting column.

[0065] The dehydration basket is driven to move from the washing position to the dehydration position, which causes the lifting column to rise. The lifting column drives the linkage mechanism to move, and the linkage mechanism causes the drainage component to slide or rotate inside the tank, so that the drain outlet is opened.

[0066] And / or, the dehydration basket is driven to switch from the dehydration position to the washing position, which causes the lifting column to lower. The lifting column drives the linkage mechanism to move, and the linkage mechanism causes the drainage component to slide or rotate inside the tank to block the drain outlet.

[0067] In this embodiment, the dehydration component may include a dehydration basket and a lifting column supporting the dehydration basket. The linkage mechanism may be rotatably connected to the lifting column. When the dehydration basket moves to the dehydration position, it will drive the lifting column to rise or fall, thereby driving the linkage mechanism to move. The linkage mechanism will then drive the drainage component to slide or rotate in different directions within the barrel to open or close the drain outlet.

[0068] According to the present invention, a mop bucket is provided with a hollow support column inside the bucket, a lifting column is provided in the hollow area of ​​the support column, and a spin-dry basket is supported on the top of the lifting column.

[0069] The inner wall of the support column is equipped with a track, which has a high limit point and a low limit point, and the lifting column is slidably connected to the track;

[0070] The dehydration basket is driven to move from the washing position to the dehydration position, which causes the lifting column to rise. The lifting column slides along the track to the high limit point, which limits the dehydration basket to the high position of the barrel. The lifting column also drives the linkage mechanism to move, and the linkage mechanism drives the drainage component to slide or rotate in the barrel so that the drain outlet opens.

[0071] And / or, the dehydration basket is driven to switch from the dehydration position to the cleaning position, which causes the lifting column to lower. The lifting column slides along the track to the low limit point, limiting the dehydration basket to the low position of the barrel. The lifting column also drives the linkage mechanism to move, and the linkage mechanism drives the drainage component to slide or rotate in the barrel to block the drain outlet.

[0072] In this embodiment, a hollow support column is provided inside the barrel. The lifting column can be set in the hollow area of ​​the support column and slides between the high limit point and the low limit point along the track on the support column. This causes the dehydration basket at the top of the lifting column to move between the high and low positions of the barrel. The track on the support column can effectively constrain the movement path of the lifting column, thereby effectively constraining the movement path of the dehydration basket. This ensures that it can cooperate with the linkage mechanism and the drainage component to open and close the drain outlet, improving drainage stability.

[0073] According to the present invention, a mop bucket has an auxiliary elastic element provided between the lifting column and the bucket body.

[0074] The dehydration basket is driven to move from the washing position to the dehydration position, which causes the lifting column to rise, and the auxiliary elastic element to deform to store force.

[0075] And / or, the auxiliary elastic element relieves the force, causing the lifting column to lower.

[0076] In this embodiment, an auxiliary elastic component, such as a spring or torsion spring, is provided between the lifting column and the tub. Specifically, during use, when the user drives the spin-drying basket to rise, the lifting column will stretch the auxiliary elastic component to deform and store force. When the user stops driving the spin-drying basket with the mop, the auxiliary elastic component will release the force and reset, which will drive the lifting column to lower, thereby blocking the drain outlet and closing the drain outlet.

[0077] According to the present invention, a mop bucket has a dehydration component rotatably connected to the bucket body. In the cleaning position, the dehydration component is driven to rotate so as to clean the mop with the cleaning water collected in the bucket body.

[0078] A water-lifting component is provided at the bottom of the inner side wall of the tank, and the water-lifting component extends away from the side wall of the tank.

[0079] When the dehydration component rotates and agitates the water gathered inside the barrel to form a water flow that rises to the water-lifting component, the water-lifting component blocks the water flow from continuing to rise along the inner side wall of the barrel and guides the water flow towards the center of the barrel, causing the water to be sprayed away from the side wall of the barrel.

[0080] In this embodiment, the dehydration component is rotatably connected to the bucket. When in the cleaning position, the dehydration component is driven to rotate, and the mop can be cleaned by the cleaning water collected in the bucket. However, when there is less cleaning water at the bottom of the bucket, the mop head inserted into the bucket may not be effectively immersed in the cleaning water for cleaning, thus affecting the mop cleaning effect. To address this, this application also provides a water-lifting component extending away from the side wall of the bucket at the bottom of the inner side wall. When the dehydration component rotates and agitates the water collected in the bucket to form a water flow that rises to the water-lifting component, the water-lifting component can prevent the water flow from rising further and spray the water flow away from the side wall of the bucket. This allows at least part of the sprayed water to be absorbed by the mop head located in the bucket, thus helping to wet the mop head. This ensures that the mop head can be effectively wetted even when there is less water at the bottom of the bucket, thereby better cleaning the wiping material on the mop head and achieving a better cleaning effect.

[0081] According to the present invention, a mop bucket has a water-lifting component that is a sheet-shaped water-lifting plate. One end of the water-lifting plate is located at the bottom of the inner side wall of the bucket, and the other end extends away from the side wall of the bucket.

[0082] This embodiment provides a specific implementation of a water-spraying component. Specifically, the water-spraying component is a sheet-like water-spraying plate extending from the bottom of the inner sidewall of the bucket away from the sidewall. Compared to other shapes such as protrusions or columns, the sheet-like water-spraying plate can effectively block the water flow rising from the bottom of the bucket along the sidewall, and also effectively guide the blocked water flow away from the sidewall, so as to collect as much rising water as possible and spray it away from the sidewall. This helps to effectively wet the mop head even when there is less cleaning water at the bottom of the bucket. Furthermore, the sheet-like water-spraying plate has a simple structure, low cost, and is easy to install.

[0083] According to the present invention, a mop bucket has a water-spraying plate that is inclined relative to the bottom wall of the bucket.

[0084] In this embodiment, the water-spraying plate is set at an angle relative to the bottom wall of the bucket, which makes it easier to collect more rising water and spray it away from the side wall of the bucket. This helps to better wet the mop head located inside the bucket, thereby improving the cleaning effect on the mop head.

[0085] According to the present invention, the water-lifting plate is tilted in the direction that the upstream of the water flow after it is agitated by the dewatering component is lower than the downstream.

[0086] In this embodiment, after the water at the bottom of the bucket is agitated by the dehydration component, it rotates along the agitation direction and rises upward along the inner side wall of the bucket. When the water flows upward, the upstream direction is lower than the downstream direction. Correspondingly, the tilt direction of the water-lifting plate is also set so that the upstream direction of the water flow after being agitated by the dehydration component is lower than the downstream direction, which conforms to the direction of fluid mechanics. This can reduce the amount of water lost due to obstructing the water flow upward, and gather as much of the rising water flow as possible and spray it away from the side wall of the bucket. This helps to better wet the mop head located inside the bucket, thereby improving the cleaning effect on the mop head.

[0087] According to the present invention, a mop bucket has a fan-shaped water-spreading blade, and one end of the fan-shaped water-spreading blade corresponding to the apex of the fan faces the center of the bucket body.

[0088] In this embodiment, the water-spraying plate is arranged in a fan shape, and one end of the fan-shaped water-spraying plate corresponding to the apex of the fan faces the center of the bucket. This facilitates the collection of blocked water flow through the apex of the fan shape and guides it to the central area of ​​the bucket away from the side wall of the bucket. This helps to better wet the mop head located inside the bucket, thereby improving the cleaning effect on the mop head.

[0089] According to the present invention, a mop bucket has a fan-shaped water-spraying blade with a rounded corner at one end corresponding to the apex of the fan shape.

[0090] In this embodiment, one end of the aforementioned fan-shaped apex is set as a rounded corner. While improving the water flow convergence force, the rounded corner edge can more evenly spray the water flow away from the side wall of the bucket, which helps to better wet the mop head located inside the bucket, thereby improving the cleaning effect of the mop head.

[0091] According to the present invention, the upper side of the water-spreading plate is connected to the inner wall of the bucket through an arc-shaped transition surface.

[0092] And / or, the lower side of the water-lifting plate is perpendicularly connected to the inner wall of the tank.

[0093] In this embodiment, the upper side of the water-spraying plate is connected to the inner wall of the bucket by an arc-shaped transition surface. The arc-shaped transition surface can reduce turbulence and resistance, and improve the flow efficiency of water. When multiple water-spraying plates are set up at the top and bottom, it is convenient for the water to climb up better through the transition surface and gather on the lower side of the upper water-spraying plate. And / or, the lower side of the water-spraying plate is vertically connected to the inner wall of the bucket, which is convenient for better gathering of the water flow climbing up from the lower water-spraying plate and spraying this water flow away from the side wall of the bucket. This helps to better wet the mop head located in the bucket, thereby improving the cleaning effect of the mop head.

[0094] According to the present invention, the edges of the water-spraying blades are all rounded and chamfered.

[0095] In this embodiment, the edges of the water pumping plates are all rounded, which can effectively remove burrs generated during processing, reduce the resistance of the water pumping plates to the water flow, and also facilitate assembly with other components.

[0096] According to the present invention, a mop bucket further includes a guide plate, which is detachably disposed on the inner side wall of the bucket, and a water-lifting component is integrally formed on the guide plate.

[0097] In this embodiment, since the guide plate is detachably mounted on the inner side wall of the tank, the water pumping component can be integrally molded onto the guide plate. This allows the smaller, harder-to-assemble water pumping component to be detachably assembled with the larger, easier-to-assemble guide plate and the tank body. Furthermore, the integral molding of the water pumping component onto the guide plate ensures a secure installation between the water pumping component and the inner side wall of the tank, thereby improving the stability and service life of the water pumping component and facilitating its manufacture.

[0098] According to the present invention, a mop bucket is provided with a guide plate and a track. The track has a high limit point and / or a low limit point. The dehydration component is directly or indirectly slidably connected to the track. When the dehydration component slides along the track to the low limit point, the dehydration component rotates and stirs the water accumulated in the bucket to form a water flow that rises to the water-lifting component. Under the obstruction of the water-lifting component, the water is sprayed away from the side wall of the bucket.

[0099] And / or, when the dewatering component slides along the track to the high limit point, the dewatering component detaches from the water accumulated in the tank.

[0100] In this embodiment, the guide plate is provided with a track, through which the dehydration component can slide between the high limit point and the low limit point. When the dehydration component slides along the track to the low limit point, it comes into contact with the water accumulated in the bucket and stirs the water in the bucket by rotating, causing it to rise to the water-lifting device. Under the obstruction of the water-lifting device, the water is sprayed away from the side wall of the bucket, so as to effectively clean the mop head located in the bucket. When the dehydration component slides along the track to the high limit point, it detaches from the liquid in the bucket, at which point the mop head can be driven to rotate for effective dehydration. The track of the guide plate can effectively limit the movement direction and area of ​​the dehydration component, improving the working stability of the dehydration component.

[0101] According to the present invention, a mop bucket includes a dehydration component comprising a dehydration basket and a support frame.

[0102] The support frame moves the dehydration basket up and down inside the barrel. When the support frame moves the dehydration basket down to the cleaning position at the lowest point inside the barrel, the dehydration basket is driven to rotate and stir the water accumulated inside the barrel to form a water flow. This water flow rises to the water lifting device and is sprayed away from the side wall of the barrel under the obstruction of the water lifting device.

[0103] And / or, the dehydration basket and support are rotatably positioned at the center of the barrel.

[0104] In this embodiment, the dehydration assembly may include a dehydration basket and a support. The mop head can be placed in the dehydration basket and moved up and down in the bucket under the drive of the support. When the support lowers the dehydration basket and the mop head to a low cleaning position in the bucket, the dehydration basket comes into contact with the water accumulated in the bucket. The dehydration basket rotates and agitates the water accumulated in the bucket, causing it to rise to the water-lifting device and be sprayed towards the center of the bucket under the obstruction of the water-lifting device, so as to effectively clean the mop head located in the bucket. In particular, when the dehydration basket and the support are rotated and placed in the center of the bucket, most of the water that rises along the side wall of the bucket is sprayed by the water-lifting device in a direction closer to the center of the bucket, so that most of the sprayed water can enter the dehydration basket and be absorbed by the wiping material on the mop head in the dehydration basket, further improving the cleaning efficiency of the mop.

[0105] According to the present invention, a mop bucket is provided with a guide plate detachably provided on the inner side wall of the bucket, and a track is provided on the guide plate, and the track has a high limit point and / or a low limit point.

[0106] The bracket is slidably connected to the track; when the bracket slides along the track to the low limit point, it drives the dehydration basket to descend to the low cleaning position inside the barrel.

[0107] And / or, when the support slides along the track to the high limit point, it drives the dehydration basket to rise to the high dehydration position inside the barrel.

[0108] In this embodiment, a guide plate is detachably provided on the inner side wall of the bucket, and a track is provided on the guide plate. The bracket can slide between the high limit point and the low limit point through the track, thereby driving the dehydration basket to move between the high limit point and the low limit point. The track of the guide plate can effectively limit the movement direction and area of ​​the dehydration basket, improving the stability of cleaning and dehydrating the mop head using the dehydration basket.

[0109] According to the present invention, a mop bucket is provided with a water inlet component at the upper end of the bucket body. The water inlet component is used to connect to an external water source and transport water from the external water source into the bucket body.

[0110] When the dehydration component switches from the dehydration position to the washing position, the drainage component is driven to move and block the drain outlet, and the water inlet component connects to the external water source and delivers the water from the external water source into the bucket so that the cleaning water is collected in the bucket for washing the mop.

[0111] In this embodiment, a water inlet component is provided at the upper end of the bucket. When the dehydration component switches from the dehydration position to the washing position, the drainage component will be driven to move and block the drain outlet. At this time, the water inlet component can connect to an external water source and deliver water from the external water source into the bucket, so that the cleaning water can be collected in the bucket for washing the mop. Users do not need to laboriously pour the cleaning water into the bucket, and water can also be prevented from spilling out of the bucket during the pouring process, thus improving the user experience.

[0112] According to the present invention, a mop bucket includes a water inlet assembly comprising a water inlet pipe disposed at the edge of the bucket opening, and a water inlet port disposed on the water inlet pipe for connecting to an external water source via an extension pipe and transmitting water from the external water source into the water inlet pipe.

[0113] The water inlet pipe has multiple water outlets on the side facing the inside of the tank, which are used to spray water from the water inlet pipe into the tank through the multiple water outlets.

[0114] In this embodiment, the water inlet assembly includes a water inlet pipe disposed at the edge of the bucket opening, with at least one water inlet port. Water from an external water source can be transmitted into the water inlet pipe through an extension pipe. The water inlet pipe has multiple water outlets on the side facing the inside of the bucket, allowing water in the water inlet pipe to be discharged into the bucket through the multiple water outlets, so as to collect cleaning water in the bucket. Furthermore, by setting the positions of the multiple water outlets on the water inlet pipe, water can be discharged according to specific needs, such as being set to discharge towards the mop head, which can effectively improve the cleaning efficiency of the mop head.

[0115] According to the present invention, a mop bucket has a water inlet pipe that is annular and arranged around the edge of the bucket opening.

[0116] And / or, multiple water outlets are evenly arranged on the water inlet pipe.

[0117] In this embodiment, the water inlet pipe is arranged in a ring shape and surrounds the edge of the bucket opening, which facilitates drainage into the bucket through multiple water outlets on the water inlet pipe. The water can be discharged directly from the top of the bucket to the mop head placed inside the bucket, improving the cleaning efficiency of the mop head; and / or, multiple water outlets are evenly arranged on the water inlet pipe, which facilitates the water transmitted to the water inlet pipe to be evenly discharged to the mop head placed inside the bucket through the evenly arranged multiple water outlets, improving the cleaning efficiency of the mop head.

[0118] This utility model also provides a mop bucket, comprising:

[0119] The barrel body is equipped with a drain outlet; and a drainage component and a transmission part are movably installed inside the barrel body.

[0120] The mop, which extends into the tub, is connected to the drive unit, which in turn is connected to the drainage assembly.

[0121] The mop is driven to move the transmission part, and the movement of the transmission part drives the drainage component to move and disengage from the drain outlet, so that the wastewater from washing the mop in the bucket can be discharged through the drain outlet.

[0122] And / or, the mop is driven to move the transmission part, which in turn drives the drainage component to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate mop washing.

[0123] In this embodiment, a drain outlet is provided inside the bucket, and a drain assembly and a transmission part are movably arranged inside the bucket. The user can drive the transmission part to move by mopping, thereby driving the drain assembly to move and block or disengage from the drain outlet, so as to close or open the drain outlet. During the entire sewage discharge process, the user does not need to manually insert or remove the drain plug at the drain outlet. Instead, the drain outlet is closed or opened by the cooperation between the transmission part and the drain assembly, which effectively improves the user experience.

[0124] According to the present invention, a mop bucket has a drainage component rotatably disposed inside the bucket body.

[0125] The transmission unit moves and drives the drainage assembly to rotate and disengage from the drain outlet, thereby opening the drain outlet.

[0126] And / or, the drive unit moves to drive the drainage assembly to rotate and block the drain outlet, thereby closing the drain outlet.

[0127] This embodiment provides a specific implementation of the drainage component. Specifically, the drainage component is rotatably mounted inside the tank. Movement of the transmission unit drives the drainage component to rotate and block or disengage from the drain outlet, thereby closing or opening the drain outlet. Opening or closing the drain outlet by rotating the drainage component effectively reduces friction between the drainage component and the drain outlet, making the drainage component's movement more flexible.

[0128] According to the present invention, a mop bucket has a drainage assembly including a rotating part and a blocking part. The rotating part is rotatably disposed in the area of ​​the inner wall of the bucket adjacent to the drain outlet, and the blocking part abuts against the transmission part.

[0129] The transmission unit moves and drives the rotating part to rotate in the forward direction, which in turn drives the blocking part to move away from the drain outlet so as to get out of the drain outlet;

[0130] And / or, the transmission part moves against the blocking part towards the drain outlet until the blocking part covers and blocks the drain outlet, and the blocking part drives the rotating part to rotate in the opposite direction to reset.

[0131] This embodiment provides a specific implementation of a drainage component. The drainage component includes a rotating part and a blocking part. The rotating part is rotatably disposed on the inner wall of the tank near the drain outlet, and the blocking part abuts against the transmission part to block the drain outlet. In actual use, the movement of the transmission part drives the rotating part to rotate forward, thereby moving the blocking part away from the drain outlet to open it. The movement of the transmission part can also press the blocking part towards the drain outlet until the blocking part covers and blocks the drain outlet, closing it. During this process, the blocking part drives the rotating part to rotate in the opposite direction to reset. Through the cooperation between the rotating part, the blocking part, and the transmission part, the opening and closing of the drain outlet is achieved.

[0132] According to the present invention, a mop bucket has a rotating part rotatably disposed on the inner wall of the bucket above the drain outlet.

[0133] The transmission unit moves and drives the rotating part to rotate in the forward direction, causing the blocking part to flip upward and disengage from the drain outlet;

[0134] And / or, the transmission part moves to press against the blocking part and flips it downward until the blocking part covers and blocks the drain outlet, and the blocking part drives the rotating part to rotate in the opposite direction to reset.

[0135] In this embodiment, the rotating part is rotatably disposed above the drain outlet on the inner wall of the barrel. By rotating the rotating part, the blocking part can be flipped upward to disengage from the drain outlet, and / or the blocking part can be flipped downward to cover the drain outlet, so as to realize the opening and closing of the drain outlet. The structure is simple and easy to implement.

[0136] According to the present invention, a mop bucket has an extension extending into the bucket body above the drain outlet on the inner wall of the bucket body, and a rotating part is rotatably connected to the extension.

[0137] In this embodiment, an extension is provided above the drain outlet on the inner wall of the barrel. The extension extends into the barrel. The rotating part of the drainage component can be rotatably connected to the extension so that the rotating part is rotatably positioned in the area of ​​the inner wall of the barrel near the drain outlet, thereby cooperating with the transmission part and the blocking part to realize the opening and closing of the drain outlet.

[0138] According to the present invention, a mop bucket has two lugs on the upper side of the extension, each lug having a mounting hole. Both sides of the rotating part have protrusions, and the two protrusions are respectively rotatably mounted in the mounting holes on the two lugs, so that the rotating part is rotatably mounted on the extension.

[0139] This embodiment provides a specific implementation of a rotatable connection between the rotating part and the extension part. Specifically, the upper side of the extension part is provided with two lugs, and the lugs are provided with mounting holes. Correspondingly, both sides of the rotating part are provided with protrusions. The two protrusions can be rotatably installed in the mounting holes of the two lugs, so that the rotating part is rotatably installed on the extension part, and then rotatably connected to the inner wall of the barrel. The rotatable connection structure is simple and easy to install and use.

[0140] According to the present invention, a mop bucket has an elastic component provided between the rotating part and the inner wall of the bucket.

[0141] The transmission part moves against the blocking part and moves closer to the drain outlet. The blocking part drives the rotating part to rotate in the opposite direction. The rotating part causes the elastic component to deform to store force.

[0142] And / or, the transmission part moves to avoid the drainage assembly, causing the elastic component to unload the force and drive the rotating part to rotate in the forward direction, so that the rotating part can drive the blockage part to move away from the drain outlet.

[0143] In this embodiment, an elastic component is provided between the rotating part and the inner wall of the tank. During actual use, the movement of the transmission part can push the blockage part towards the drain outlet. At this time, the blockage part will drive the rotating part to rotate in the opposite direction away from the inner wall of the tank, and the elastic component will deform to store force. In addition, the movement of the transmission part can avoid the drainage assembly. At this time, the transmission part no longer applies a force to the blockage part, and the elastic component will release the force to drive the rotating part to rotate forward towards the inner wall of the tank, thereby driving the blockage part to move until it is removed from the drain outlet. By setting the elastic component in conjunction with the movement of the transmission part, the drainage assembly can be driven to disengage from or block the drain outlet. The structure is simple and easy to replace, and it can effectively ensure the normal operation of the drainage assembly.

[0144] According to the present invention, a mop bucket has an elastic component that is a torsion spring, one end of which abuts against a rotating part and the other end of which abuts against the inner wall of the bucket.

[0145] In this embodiment, the aforementioned elastic component can be a torsion spring. One end of the torsion spring abuts against the rotating part, and the other end abuts against the inner wall of the barrel. It generates elastic deformation through torsion. When the rotating part rotates away from the inner wall of the barrel, the torsion spring undergoes elastic deformation to store force; and when the rotating part rotates towards the inner wall of the barrel, the torsion spring releases force and resets. This application uses a torsion spring as the elastic component, resulting in a simple structure that can cooperate with the movement of the transmission part to drive the drainage assembly to disengage from or block the drain outlet.

[0146] According to the present invention, a mop bucket is provided with an abutting part on the side of the drainage component near the transmission part, and the abutting part abuts against the transmission part.

[0147] The transmission unit drives the drainage component to move through the pressing and contacting part until the drainage component blocks the drain outlet.

[0148] In this embodiment, the drainage component is provided with an abutting part on the side near the transmission part. The transmission part specifically drives the blocking part in the drainage component to disengage or block the drain outlet by abutting the abutting part. The abutting part and the transmission part are effectively abutted, which facilitates the smooth opening of the drain outlet.

[0149] According to the present invention, a mop bucket has a sliding surface in its transmission part. When the transmission part drives the drainage component to move by pressing the abutment part, the abutment part slides along the sliding surface.

[0150] In this embodiment, a contact part is provided on the drainage component, and a sliding surface is provided on the transmission part. When the transmission part drives the drainage component to move by pressing against the contact part, the contact part can slide along the sliding surface. While achieving the pressing effect, the friction between the drainage component and the transmission part is reduced to a certain extent, thereby improving the service life of the drainage component and the transmission part.

[0151] According to the present invention, a mop bucket has a sliding surface that is arc-shaped or inclined. The transmission part presses against the abutting part, causing the abutting part to slide along the arc-shaped or inclined surface. The sliding of the abutting part along the arc-shaped or inclined surface drives the drainage component to rotate and block the drain outlet.

[0152] In this embodiment, the sliding surface can be set as an arc-shaped surface or an inclined surface. During the process of the transmission part pressing the abutment part and the drainage component resetting after the pressing is stopped, the abutment part can slide more smoothly on the sliding surface, making it easier for the user to open or close the drain outlet using the transmission part.

[0153] According to the present invention, a mop bucket is provided with a guide wheel or ball bearing at the end of the abutment part near the transmission part.

[0154] In this embodiment, a guide wheel or ball is provided at one end of the abutment part near the transmission part. The guide wheel or ball can slide on the sliding surface. The guide wheel or ball further reduces the friction between the abutment part and the transmission part, improves the service life of the drainage component and the transmission part, and facilitates the abutment part to slide more smoothly on the sliding surface, thereby improving the user experience.

[0155] According to the present invention, a mop bucket has a drainage assembly including a rotating part and a blocking part. The rotating part is rotatably disposed in the area of ​​the inner wall of the bucket near the drain outlet, and the blocking part abuts against the transmission part. The abutting part is disposed on the side of the blocking part close to the transmission part.

[0156] In this embodiment, the abutting part is disposed on the side of the blocking part close to the transmission part. The transmission part can indirectly press the blocking part through the abutting part, thereby causing the blocking part to rotate toward the drain outlet until the drain outlet is blocked. Compared with direct pressing, indirect pressing through the abutting part does not require restriction on the relative positional relationship between the blocking part and the transmission part, making it easier to adjust the position of the blocking part and the transmission part more flexibly.

[0157] According to the present invention, a mop bucket has a transmission part that is raised and lowered along the axial direction of the bucket body, and the mop is driven to move the transmission part up and down along the axial direction of the bucket body.

[0158] When the mop is driven to raise the transmission unit to the high position of the bucket, the transmission unit drives the drainage component to move and disengage from the drain outlet, so that the wastewater from washing the mop in the bucket can be discharged through the drain outlet.

[0159] And / or, when the mop is driven to lower the transmission unit to the lowest position of the bucket, the transmission unit drives the drainage component to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate cleaning the mop.

[0160] In this embodiment, the aforementioned transmission unit can be raised and lowered along the axial direction of the bucket. When the mop is driven to raise the transmission unit to a high position on the bucket, the transmission unit will drive the drainage component to move and disengage from the drain outlet, thereby opening the drain outlet to discharge wastewater. When the mop is driven to lower the transmission unit to a low position on the bucket, the transmission unit will drive the drainage component to move and block the drain outlet, thereby closing the drain outlet and allowing cleaning water to accumulate inside the bucket for washing the mop. The user can control the mop to drive the transmission unit to move up and down axially, thereby causing the drainage component to disengage from or block the drain outlet, facilitating user operation.

[0161] According to the present invention, a mop bucket is provided in which the drainage component and the transmission part are connected by a linkage mechanism.

[0162] The transmission unit drives the linkage mechanism, which in turn drives the drainage assembly.

[0163] In this embodiment, the drainage component and the transmission part can be connected by a linkage mechanism. Specifically, the transmission part can drive the linkage mechanism to move, thereby indirectly driving the drainage component to move, so as to disengage from or block the drain outlet. Through indirect transmission via the linkage mechanism, the relative positional relationship between the drainage component and the transmission part does not need to be restricted, which makes it easier to adjust the position of the drainage component and the transmission part more flexibly.

[0164] According to the present invention, a mop bucket has a linkage mechanism on one side fixedly connected to the side of the drainage assembly near the transmission part, and the other side of the linkage mechanism fixedly connected to the side of the transmission part not driven by the mop.

[0165] The mop is driven to move the transmission part, which in turn drives the linkage mechanism, which in turn drives the drainage component to move and disengage from the drain outlet.

[0166] And / or, the mop is driven to move the transmission part, the movement of the transmission part drives the linkage mechanism, and the movement of the linkage mechanism drives the drainage component to move and block the drain outlet.

[0167] This embodiment provides a specific implementation of a linkage mechanism. Specifically, one side of the linkage mechanism is fixedly connected to the side of the drainage assembly near the transmission unit, and the other side is fixedly connected to the side of the transmission unit not driven by the mop. By linking the drainage assembly and the transmission unit through the linkage mechanism, the relative positional relationship between the drainage assembly and the transmission unit is not restricted, allowing for more flexible adjustment of their positions, while effectively opening or closing the drain outlet.

[0168] According to the present invention, a mop bucket has a drainage assembly including a rotating part and a blocking part. The rotating part is rotatably disposed in the area of ​​the inner wall of the bucket adjacent to the drain outlet, and the blocking part is fixedly connected to one side of the linkage mechanism.

[0169] In this embodiment, the drainage assembly includes a rotating part and a blocking part. The blocking part is fixedly connected to one side of the linkage mechanism and can disengage from or block the drain outlet under the drive of the linkage mechanism. Through the indirect transmission of the linkage mechanism, there is no need to restrict the relative positional relationship between the blocking part and the transmission part, which makes it easier to adjust the position of the blocking part and the transmission part more flexibly.

[0170] According to the present invention, a mop bucket has a transmission part that is raised and lowered along the axial direction of the bucket body, and the mop is driven to move the transmission part up and down along the axial direction of the bucket body.

[0171] When the mop is driven to lower the transmission part to the low position of the bucket, the transmission part drives the linkage mechanism to move towards the drain assembly. The movement of the linkage mechanism drives the drain assembly to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate cleaning the mop.

[0172] And / or, when the mop is driven to raise the transmission unit to the high position of the bucket, the transmission unit drives the linkage mechanism to move away from the drain assembly. The movement of the linkage mechanism drives the drain assembly to move and disengage from the drain outlet, so that the wastewater from washing the mop in the bucket can be discharged through the drain outlet.

[0173] In this embodiment, the transmission unit can be raised and lowered along the axial direction of the bucket. When the mop is driven to lower the transmission unit to the low position of the bucket, the transmission unit can drive the linkage mechanism to move towards the drain assembly, thereby driving the drain assembly to move and block the drain outlet, so as to collect cleaning water in the bucket to wash the mop. When the mop is driven to raise the transmission unit to the high position of the bucket, the transmission unit can drive the linkage mechanism to move away from the drain assembly, thereby driving the drain assembly to move and disengage from the drain outlet, so as to discharge sewage through the drain outlet. The user can control the mop to drive the transmission unit to rise and fall axially, thereby linking the drain assembly to disengage from or block the drain outlet through the linkage mechanism, which is convenient for the user to operate.

[0174] According to the present invention, a spring is provided between the transmission part and the bottom wall of the bucket body;

[0175] When the mop is driven to lower the transmission part to the low position of the bucket, the transmission part presses the spring and drives the linkage mechanism to move towards the drain assembly. The movement of the linkage mechanism drives the drain assembly to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate cleaning the mop.

[0176] And / or, when the mop stops being driven, the spring unloads the force and drives the transmission part to rise to the high position of the bucket. The movement of the transmission part drives the linkage mechanism to move away from the drain assembly. The movement of the linkage mechanism drives the drain assembly to move and disengage from the drain outlet, so that the wastewater from washing the mop in the bucket can be discharged through the drain outlet.

[0177] In this embodiment, a spring is provided between the transmission part and the bottom wall of the bucket. Specifically, during use, when the user drives the transmission part to the low position of the bucket, the transmission part will press the spring to generate deformation. The spring is compressed and stores force. When the user stops driving the transmission part with the mop, the spring is released and reset, which will drive the transmission part to the high position of the bucket for dehydration. Then, through the linkage mechanism, the drainage component is driven to move and disengage from the drain outlet to open the drain outlet and discharge sewage. Attached Figure Description

[0178] 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.

[0179] Figure 1 This is one of the structural schematic diagrams of the mop bucket provided by this utility model;

[0180] Figure 2 This is the second structural schematic diagram of the mop bucket provided by this utility model;

[0181] Figure 3 This is a schematic diagram of the drainage component in the mop bucket provided by this utility model;

[0182] Figure 4 This is the third structural schematic diagram of the mop bucket provided by this utility model;

[0183] Figure 5 This is the fourth structural schematic diagram of the mop bucket provided by this utility model;

[0184] Figure 6 This is the fifth structural schematic diagram of the mop bucket provided by this utility model;

[0185] Figure 7 This is the sixth structural schematic diagram of the mop bucket provided by this utility model;

[0186] Figure 8 This is the seventh structural schematic diagram of the mop bucket provided by this utility model;

[0187] Figure 9 This is one of the structural schematic diagrams of the water-spraying plate in the mop bucket provided by this utility model;

[0188] Figure 10 This is the second schematic diagram of the water-spraying plate in the mop bucket provided by this utility model;

[0189] Figure 11 This is the eighth structural schematic diagram of the mop bucket provided by this utility model;

[0190] Figure 12 This is a schematic diagram of the structure of the guide plate in the mop bucket provided by this utility model;

[0191] Figure 13 This is the ninth structural schematic diagram of the mop bucket provided by this utility model;

[0192] Figure 14 This is the tenth structural schematic diagram of the mop bucket provided by this utility model.

[0193] Figure label:

[0194] 10: Mop bucket; 20: Mop;

[0195] 101: Barrel body; 102: Drainage assembly; 103: Dewatering assembly; 104: Water lifting plate; 105: Guide plate; 106: Water inlet assembly; 107: Transmission unit; 108: Linkage mechanism; 109: Spring; 110: Lifting column;

[0196] 111: Support column;

[0197] 1021: Rotating part; 1022: Blocking part; 1023: Abutting part;

[0198] 1031: Dehydration basket; 1032: Support frame;

[0199] 1061: Water inlet pipe;

[0200] A: Drain outlet; B: Lug; C: Protrusion; D: Upstream direction of water flow after being agitated by the dewatering component; E: Downstream direction of water flow after being agitated by the dewatering component; F: Fan-shaped apex of the water-lifting plate; G: Arc-shaped transition surface between the upper side of the water-lifting plate and the inner wall of the tank; H: Vertical structure perpendicularly connecting the lower side of the water-lifting plate to the inner wall of the tank; I: High limit point of the guide plate track; J: Low limit point of the guide plate track; K: Water inlet; L: Water outlet; M: Sub-rod; N: Track on the inner wall of the support column. Detailed Implementation

[0201] 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.

[0202] 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.

[0203] 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.

[0204] 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.

[0205] The mop bucket of this utility model is described below with reference to the accompanying drawings.

[0206] According to one aspect, this utility model provides a mop bucket. Figure 1 This is one of the structural schematic diagrams of the mop bucket provided by this utility model, such as... Figure 1 As shown, the mop head of the mop 20 can be set in the mop bucket 10 for washing and wringing.

[0207] Figure 2 This is the second structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 2 As shown, Figure 2 The mop bucket 10 is a cross-sectional view. The mop bucket 10 includes: a bucket body 101, a drain outlet A provided in the bucket body 101, and a drain assembly 102 and a spin-dry assembly 103 movably disposed inside the bucket body 101.

[0208] like Figure 1 and Figure 2 As shown, the dehydration component 103 switches between a washing position and a dehydration position by moving within the tub 101. The mop 20, which extends into the tub 101 and is configured to cooperate with the dehydration component 103, performs washing in the washing position and dehydration in the dehydration position.

[0209] When the dehydration component 103 switches from the washing position to the dehydration position, the drainage component 102 is driven to move and disengage from the drain outlet A, so that the wastewater from washing the mop 20 in the tub 101 is discharged through the drain outlet A.

[0210] And / or, when the dehydration component 103 switches from the dehydration position to the washing position, the drainage component 102 is driven to move and block the drain outlet A, so that cleaning water is collected in the bucket 101 to facilitate washing the mop 20.

[0211] In some embodiments, a drain pipe may also be provided on the mop bucket 10, and the drain pipe is sealed to the drain outlet A, so as to discharge the sewage in the bucket 101 to the outside of the bucket through the drain pipe; the bucket 101 may also be provided with a handle or other components to facilitate the user to move the mop bucket 10.

[0212] For example, a drain outlet and a drain pipe sealed to the bottom of the tub 101 are provided. When the mop 20 inside the tub 101 is finished washing and is being spun dry, the wastewater inside the tub 101 can be discharged to the outside of the tub 101 through the drain pipe, so that the mop 20 can be spun dry more effectively and the wastewater can be prevented from contaminating the mop 20 again.

[0213] The mop bucket provided by this utility model has a drain outlet A inside the bucket body 101, and a drain assembly 102 and a dehydration assembly 103 are movably disposed inside the bucket body 101. The user can use the dehydration assembly 103 to cooperate with the mop 20, so that the mop 20 can be washed in the washing position and dehydrated in the dehydration position. When the dehydration assembly 103 moves between the washing position and the dehydration position, the drain assembly 102 will be driven to move and block or disengage from the drain outlet A, thereby closing or opening the drain outlet A. Specifically, when the user needs to wash the mop 20, the dehydration assembly 103 will switch from the dehydration position to the washing position. At this time, the drain assembly 102 will be driven to move and block the drain outlet A, so that cleaning water can be collected in the bucket body 101 for washing the mop 20. When the user needs to dehydrate the mop 20, the dehydration assembly 103 will switch from the washing position to the dehydration position. At this time, the drain assembly 102 will be driven to move and disengage from the drain outlet A, so that the wastewater from washing the mop 20 in the bucket body 101 can be discharged through the drain outlet A. Throughout the entire sewage discharge process, this application eliminates the need for the user to manually insert or remove the drain plug at drain outlet A. Instead, it utilizes the cooperation between the dehydration component 103 and the drainage component 102 to close or open drain outlet A, effectively improving the user experience.

[0214] In some embodiments, a specific implementation of the drainage component 102 is provided. For example... Figure 2 As shown, Figure 2 The image shows two states of the drainage component 102: detached from drain outlet A and blocked from drain outlet A. However, in actual use, the drainage component 102 is only in either the detached state or the blocked state. Specifically, the drainage component 102 is rotatably mounted inside the tank body 101.

[0215] When the dehydration component 103 switches from the washing position to the dehydration position, the drain component 102 is driven to rotate and disengage from the drain port A, so that the drain port A is opened.

[0216] And / or, when the dehydration assembly 103 switches from the dehydration position to the cleaning position, the drain assembly 102 is driven to rotate and block the drain port A, so that the drain port A is closed.

[0217] In this embodiment, the drainage component 102 is rotatably disposed inside the barrel 101. When the dehydration component 103 switches from the dehydration position to the cleaning position, the drainage component 102 is driven to rotate and blocks the drain port A, at which time the drain port A is closed. When the dehydration component 103 switches from the cleaning position to the dehydration position, the drainage component 102 is driven to rotate and disengages from the drain port A, at which time the drain port A is opened. By rotating the drainage component 102 to open or close the drain port A, the friction between the drainage component 102 and the drain port A can be effectively reduced, making the movement of the drainage component 102 more flexible.

[0218] In some embodiments, a specific implementation of the drainage component 102 is provided. Figure 3 This is a structural schematic diagram of the drainage component in the mop bucket provided by this utility model, as shown below. Figure 3 As shown, Figure 3 The image shows the drain assembly 102 detached from the drain outlet A. Specifically, the drain assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area adjacent to the drain outlet A on the inner side wall of the barrel 101, and the blocking part 1022 is connected to or abuts against the dewatering assembly 103.

[0219] When the dehydration assembly 103 moves from the cleaning position to the dehydration position, the rotating part 1021 is driven to rotate in the forward direction, which causes the blocking part 1022 to move away from the drain outlet A, so as to disengage from the drain outlet A.

[0220] And / or, when the dehydration assembly 103 switches from the dehydration position to the cleaning position, the dehydration assembly 103 drives the blocking part 1022 to move towards the drain outlet A until the blocking part 1022 covers and blocks the drain outlet A, and the blocking part 1022 drives the rotating part 1021 to rotate in the opposite direction to reset.

[0221] In this embodiment, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area adjacent to the drain outlet A on the inner side wall of the barrel 101. The blocking part 1022 is connected to or abuts against the dehydration assembly 103 to block the drain outlet A. In actual use, when the dehydration assembly 103 switches from the washing position to the dehydration position, the rotating part 1021 will be driven to rotate in the forward direction, thereby driving the blocking part 1022 to move away from the drain outlet A to open the drain outlet A. When the dehydration assembly 103 switches from the dehydration position to the washing position, the dehydration assembly 103 will drive the blocking part 1022 to move closer to the drain outlet A until the blocking part 1022 covers and blocks the drain outlet A to close the drain outlet A. During this process, the blocking part 1022 will drive the rotating part 1021 to rotate in the opposite direction to reset. Through the cooperation between the rotating part 1021 and the blocking part 1022 and the dehydration assembly 103, the opening and closing of the drain outlet A is realized.

[0222] In some embodiments, Figure 4 This is the third structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 4 As shown, the rotating part 1021 is rotatably disposed above the drain outlet A on the inner side wall of the barrel 101, and the blocking part 1022 abuts against the dewatering assembly 103.

[0223] It should be noted that, Figure 4 The diagram also shows two states of the drainage component 102: detached from drain outlet A and blocked from drain outlet A. However, in actual use, the drainage component 102 is only in the state of being detached from drain outlet A or in the state of being blocked from drain outlet A.

[0224] When the dehydration assembly 103 moves from the cleaning position to the dehydration position, the rotating part 1021 is driven to rotate in the forward direction, causing the blocking part 1022 to flip upward to disengage from the drain port A;

[0225] And / or, when the dehydration component 103 switches from the dehydration position to the cleaning position, the dehydration component 103 presses against the blocking part 1022 and flips downward until the blocking part 1022 covers and blocks the drain outlet A, and the blocking part 1022 drives the rotating part 1021 to rotate in the opposite direction to reset.

[0226] In this embodiment, the rotating part 1021 is rotatably disposed above the drain outlet A on the inner side wall of the barrel 101, and the blocking part 1022 abuts against the dewatering component 102. By rotating the rotating part 1021, the blocking part 1022 can be rotated upward to disengage from the drain outlet A, and / or the dewatering component 102 abuts against and rotates the blocking part 1022 downward to cover the drain outlet A, so as to realize the opening and closing of the drain outlet A. The structure is simple and easy to implement.

[0227] In some embodiments, such as Figure 3 and Figure 4 As shown, an extension extending toward the center of the barrel 101 is provided on the inner side wall of the barrel 101 above the drain outlet A, and the rotating part 1021 is rotatably connected to the extension.

[0228] In this embodiment, an extension is provided above the drain outlet A on the inner sidewall of the barrel 101. The extension extends toward the center of the barrel 101. The rotating part 1021 of the drain assembly 102 can be rotatably connected to the extension so that the rotating part 1021 is rotatably positioned in the area of ​​the inner sidewall of the barrel 101 near the drain outlet A, thereby cooperating with the dewatering assembly 103 and the blocking part 1022 to realize the opening and closing of the drain outlet A.

[0229] In some embodiments, a specific implementation of a rotatable connection between the rotating portion 1021 and the extension portion is provided. For example... Figure 3 and Figure 4 As shown, the upper side of the extension is provided with two lugs B, and the lugs B are provided with mounting holes. Both sides of the rotating part 1021 are provided with protrusions C. The two protrusions C are respectively rotatably disposed in the mounting holes on the two lugs B, so that the rotating part 1021 is rotatably disposed in the extension.

[0230] In this embodiment, two lugs B are provided on the upper side of the extension, and mounting holes are provided on the lugs B. Correspondingly, protrusions C are provided on both sides of the rotating part 1021. The two protrusions C can be rotatably disposed in the mounting holes of the two lugs B respectively, so that the rotating part 1021 is rotatably disposed on the extension, and then rotatably connected to the inner wall of the barrel 101. The rotatable connection structure is simple and easy to install and use.

[0231] It should be noted that, Figure 2 and Figure 3 and Figure 4 The specific structure of the drainage component 102 shown in the figure and the way it is set with the barrel 101 are slightly different, but they can all be used in conjunction with the dewatering component 103 to open and close the drain port A.

[0232] In some embodiments, such as Figure 3 and Figure 4 As shown, an elastic component is provided between the rotating part 1021 and the inner wall of the barrel body 101;

[0233] When the dehydration component 103 switches from the dehydration position to the cleaning position, the dehydration component 103 presses against the blockage part 1022 and moves towards the drain outlet A. The blockage part 1022 drives the rotating part 1021 to rotate in the opposite direction. The rotating part 1021 drives the elastic component to deform to store force.

[0234] And / or, when the dehydration assembly 103 moves from the washing position to the dehydration position, the elastic member unloads the force and drives the rotating part 1021 to rotate in the forward direction, so as to drive the blockage part 1022 to move away from the drain outlet A.

[0235] In this embodiment, an elastic component is provided between the rotating part 1021 and the inner wall of the barrel 101. During use, when the dehydration assembly 103 switches from the dehydration position to the washing position, the dehydration assembly 103 presses against the blocking part 1022 and moves it towards the drain outlet A. At this time, the blocking part 1022 drives the rotating part 1021 to rotate in the opposite direction away from the inner wall of the barrel 101, and the elastic component deforms to store force. When the dehydration assembly 103 switches from the washing position to the dehydration position, the dehydration assembly 103 no longer applies a pressing force to the blocking part 1022. At this time, the elastic component releases the force and drives the rotating part 1021 to rotate forward towards the inner wall of the barrel 101, thereby moving the blocking part 1022 until it disengages from the drain outlet A. By providing an elastic component in conjunction with the movement of the dehydration assembly 103, the drain assembly 102 can be driven to disengage from or block the drain outlet A. The structure is simple and easy to replace, effectively ensuring the normal operation of the drain assembly 102.

[0236] In some embodiments, the elastic member is a torsion spring, one end of which abuts against the rotating part 1021 and the other end of which abuts against the inner wall of the barrel 101.

[0237] In this embodiment, the elastic component can be a torsion spring. One end of the torsion spring abuts against the rotating part 1021, and the other end abuts against the inner wall of the barrel 101. It generates elastic deformation through torsion. When the rotating part 1021 rotates away from the inner wall of the barrel 101, the torsion spring undergoes elastic deformation to store force; and when the rotating part 1021 rotates towards the inner wall of the barrel 101, the torsion spring releases force and resets. This application uses a torsion spring as an elastic component, which has a simple structure and can cooperate with the movement of the dewatering assembly 103 to drive the drainage assembly 102 to disengage from or block the drain outlet A.

[0238] In some embodiments, such as Figure 3 and Figure 4 As shown, the drainage component 102 is provided with an abutment portion 1023 on the side near the dewatering component 103, and the abutment portion 1023 abuts against the dewatering component 103;

[0239] When the dehydration component 103 switches from the dehydration position to the cleaning position, the dehydration component 103 drives the drainage component 102 to move through the pressing and contacting part 1023 until the drainage component 102 blocks the drain outlet A.

[0240] In this embodiment, the drainage component 102 is provided with an abutment portion 1023 on the side near the dehydration component 103. Specifically, the dehydration component 103 abuts against the abutment portion 1023 to drive the blockage portion 1022 in the drainage component 102 to disengage from or block the drain outlet A. The abutment portion 1023 and the dehydration component 103 are effectively abutted against each other, which facilitates the smooth opening of the drain outlet A.

[0241] In some embodiments, such as Figures 1 to 4 As shown, the dewatering component 103 is provided with a sliding surface. When the dewatering component 103 drives the drainage component 102 to move through the abutting part 1023, the abutting part 1023 slides along the sliding surface.

[0242] In this embodiment, a contact portion 1023 is provided on the drainage component 102, and a sliding surface is provided on the dehydration component 103. When the dehydration component 103 moves the drainage component 102 by pressing against the contact portion 1023, the contact portion 1023 can slide along the sliding surface. While achieving the pressing effect, the friction between the drainage component 102 and the dehydration component 103 is reduced to a certain extent, thereby improving the service life of the drainage component 102 and the dehydration component 103.

[0243] In some embodiments, the sliding surface is an arc-shaped surface or an inclined surface. The dewatering component 103 presses against the abutment portion 1023, causing the abutment portion 1023 to slide along the arc-shaped surface or the inclined surface. The sliding of the abutment portion 1023 along the arc-shaped surface or the inclined surface causes the drainage component 102 to rotate and block the drain outlet A.

[0244] In this embodiment, the sliding surface can be set as an arc-shaped surface or an inclined surface. The arc-shaped surface or inclined surface is adapted to the shape of the dehydration component 103, such as a dehydration basket, which can accommodate the mop head. Setting such a sliding surface is more convenient. In the process of the dehydration component 103 pressing against the abutment part 1023 and the drain component 102 resetting after no longer pressing, the abutment part 1023 can slide more smoothly on the sliding surface, which makes it easier for the user to open or close the drain port A using the dehydration component 103.

[0245] In some embodiments, such as Figure 3 and Figure 4 As shown, the end of the contact portion 1023 near the dehydration component 103 is provided with a guide wheel or ball bearing. The figure shows an example with a guide wheel.

[0246] In this embodiment, a guide wheel or ball is provided at one end of the contact portion 1023 near the dehydration component 103. The guide wheel or ball can slide on the sliding surface. Providing a guide wheel or ball further reduces the friction between the contact portion 1023 and the dehydration component 103, improves the service life of the drainage component 102 and the dehydration component 103, and facilitates the contact portion 1023 to slide more smoothly on the sliding surface, thereby improving the user experience.

[0247] In other embodiments, the end of the contact portion 1023 near the dehydration component 103 may also be configured as a plane to facilitate sliding connection with the sliding surface.

[0248] In some embodiments, such as Figure 3 and Figure 4 As shown, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area of ​​the inner side wall of the barrel 101 near the drain outlet A. The blocking part 1022 abuts against the dewatering assembly 103. The abutting part 1023 is disposed on the side of the blocking part 1022 near the dewatering assembly 103.

[0249] In this embodiment, the abutment portion 1023 is disposed on the side of the blockage portion 1022 close to the dewatering component 103. The dewatering component 103 can indirectly press the blockage portion 1022 through the abutment portion 1023, thereby causing the blockage portion 1022 to rotate toward the drain outlet A until the drain outlet A is blocked. Compared with direct pressing, indirect pressing through the abutment portion 1023 does not require limiting the relative positional relationship between the blockage portion 1022 and the dewatering component 103, making it easier to adjust the positions of the blockage portion 1022 and the dewatering component 103 more flexibly.

[0250] In some embodiments, a specific implementation of the dehydration component 102 is provided. Figure 5 This is the fourth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 5 As shown, the dehydration assembly 103 includes a dehydration basket 1031, and a sliding surface is disposed on the outer side wall of the dehydration basket 1031.

[0251] In this embodiment of the application, the dehydration component 103 may include a dehydration basket 1031, and the aforementioned sliding surface is disposed on the outer side wall of the dehydration basket 1031. The user can move the dehydration basket 1031 by placing and driving the mop 20 in the dehydration basket 1031, and then indirectly press the blockage part 1022 by pressing the abutment part 1023 until it blocks the drain outlet A.

[0252] In some embodiments, such as Figure 5 As shown, the dehydration basket 1031 is vertically and vertically disposed inside the barrel 101, and the dehydration basket 1031 is driven to rise and fall within the barrel 101 to switch between the washing position and the dehydration position.

[0253] In this embodiment, the dehydration basket 1031 can be raised and lowered within the barrel 101. Specifically, the dehydration basket 1031 is driven to rise and fall within the barrel 101 to switch between a lower washing position and a higher dehydration position, while simultaneously causing the drain assembly 102 to disengage from or block the drain outlet A.

[0254] In some embodiments, another specific implementation of the dehydration component is provided. For example... Figure 5 As shown, the dehydration assembly 103 includes a dehydration basket 1031 and a support 1032. The support 1032 drives the dehydration basket 1031 to move up and down within the barrel 101 to switch between the washing position and the dehydration position. The sliding surface is provided on the side of the support 1032 near the bottom of the barrel 101.

[0255] Specifically, such as Figure 5 As shown, the bracket 1032 can be set below the dehydration basket 1031. The user supports and drives the dehydration basket 1031 to rise and fall, so as to switch between the washing position and the dehydration position.

[0256] In this embodiment, the dehydration component 103 may include a dehydration basket 1031 and a support 1032. The support 1032 drives the dehydration basket 1031 to move up and down within the barrel 101 to switch between a lower washing position and a higher dehydration position. The support 1032 abuts against the drain component 102 to drive the drain component 102 to detach from or block the drain outlet A. Therefore, the sliding surface can be set on the side of the support 1032 near the bottom of the barrel 101 so that it slides against the abutment part 1023 of the drain component 102.

[0257] In some embodiments, such as Figure 5 As shown, the spin-dry basket 1031 is rotatably connected to the bracket 1032. In the washing position and / or the spin-drying position, the spin-dry basket 1031 is driven to rotate relative to the bracket 1032 so that the mop 20 can be washed in the washing position and dehydrated in the spin-drying position.

[0258] In this embodiment, the spin-dry basket 1031 and the bracket 1032 are rotatably connected. When the bracket 1032 drives the spin-dry basket 1031 to the washing position, the spin-dry basket 1031 can be driven to rotate relative to the bracket 1032 to drive the mop 20 to rotate and wash in the cleaning water. When the bracket 1032 drives the spin-dry basket 1031 to the dehydration position, the spin-dry basket 1031 can also be driven to rotate relative to the bracket 1032 to facilitate the rotation and dehydration of the mop 20.

[0259] In some embodiments, Figure 6 This is the fifth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 6As shown, the drainage assembly 102 and the dewatering assembly 103 can be connected by a linkage mechanism 108;

[0260] When the dehydration component 103 moves from the cleaning position to the dehydration position, it drives the drainage component 102 to move through the linkage mechanism 108 so as to disengage from the drain outlet A.

[0261] And / or, when the dehydration component 103 switches from the dehydration position to the cleaning position, the drain component 102 is moved by the linkage mechanism 108 to block the drain port A.

[0262] In this embodiment, the drainage component 102 and the dehydration component 103 can be connected by a linkage mechanism 108. Specifically, the dehydration component 103 can indirectly drive the drainage component 102 to move by driving the linkage mechanism 108, so as to disengage from or block the drain outlet A. Through indirect transmission via the linkage mechanism 108, the relative positional relationship between the drainage component 102 and the dehydration component 103 does not need to be restricted, which makes it easier to adjust the positions of the drainage component 102 and the dehydration component 103 more flexibly.

[0263] In some embodiments, a specific implementation of the driven activity of the drainage component 102 is provided. For example... Figure 6 As shown, the drain assembly 102 is slidably or rotatably disposed within the barrel 101; when the dehydration assembly 103 moves from the washing position to the dehydration position, the drain assembly 102 is driven to slide or rotate within the barrel 101 via the linkage mechanism 108, so that the drain outlet A is opened; and / or, when the dehydration assembly 103 switches from the dehydration position to the washing position, the drain assembly 102 is driven to slide or rotate within the barrel 101 via the linkage mechanism 108, so as to block the drain outlet A.

[0264] For example, a slide rail is provided at the bottom of the barrel 101, and the drain assembly 102 is slidably disposed in the slide rail. When the dehydration assembly 103 moves from the washing position to the dehydration position, the linkage mechanism 108 moves along the barrel 101, causing the drain assembly 102 to slide along the slide rail away from the drain outlet A, thereby opening the drain outlet A. When the dehydration assembly 103 switches from the dehydration position to the washing position, the linkage mechanism 108 moves along the barrel 101, causing the drain assembly 102 to slide along the slide rail towards the drain outlet A until it covers the drain outlet A and seals against the drain outlet A to block it. Specifically, the slide rail can extend axially along the drain outlet A to improve the stability of the sliding of the drain assembly 102.

[0265] In this embodiment, the drainage component 102 is slidably or rotatably disposed inside the barrel 101. The dewatering component 103 can drive the drainage component 102 to slide or rotate inside the barrel 101 through a linkage mechanism to detach from or block the drain outlet A.

[0266] In some embodiments, Figure 7 This is the sixth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 6 and Figure 7 As shown, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area adjacent to the drain outlet A on the inner side wall of the barrel 101. The linkage mechanism 108 includes a plurality of sub-rods M, which are rotatably connected in sequence. The sub-rods M at both ends of the linkage mechanism 108 are rotatably connected to the blocking part 1022 of the dewatering assembly 103 and the drainage assembly 102, respectively.

[0267] When the dehydration assembly 103 moves from the washing position to the dehydration position, the multiple sub-rods M slide and / or rotate relative to each other within the barrel 101, causing the blocking part 1022 to flip relative to the drain port A through the rotating part 1021 in a direction away from the drain port A, so as to disengage from the drain port A; and / or, when the dehydration assembly 103 switches from the dehydration position to the washing position, the multiple sub-rods M slide and / or rotate relative to each other within the barrel 101, causing the blocking part 1022 to flip relative to the drain port A through the rotating part 1021 in a direction closer to the drain port A, so as to block the drain port A.

[0268] In this embodiment, the drainage component 102 includes a rotating part 1021 and a blocking part 1022. The linkage mechanism 108 includes multiple sub-rods M, which are rotatably connected in sequence. The sub-rods M at both ends of the linkage mechanism 108 are rotatably connected to the blocking parts 1022 of the dehydration component 103 and the drainage component 102, respectively. In actual use, when the dehydration component 103 moves to the dehydration position, the multiple sub-rods M slide and / or rotate relative to each other in the barrel 101, thereby causing the blocking part 1022 to flip away from the drain outlet A, so as to disengage from the drain outlet A. When the dehydration component 103 moves to the cleaning position, the multiple sub-rods M slide and / or rotate relative to each other in the barrel 101, thereby causing the blocking part 1022 to flip towards the drain outlet A, so as to block the drain outlet A. Through the cooperation between the linkage mechanism 108 and the rotating part 1021 and the blocking part 1022 in the drainage component 102, the opening and closing of the drain outlet A is realized. The structure is simple and easy to operate.

[0269] In some embodiments, such as Figure 6 As shown, the dehydration assembly 103 includes a dehydration basket 1031 and a lifting column 110 supporting the dehydration basket. The lifting column 110 is vertically and vertically disposed in the barrel 101, and the linkage mechanism 108 is rotatably connected to the lifting column 110.

[0270] The dehydration basket 1031 is driven to move from the washing position to the dehydration position, which causes the lifting column 110 to rise. The lifting column 110 drives the linkage mechanism 108 to move. The linkage mechanism 108 drives the drainage component 102 to slide or rotate inside the barrel 101, so that the drain outlet A is opened.

[0271] And / or, the dehydration basket 1031 is driven to switch from the dehydration position to the washing position, which causes the lifting column 110 to lower. The lifting column 110 drives the linkage mechanism 108 to move, and the linkage mechanism 108 drives the drainage component 102 to slide or rotate inside the barrel 101 to block the drain port A.

[0272] In this embodiment, the dehydration component 103 may include a dehydration basket 1031 and a lifting column 110 supporting the dehydration basket. The linkage mechanism 108 may be rotatably connected to the lifting column 110. When the dehydration basket 1031 moves to the dehydration position, it will drive the lifting column 110 to rise or fall, thereby driving the linkage mechanism 108 to move. The linkage mechanism 108 will then drive the drainage component 102 to slide or rotate in different directions within the barrel 101 to open or close the drain outlet A.

[0273] In some embodiments, such as Figure 6 As shown, a hollow support column 111 is provided inside the barrel 101, and a lifting column 110 is provided in the hollow area of ​​the support column 111. The dehydration basket 1031 is supported on the top of the lifting column 110.

[0274] The inner wall of the support column 111 is provided with a track N, which has a high limit point and a low limit point. The lifting column 110 is slidably connected to the track N.

[0275] The dehydration basket 1031 is driven to move from the washing position to the dehydration position, which causes the lifting column 110 to rise. The lifting column 110 slides along the track to the high limit point, which limits the dehydration basket 1031 at the high position of the barrel 101. The lifting column 110 drives the linkage mechanism 108 to move. The linkage mechanism 108 drives the drainage component 102 to slide or rotate inside the barrel 101, so that the drain port A is opened.

[0276] And / or, the dehydration basket 1031 is driven to switch from the dehydration position to the cleaning position, which causes the lifting column 110 to be lowered. The lifting column 110 slides along the track N to the low limit point, limiting the dehydration basket 1031 to the low position of the barrel 101. The lifting column 110 drives the linkage mechanism 108 to move. The linkage mechanism 108 drives the drainage component 102 to slide or rotate inside the barrel 101 to block the drain port A.

[0277] In this embodiment, a hollow support column 111 is provided inside the barrel 101. A lifting column 110 can be set in the hollow area of ​​the support column 111 and slides between the high limit point and the low limit point along the track N on the support column 111. This causes the dehydration basket 1031 at the top of the lifting column 110 to move between the high and low positions of the barrel 101. The track N on the support column 111 can effectively constrain the movement path of the lifting column 110, thereby effectively constraining the movement path of the dehydration basket 1031. This ensures that it can cooperate with the linkage mechanism 108 and the drainage component 102 to open and close the drain outlet A, thus improving drainage stability.

[0278] It should be noted that, as Figure 7 As shown, the inner wall of the support column 111 can also be provided with an abutment surface P. When the lifting column 110 moves upward, one end of the sub-rod M connected to the lifting column 110 is driven upward by the lifting column 110, and the other end slides along the abutment surface P, so that the sub-rod M and the adjacent sub-rod M rotate relative to each other, thereby driving the drainage component 102 to slide or rotate in the tank 101 to disengage from the drain outlet A; conversely, when the lifting column 110 moves downward, one end of the sub-rod M connected to the lifting column 110 is driven downward by the lifting column 110, and the other end slides along the abutment surface P until it disengages from the abutment surface P, so that the sub-rod M and the adjacent sub-rod M rotate relative to each other, thereby driving the drainage component 102 to slide or rotate in the tank 101 to block the drain outlet A.

[0279] In some embodiments, such as Figure 6 As shown, an auxiliary elastic element is provided between the lifting column 110 and the barrel 101;

[0280] The dehydration basket 1031 is driven to move from the washing position to the dehydration position, which causes the lifting column 110 to rise, and the auxiliary elastic element to deform to store force.

[0281] And / or, the auxiliary elastic element relieves the force, causing the lifting column 110 to lower.

[0282] In this embodiment, an auxiliary elastic element, such as a spring or torsion spring, is provided between the lifting column 110 and the tub 101. Specifically, during use, when the user drives the spin-dry basket 1031 to rise, the lifting column 110 will stretch the auxiliary elastic element to deform and store force. When the user stops driving the spin-dry basket 1031 with the mop, the auxiliary elastic element will release the force and reset, which will drive the lifting column 110 to lower, thereby blocking the drain outlet A and closing the drain outlet A.

[0283] In some embodiments, Figure 8 This is the seventh structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 8As shown, the dehydration component 103 is rotatably connected to the tub 101. In the cleaning position, the dehydration component 103 is driven to rotate so as to clean the mop 20 with the cleaning water collected in the tub 101.

[0284] A water-lifting component is provided at the bottom of the inner side wall of the tank 10, and the water-lifting component extends away from the side wall of the tank 101.

[0285] When the dehydration component 103 rotates and agitates the water gathered inside the barrel 101 to form a water flow that rises to the water lifting component, the water lifting component blocks the water flow from continuing to rise along the inner side wall of the barrel 101 and guides the flow of water toward the center of the barrel 101, so that the water flow is sprayed away from the side wall of the barrel 101.

[0286] For example, the water-lifting component extends away from the side wall of the tank 101, meaning that as the water-lifting component extends, the distance between it and the center of the tank 101 decreases. Optionally, the extension direction of the water-lifting component can be from the side wall of the tank 101 towards the center of the tank 101. Assuming the cross-section of the tank 101 is circular, the water-lifting component can extend along the direction of a chord of the circle. This chord can be any chord of the circle that passes through the diameter of the water-lifting component, or any chord of the circle that passes through a non-diameter chord of the water-lifting component.

[0287] For example, the water-spraying component can prevent the water flow from continuing to rise along the side wall inside the bucket 101 and guide the water flow towards the center of the bucket 101, causing the water to be sprayed away from the side wall of the bucket 101. The water flow blocked by the water-spraying component can be sprayed along a reference direction containing the shortest distance from the water-spraying component to the center of the bucket 101, or it can be sprayed in other directions deviating from this reference direction. As long as the distance between the water flow blocked by the water-spraying component and the side wall of the bucket 101 increases after spraying, at least some of the water with a longer spray distance will be absorbed by the wiping material of the mop head located inside the mop bucket, so that the liquid at the bottom of the bucket 101 can effectively wet the wiping material of the mop head and improve the cleaning efficiency of the mop head.

[0288] In this embodiment, the dehydration component 103 is rotatably connected to the tub 101. When in the cleaning position, the dehydration component 103 is driven to rotate, allowing the mop 20 to be cleaned using the cleaning water collected inside the tub 101. However, when there is less cleaning water at the bottom of the tub 101, the mop head inserted into the tub 101 may not be effectively immersed in the cleaning water for cleaning, thus affecting the mop cleaning effect. To address this, this application also provides a side facing away from the tub 101 at the bottom of the inner wall of the tub 101. The water-lifting component extends in the direction of the wall. When the water collected in the bucket 101 is stirred by the rotation of the component and forms a water flow that rises to the water-lifting component, the water-lifting component can block the water flow from rising further and spray the water away from the side wall of the bucket 101. This allows at least part of the sprayed water to be absorbed by the mop head located in the bucket 101, thus helping to wet the mop head. This ensures that the mop head can be effectively wetted even when there is less water at the bottom of the bucket 101, thereby better cleaning the wiping material on the mop head and achieving a better cleaning effect.

[0289] In some embodiments, a specific implementation of setting up a water pumping device is provided. For example... Figure 8 As shown, the water-lifting component is a sheet-shaped water-lifting plate 104. One end of the water-lifting plate 104 is located at the bottom of the inner side wall of the tank 101, and the other end extends away from the side wall of the tank 101.

[0290] In this embodiment, the water-spraying component is a sheet-like water-spraying plate 104 extending from the bottom of the inner sidewall of the bucket 101 away from the sidewall of the bucket 101. Compared with other shapes such as protrusions or columns, the sheet-like water-spraying plate 104 can effectively block the water flow that climbs up the sidewall from the bottom of the bucket 101, and can also effectively guide the blocked water flow away from the sidewall of the bucket 101, so as to gather as much water as possible and spray it away from the sidewall of the bucket 101. This helps the mop head to be effectively wetted even when there is less cleaning water at the bottom of the bucket 101. At the same time, the sheet-like water-spraying plate 104 has a simple structure, low cost, and is easy to install.

[0291] In some embodiments, such as Figure 8 As shown, the water pump 104 is inclined relative to the bottom wall of the tank 101.

[0292] In this embodiment, the water-spraying plate 104 is inclined relative to the bottom wall of the bucket 101, which facilitates the collection of more rising water and its spraying away from the side wall of the bucket 101. This helps to better wet the mop head located inside the bucket 101, thereby improving the cleaning effect on the mop head.

[0293] In some embodiments, such as Figure 1 and Figure 8As shown, the tilt direction of the water pump 104 is upstream of the water flow direction after it is agitated by the dewatering component 103, with the tilt direction D being lower than the downstream direction E.

[0294] Specifically, Figure 1 and Figure 8 Taking the clockwise agitation of the dewatering component 103 at the bottom of the tank as an example, the water flows clockwise from the bottom of the tank up the inner wall of the tank body 101. The upstream flow direction is lower than the downstream flow direction relative to the tank body 101; that is, the upstream water flow is lower and closer to the bottom of the tank body 101, while the downstream water flow is higher and farther from the bottom of the tank body 101. Correspondingly, the tilt direction of the water-lifting plate 104 in this application is also such that the upstream D of the water flow after being agitated by the dewatering component 103 is lower than the downstream E. Figure 8 The starting end (e.g., D in the diagram) of the water pump 104 corresponds to the upstream direction of the water flow, and the ending end (e.g., E in the diagram) corresponds to the downstream direction of the water flow. The starting end (e.g., D in the diagram) is lower than the ending end (e.g., E in the diagram), meaning that the starting end (e.g., D in the diagram) is closer to the bottom of the tank 101, and the ending end (e.g., E in the diagram) is farther from the bottom of the tank 101. Figure 1 and Figure 8 Taking a clockwise flow of water as an example, the starting end on the left (e.g., D in the diagram) is lower than the ending end on the right (e.g., E in the diagram). Assume... Figure 1 and Figure 8 The dewatering component 103 is driven to rotate counterclockwise, that is, the water flow at the bottom of the barrel 101 is stirred by the dewatering component 103 and flows counterclockwise. At this time, the setting direction of the water lifting plate 104 should be that the starting end (e.g., D in the figure) is higher than the ending end (e.g., E in the figure) located on the right. That is, at this time, the ending end (e.g., E in the figure) corresponds to the upstream of the water flow direction, and the starting end (e.g., D in the figure) corresponds to the downstream of the water flow direction.

[0295] In this embodiment, after the water at the bottom of the bucket 101 is agitated by the dehydration component 103, it rotates along the agitation direction and rises upward along the inner wall of the bucket 101. When the water rises, the upstream direction of the water flow is lower than the downstream direction. Correspondingly, the tilt direction of the water-lifting plate 104 is also set so that the upstream D of the water flow after being agitated by the dehydration component 103 is lower than the downstream E, which conforms to the direction of fluid mechanics. This can reduce the amount of water lost due to obstructing the water flow from rising, and gather as much rising water as possible and spray it away from the side wall of the bucket 101. This is beneficial for the mop head located in the bucket 101 to be better wetted, thus improving the cleaning effect on the mop head.

[0296] In some embodiments, Figure 9 This is one of the structural schematic diagrams of the water-spraying plate in the mop bucket provided by this utility model, such as... Figure 8 and Figure 9As shown, the water-lifting plate 104 is fan-shaped, and one end of the fan-shaped water-lifting plate 104 corresponding to the apex F of the fan-shaped plate faces the center of the tank body 101.

[0297] Optionally, the two sides of the fan-shaped water-lifting plate 104 can be equal or unequal.

[0298] In this embodiment, the water-spraying plate 104 is arranged in a fan shape, and one end of the fan-shaped water-spraying plate 104 corresponding to the apex F of the fan shape faces the center of the bucket 101. This facilitates the collection and guidance of the blocked water flow through the apex F of the fan shape to the central area of ​​the bucket 101 away from the side wall of the bucket 101. This helps to better wet the mop head located in the bucket 101, thereby improving the cleaning effect on the mop head.

[0299] In some embodiments, such as Figure 9 As shown, the fan-shaped water pumping plate 104 has a rounded corner at one end corresponding to the apex F of the fan.

[0300] In this embodiment, one end of the aforementioned fan-shaped apex F is set as a rounded corner. While improving the water flow convergence force, the edge of the rounded corner can more evenly spray the water flow away from the side wall of the bucket 101, which helps to better wet the mop head located inside the bucket 101, thereby improving the cleaning effect of the mop head.

[0301] In some embodiments, Figure 10 This is the second schematic diagram of the water-spraying plate in the mop bucket provided by this utility model, as shown below. Figure 10 As shown, the upper side of the water-lifting plate 104 is connected to the inner wall of the tank 101 through an arc-shaped transition surface G; and / or, the lower side of the water-lifting plate 104 is vertically connected to the inner wall of the tank 101.

[0302] Specifically, in Figure 10 The vertical structure in which the lower side of the water pump 104 is vertically connected to the inner wall of the tank 101 is represented by H.

[0303] In this embodiment, the upper side of the water-lifting plate 104 is connected to the inner wall of the bucket 101 by an arc-shaped transition surface G. The arc-shaped transition surface G can reduce turbulence and resistance, and improve the flow efficiency of water. When multiple water-lifting plates 104 are arranged vertically, it is convenient for the water to climb upward better through the transition surface G and gather on the lower side of the upper water-lifting plate 104; and / or, the lower side of the water-lifting plate 104 is vertically connected to the inner wall of the bucket 101, which is convenient for better gathering of the water flow climbing up from the lower water-lifting plate 104 and spraying this water flow away from the side wall of the bucket 101. This is beneficial for helping the mop head located in the bucket 101 to be better wetted, thereby improving the cleaning effect on the mop head.

[0304] In some embodiments, the edges of the water-lifting blades 104 are all rounded chamfered.

[0305] In this embodiment, the edges of the water pumping plate 104 are all rounded, which can effectively remove burrs generated by processing on the water pumping plate 104, reduce the resistance of the water pumping plate 104 to the water flow, and also facilitate assembly with other components.

[0306] In some embodiments, Figure 11 This is the eighth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 11 As shown, the mop bucket 10 also includes a guide plate 105, which is detachably mounted on the inner wall of the bucket body 101. The water-lifting component 104 is integrally formed on the guide plate 105. Figure 11 As shown, the water pumping plate 104 is integrally formed on the guide plate 105.

[0307] In this embodiment, since the guide plate 105 is detachably mounted on the inner wall of the tank 101, the water-lifting plate 104 can be integrally formed and mounted on the guide plate 105. This allows the smaller and less easily assembled water-lifting plate 104 to be detachably assembled with the larger and easier-to-assemble guide plate 105 and the tank 101. Furthermore, the water-lifting component 104 is integrally formed and mounted on the guide plate 105, which ensures that the water-lifting component 104 is firmly installed on the inner wall of the tank 101. This improves the stability and service life of the water-lifting component 104 to a certain extent and facilitates its manufacture.

[0308] In some embodiments, Figure 12 This is a schematic diagram of the structure of the guide plate in the mop bucket provided by this utility model, as shown below. Figure 11 and Figure 12 As shown, a track is provided on the guide plate 105. The track has a high limit point I and / or a low limit point J. The dewatering component 103 is directly or indirectly slidably connected to the track. When the dewatering component 103 slides along the track to the low limit point J, the dewatering component 103 rotates and stirs the water gathered in the barrel 101 to form a water flow that rises to the water lifting device. Under the obstruction of the water lifting device, the water is sprayed away from the side wall of the barrel 101.

[0309] And / or, when the dewatering component 103 slides along the track to the high limit point I, the dewatering component 103 detaches from the water accumulated in the barrel 101.

[0310] In this embodiment, the guide plate 105 is provided with a track, and the dehydration component 103 can slide between the high limit point I and the low limit point J via the track. When the dehydration component 103 slides along the track to the low limit point J, the dehydration component 103 will come into contact with the water accumulated in the bucket 101, and by rotating and stirring the water accumulated in the bucket 101, it will rise to the water-lifting device, and under the obstruction of the water-lifting device, it will be sprayed away from the side wall of the bucket 101, so as to effectively clean the mop head located in the bucket 101. When the dehydration component 103 slides along the track to the high limit point I, the dehydration component 103 will detach from the liquid in the bucket 101, at which time the mop head can be driven to rotate to effectively dehydrate the mop head. The track of the guide plate 105 can effectively limit the movement direction and area of ​​the dehydration component 103, improving the working stability of the dehydration component 103.

[0311] In some embodiments, such as Figure 5 As shown, the dehydration assembly 103 includes a dehydration basket 1031 and a support 1032;

[0312] The bracket 1032 drives the dehydration basket 1031 to rise and fall inside the barrel 101. When the bracket 1032 drives the dehydration basket 1031 to the cleaning position at the low position inside the barrel 101, the dehydration basket 1031 is driven to rotate and stir the water accumulated inside the barrel 101 to form a water flow. This water flow rises to the water lifting device and is sprayed away from the side wall of the barrel 101 under the obstruction of the water lifting device.

[0313] And / or, the dehydration basket 1031 and the support 1032 are rotatably disposed at the center of the barrel 101.

[0314] It should be noted that the aforementioned support 1032 is installed inside the barrel 101 in a height-adjustable manner, and the dehydration basket 1031 rotates relative to the support 1032 when driven.

[0315] For example, the spin-dry basket 1031 and the bracket 1032 are rotatably disposed at the center of the tub 101. When the spin-dry basket 1031 is driven to rotate, it agitates the water accumulated in the tub 101, causing the water to rise evenly along the side wall of the tub 101. When the water rises to the water-lifting device, the water-lifting device can block the water from rising further and evenly spray the water towards the center of the tub 101. This allows most of the sprayed water to enter the spin-dry basket 1031 and be absorbed by the wiping material on the mop head in the spin-dry basket 1031, further improving the cleaning efficiency of the mop 20.

[0316] In this embodiment, the dehydration component 103 may include a dehydration basket 1031 and a support 1032. The mop head may be disposed in the dehydration basket 1031 and move up and down within the tub 101 under the drive of the support 1032. When the support 1032 lowers the dehydration basket 1031 and the mop head to a low cleaning position within the tub 101, the dehydration basket 1031 comes into contact with the water accumulated within the tub 101. The dehydration basket 1031 rotates under drive, stirring the water accumulated within the tub 101 and causing it to rise to the water-lifting component and be lifted. The water is sprayed towards the center of the tub 101 by the blocking action of the component, so as to effectively clean the mop head located inside the tub 101; in particular, when the spin-dry basket 1031 and the bracket 1032 are rotated and set at the center of the tub 101, most of the water that climbs along the side wall of the tub 101 is sprayed by the water-spraying component in a direction closer to the center of the tub 101, so that most of the sprayed water can enter the spin-dry basket 1031 and be absorbed by the wiping material on the mop head in the spin-dry basket 1031, further improving the cleaning efficiency of the mop 20.

[0317] In some embodiments, such as Figure 5 , Figure 11 and Figure 12 As shown, a guide plate 105 is detachably provided on the inner wall of the barrel 101. A track is provided on the guide plate 105, and the track has a high limiting point I and / or a low limiting point J.

[0318] The bracket 1032 is slidably connected to the track; when the bracket 1032 slides along the track to the low limit point J, it drives the dewatering basket 1031 to descend to the low cleaning position inside the barrel 101.

[0319] And / or, when the support 1032 slides along the track to the high limit point I, it drives the dehydration basket 1031 to rise to the high dehydration position inside the barrel 101.

[0320] For example, the bracket 1032 may be provided with a slider or connecting rod on the side facing the guide plate 105, the end of which is inserted into the track and slides along the track.

[0321] In some embodiments, such as Figure 5 As shown in the example, the inner wall of the barrel 101 is detachably provided with three guide plates 105. The bracket 1032 is also provided with three ends, which are respectively facing the three guide plates 105. Each end facing the three guide plates 105 is provided with a slider or connecting rod. The ends of the sliders or connecting rods are respectively inserted into the tracks of the three guide plates 105 and slide along the tracks.

[0322] In this embodiment, a guide plate 105 is detachably provided on the inner wall of the barrel 101. A track is provided on the guide plate 105. The bracket 1032 can slide between the high limit point I and the low limit point J through the track, thereby driving the dehydration basket 1031 to move between the high limit point I and the low limit point J. The track of the guide plate 105 can effectively limit the movement direction and area of ​​the dehydration basket 1031, improving the stability of cleaning and dehydrating the mop head using the dehydration basket 1031.

[0323] In some embodiments, Figure 13 This is the ninth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 13 As shown, a water inlet assembly 106 is provided at the upper end of the barrel 101. The water inlet assembly 106 is used to connect to an external water source and transport water from the external water source into the barrel 101.

[0324] When the dehydration component 103 switches from the dehydration position to the washing position, the drainage component 102 is driven to move and block the drain outlet A. The water inlet component 106 connects to the external water source and delivers the water from the external water source into the bucket 101 so that the cleaning water is collected in the bucket 101 to facilitate the washing of the mop 20.

[0325] In this embodiment, a water inlet assembly 106 is provided at the upper end of the bucket 101. When the dehydration assembly switches from the dehydration position 103 to the cleaning position, the drain assembly 102 will be driven to move and block the drain outlet A. At this time, the water inlet assembly 106 can connect to an external water source and deliver water from the external water source into the bucket 101, so that cleaning water is collected in the bucket 101 for cleaning the mop 20. Users do not need to laboriously pour the cleaning water into the bucket 101, and water can also be prevented from spilling out of the bucket 101 during the pouring process, thus improving the user experience.

[0326] In some embodiments, such as Figure 13 As shown, the water inlet assembly 106 includes a water inlet pipe 1061 disposed at the edge of the opening of the barrel 101. The water inlet pipe 1061 is provided with a water inlet port K, which is used to connect to an external water source through an extension pipe and to transmit water from the external water source into the water inlet pipe 1061.

[0327] The water inlet pipe 1061 has multiple water outlet holes L on the side facing the inside of the barrel 101, which are used to spray water in the water inlet pipe 1061 into the barrel 101 through the multiple water outlet holes L.

[0328] In this embodiment, the water inlet assembly 106 includes a water inlet pipe 1061 disposed at the edge of the opening of the bucket body 101, which has at least one water inlet port K. Water from an external water source can be transmitted to the water inlet pipe 1061 through an extension pipe. The side of the water inlet pipe 1061 facing the inside of the bucket body 101 is provided with multiple water outlets L, which can discharge water in the water inlet pipe 1061 into the bucket body 101 through the multiple water outlets L, so as to collect cleaning water in the bucket body 101. Furthermore, by setting the positions of the multiple water outlets L on the water inlet pipe 1061, water can be discharged according to specific needs. For example, if they are all set to discharge towards the mop head, the cleaning efficiency of the mop head can be effectively improved.

[0329] In some embodiments, such as Figure 13 As shown, the water inlet pipe 1061 is annular and is arranged around the edge of the opening of the barrel body 101; and / or, multiple water outlet holes L are evenly arranged on the water inlet pipe 1061.

[0330] In this embodiment, the water inlet pipe 1061 is arranged in a ring shape and surrounds the edge of the opening of the bucket 101, so that water can be drained into the bucket 101 through multiple water outlets L on the water inlet pipe 1061. The water can be discharged directly from the top of the bucket 101 to the mop head placed inside the bucket 101, thereby improving the cleaning efficiency of the mop head; and / or, the multiple water outlets L are evenly arranged on the water inlet pipe 1061, so that the water transmitted to the water inlet pipe 1061 can be evenly discharged to the mop head placed inside the bucket 101 through the evenly arranged multiple water outlets L, thereby improving the cleaning efficiency of the mop head.

[0331] For example, the dehydration component 103 can be located at the center of the bucket body 101. A water inlet pipe 1061 is arranged around the opening edge of the bucket body 101, and multiple water outlet holes L are evenly arranged on the side of the water inlet pipe 1061 facing the bottom of the bucket body 101. When the mop head is inserted into the bucket body 101 and engaged with the dehydration component 103, water entering the water inlet pipe 1061 can be evenly sprayed onto the mop head through the multiple water outlet holes L, circling the mop head and improving its cleaning efficiency.

[0332] According to another aspect, this utility model also provides a mop bucket. Figure 14 This is the tenth structural schematic diagram of the mop bucket provided by this utility model, as shown below. Figure 14 As shown, the mop bucket 10 includes: a bucket body 101, the bucket body 101 is provided with a drain outlet A; and a drain assembly 102 and a transmission part 107 are movably disposed inside the bucket body 101.

[0333] The mop 20, which extends into the tub 101, is connected to the transmission unit 107, and the transmission unit 107 is connected to the drainage assembly 102.

[0334] The mop 20 is driven to move the transmission part 107, and the movement of the transmission part 107 drives the drainage component 102 to move and disengage from the drain outlet A, so that the wastewater from washing the mop 20 in the bucket 101 is discharged through the drain outlet A.

[0335] And / or, the mop 20 is driven to move the transmission part 107, and the movement of the transmission part 107 drives the drainage component 102 to move and block the drain outlet A, so that cleaning water is collected in the bucket 101 to facilitate cleaning the mop 20.

[0336] It should be noted that in the above embodiments Figures 1 to 13 The corresponding implementation details regarding the mop bucket can also be referenced and applied in this embodiment, with the difference being... Figures 1 to 13 In the corresponding embodiment, the dehydration component 103 drives the drainage component 102 to detach from or block the drain outlet A. However, in this embodiment, the transmission part 107 drives the drainage component 102 to detach from or block the drain outlet A. This will not be elaborated further here.

[0337] The mop bucket provided by this utility model has a drain outlet A inside the bucket body 101, and a drain assembly 102 and a transmission part 107 are movably arranged inside the bucket body 101. The user can drive the transmission part 107 to move by the mop 20, thereby driving the drain assembly 102 to move and block or disengage from the drain outlet A, so as to close or open the drain outlet A. In the whole process of sewage discharge, the user does not need to manually insert or remove the drain plug at the drain outlet A. Instead, the drain outlet A is closed or opened by the cooperation between the transmission part 107 and the drain assembly 102, which effectively improves the user experience.

[0338] In some embodiments, a specific implementation of the drainage component 102 is provided. For example... Figures 1 to 14 As shown, the drainage component 102 is rotatably mounted inside the tank body 101;

[0339] The transmission unit 107 drives the drainage assembly 102 to rotate and disengage from the drain outlet A, thereby opening the drain outlet A; and / or, the transmission unit 107 drives the drainage assembly 102 to rotate and block the drain outlet A, thereby closing the drain outlet A.

[0340] In this embodiment, the drainage component 102 is rotatably disposed inside the barrel 101. The movement of the transmission part 107 will drive the drainage component 102 to rotate and block or disengage from the drain outlet A, thereby closing or opening the drain outlet A. By rotating the drainage component 102 to open or close the drain outlet A, the friction between the drainage component 102 and the drain outlet A can be effectively reduced, making the movement of the drainage component 102 more flexible.

[0341] In some embodiments, a specific implementation of the drainage component 102 is provided. For example... Figures 1 to 14As shown, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area of ​​the inner wall of the barrel 101 near the drain outlet A, and the blocking part 1022 abuts against the transmission part 107.

[0342] The transmission unit 107 drives the rotating unit 1021 to rotate in the forward direction, which in turn drives the blocking unit 1022 to move away from the drain outlet A, so as to disengage from the drain outlet A;

[0343] And / or, the transmission part 107 moves against the blocking part 1022 towards the drain outlet A until the blocking part 1022 covers and blocks the drain outlet A, and the blocking part 1022 drives the rotating part 1021 to rotate in the opposite direction to reset.

[0344] In this embodiment, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area of ​​the inner wall of the barrel 10 adjacent to the drain outlet A, and the blocking part 1022 abuts against the transmission part 107 to block the drain outlet A. In actual use, the movement of the transmission part 107 will drive the rotating part 1021 to rotate in the forward direction, thereby driving the blocking part 1022 to move away from the drain outlet A to open the drain outlet A. The movement of the transmission part 107 can also press the blocking part 1022 to move closer to the drain outlet A until the blocking part 1022 covers and blocks the drain outlet A to close the drain outlet A. During this process, the blocking part 1022 will drive the rotating part 1021 to rotate in the opposite direction to reset. Through the cooperation between the rotating part 1021, the blocking part 1022 and the transmission part 107, the opening and closing of the drain outlet A is realized.

[0345] In some embodiments, such as Figures 1 to 14 As shown, the rotating part 1021 is rotatably disposed above the drain outlet A on the inner wall of the barrel 101;

[0346] The transmission unit 107 drives the rotating part 1021 to rotate in the forward direction, causing the blocking part 1022 to flip upward to disengage from the drain outlet A; and / or, the transmission unit 107 pushes the blocking part 1022 downward to flip it so that the blocking part 1022 covers and blocks the drain outlet A, and the blocking part 1022 drives the rotating part 1021 to rotate in the reverse direction to reset.

[0347] In this embodiment, the rotating part 1021 is rotatably disposed above the drain outlet A on the inner wall of the barrel 101. By rotating the rotating part 1021, the blocking part 1022 can be driven to flip upward to disengage from the drain outlet A, and / or the blocking part 1022 can be driven to flip downward to cover the drain outlet A, so as to realize the opening and closing of the drain outlet A. The structure is simple and easy to implement.

[0348] In some embodiments, such as Figures 1 to 14As shown, an extension extending into the interior of the barrel 101 is provided above the drain outlet A on the inner wall of the barrel 101, and the rotating part 1021 is rotatably connected to the extension.

[0349] In this embodiment, an extension is provided above the drain outlet A on the inner wall of the barrel 101. The extension extends into the barrel 101. The rotating part 1021 of the drainage component 102 can be rotatably connected to the extension so that the rotating part 1021 is rotatably positioned in the area of ​​the inner wall of the barrel 101 near the drain outlet A, and then cooperates with the transmission part 107 and the blocking part 1022 to realize the opening and closing of the drain outlet A.

[0350] In some embodiments, a specific implementation of a rotatable connection between the rotating portion 1021 and the extension portion is provided. For example... Figures 1 to 14 As shown, the upper side of the extension is provided with two lugs B, and the lugs B are provided with mounting holes. Both sides of the rotating part 1021 are provided with protrusions C. The two protrusions C are respectively rotatably disposed in the mounting holes on the two lugs B, so that the rotating part 1021 is rotatably disposed in the extension.

[0351] In this embodiment, two lugs B are provided on the upper side of the extension, and mounting holes are provided on the lugs B. Correspondingly, protrusions C are provided on both sides of the rotating part 1021. The two protrusions C can be rotatably disposed in the mounting holes of the two lugs B respectively, so that the rotating part 1021 can be rotatably disposed on the extension, and then rotatably connected to the inner wall of the barrel 101. The rotatable connection structure is simple and easy to install and use.

[0352] In some embodiments, such as Figures 1 to 14 As shown, an elastic component is provided between the rotating part 1021 and the inner wall of the barrel body 101;

[0353] The transmission part 107 moves towards the drain outlet A by pressing against the blocking part 1022. The blocking part 1022 drives the rotating part 1021 to rotate in the opposite direction. The rotating part 1021 causes the elastic component to deform to store force.

[0354] And / or, the transmission unit 107 moves to avoid the drainage assembly 102, causing the elastic member to unload the force and drive the rotating part 1021 to rotate in the forward direction, so that the rotating part 1021 can drive the blocking part 1022 to move away from the drain outlet A.

[0355] In this embodiment, an elastic member is provided between the rotating part 1021 and the inner wall of the barrel 101. During actual use, the transmission part 107 can move against the blocking part 1022 and move it closer to the drain outlet A. At this time, the blocking part 1022 will drive the rotating part 1021 to rotate in the opposite direction away from the inner wall of the barrel 101, and the elastic member will deform to store force. In addition, the transmission part 107 can move to avoid the drain assembly 102. At this time, the transmission part 107 no longer applies a force to the blocking part 1022. The elastic member will release the force and drive the rotating part 1021 to rotate forward towards the inner wall of the barrel 101, thereby driving the blocking part 1022 to move until it is removed from the drain outlet A. By setting the elastic member in conjunction with the movement of the transmission part 107, the drain assembly 102 can be driven to disengage from or block the drain outlet A. The structure is simple and easy to replace, effectively ensuring the normal operation of the drain assembly 102.

[0356] In some embodiments, such as Figures 1 to 14 As shown, the elastic component is a torsion spring, with one end of the torsion spring abutting against the rotating part 1021 and the other end abutting against the inner wall of the barrel 101.

[0357] In this embodiment, the elastic component can be a torsion spring. One end of the torsion spring abuts against the rotating part 1021, and the other end abuts against the inner wall of the barrel 101. It generates elastic deformation through torsion. When the rotating part 1021 rotates away from the inner wall of the barrel 101, the torsion spring undergoes elastic deformation to store force; and when the rotating part 1021 rotates towards the inner wall of the barrel 101, the torsion spring releases force and resets. This application uses a torsion spring as the elastic component, which has a simple structure and can cooperate with the movement of the transmission part 107 to drive the drainage assembly 102 to disengage from or block the drain outlet A.

[0358] In some embodiments, such as Figures 1 to 14 As shown, the drainage assembly 102 has an abutment portion 1023 on the side near the transmission part 107, and the abutment portion 1023 abuts against the transmission part 107.

[0359] The transmission unit 107 drives the drainage component 102 to move through the abutting part 1023 until the drainage component 102 blocks the drain outlet A.

[0360] In this embodiment of the application, the drainage component 102 is provided with an abutment portion 1023 on the side near the transmission portion 107. The transmission portion 107 specifically drives the blocking portion 1022 in the drainage component 102 to disengage from or block the drain outlet A by abutting the abutment portion 1023. The abutment portion 1023 and the transmission portion 107 are effectively abutted, which facilitates the smooth opening of the drain outlet A.

[0361] In some embodiments, such as Figures 1 to 14As shown, the transmission part 107 is provided with a sliding surface. When the transmission part 107 drives the drainage component 102 to move by pressing the abutting part 1023, the abutting part 1023 slides along the sliding surface.

[0362] In this embodiment, a contact portion 1023 is provided on the drainage component 102, and a sliding surface is provided on the transmission portion 107. When the transmission portion 107 drives the drainage component 102 to move by pressing against the contact portion 1023, the contact portion 1023 can slide along the sliding surface. While achieving the pressing effect, the frictional force between the drainage component 102 and the transmission portion 107 is reduced to a certain extent, thereby improving the service life of the drainage component 102 and the transmission portion 107.

[0363] In some embodiments, such as Figures 1 to 14 As shown, the sliding surface is an arc-shaped surface or an inclined surface. The transmission part 107 presses against the abutting part 1023, causing the abutting part 1023 to slide along the arc-shaped surface or the inclined surface. The sliding of the abutting part 1023 along the arc-shaped surface or the inclined surface drives the drainage component 102 to rotate and block the drain outlet A.

[0364] In this embodiment, the sliding surface can be set as an arc-shaped surface or an inclined surface. During the process of the transmission part 107 pressing the abutment part 1023 and the process of the drainage component 102 resetting after the pressure is released, the abutment part 1023 can slide more smoothly on the sliding surface, which makes it easier for the user to open or close the drain port A using the transmission part 107.

[0365] In some embodiments, such as Figures 1 to 14 As shown, a guide wheel or ball bearing is provided at one end of the contact portion 1023 near the transmission portion 107.

[0366] In this embodiment, a guide wheel or ball is provided at one end of the abutment portion 1023 near the transmission portion 107. The guide wheel or ball can slide on the sliding surface. Providing a guide wheel or ball further reduces the friction between the abutment portion 1023 and the transmission portion 107, improves the service life of the drainage component 102 and the transmission portion 107, and facilitates the abutment portion 1023 to slide more smoothly on the sliding surface, thereby improving the user experience.

[0367] In some embodiments, such as Figures 1 to 14 As shown, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area of ​​the inner wall of the barrel 101 near the drain outlet A. The blocking part 1022 abuts against the transmission part 107. The abutting part 1023 is disposed on the side of the blocking part 1022 near the transmission part 107.

[0368] In this embodiment, the abutment portion 1023 is disposed on the side of the blocking portion 1022 close to the transmission portion 107. The transmission portion 107 can indirectly press the blocking portion 1022 through the abutment portion 1023, thereby causing the blocking portion 1022 to rotate toward the drain outlet A until the drain outlet A is blocked. Compared with direct pressing, indirect pressing through the abutment portion 1023 does not require restriction on the relative positional relationship between the blocking portion 1022 and the transmission portion 107, making it easier to adjust the positions of the blocking portion 1022 and the transmission portion 107 more flexibly.

[0369] In some embodiments, such as Figures 1 to 14 As shown, the transmission unit 107 is arranged to move up and down along the axial direction of the barrel 101, and the mop 20 is driven to move the transmission unit 107 up and down along the axial direction of the barrel 101.

[0370] When the mop 20 is driven to raise the transmission part 107 to the high position of the tub 101, the transmission part 107 drives the drainage component 102 to move and disengage from the drain outlet A, so that the wastewater from washing the mop 20 in the tub 101 is discharged through the drain outlet A.

[0371] And / or, when the mop 20 is driven to lower the transmission unit 107 to the low position of the bucket 101, the transmission unit 107 drives the drainage component 102 to move and block the drain outlet A, so that cleaning water accumulates in the bucket 101 to facilitate cleaning the mop 20.

[0372] In this embodiment, the transmission unit 107 can be raised and lowered axially along the bucket 101. When the mop 20 is driven to raise the transmission unit 107 to a high position on the bucket 101, the transmission unit 107 will drive the drainage component 102 to move and disengage from the drain outlet A, thereby opening the drain outlet A to discharge wastewater. When the mop 20 is driven to lower the transmission unit 107 to a low position on the bucket 101, the transmission unit 107 will drive the drainage component 102 to move and block the drain outlet A, thereby closing the drain outlet A and allowing cleaning water to accumulate inside the bucket 101 for washing the mop 20. The user can control the mop 20 to drive the transmission unit 107 to move axially, thereby causing the drainage component 102 to disengage from or block the drain outlet A, which is convenient for the user to operate.

[0373] In some embodiments, such as Figure 14 As shown, the drainage assembly 102 and the transmission unit 107 are connected by a linkage mechanism 108;

[0374] The transmission unit 107 drives the linkage mechanism 108 to move, and the movement of the linkage mechanism 108 drives the drainage component 102 to move.

[0375] It should be noted that the linkage mechanism 108 described above may include any structure for transmitting motion, such as multiple rigid links connected by hinges.

[0376] In this embodiment, the drainage component 102 and the transmission part 107 can be connected by a linkage mechanism 108. Specifically, the transmission part 107 can indirectly drive the drainage component 102 to move by driving the linkage mechanism 108 to disengage from or block the drain outlet A. Through indirect transmission via the linkage mechanism 108, the relative positional relationship between the drainage component 102 and the transmission part 107 does not need to be restricted, making it easier to adjust the positions of the drainage component 102 and the transmission part 107 more flexibly.

[0377] In some embodiments, a specific implementation of the linkage mechanism 108 is provided. For example... Figure 14 As shown, one side of the linkage mechanism 108 is fixedly connected to the side of the drainage assembly 102 near the transmission part 107, and the other side of the linkage mechanism 108 is fixedly connected to the side of the transmission part 107 that is not driven by the mop 20.

[0378] The mop 20 is driven to move the transmission part 107, and the movement of the transmission part 107 drives the linkage mechanism 108 to move. The movement of the linkage mechanism 108 drives the drainage component 102 to move and disengage from the drain outlet A.

[0379] And / or, the mop 20 is driven to move the transmission part 107, the movement of the transmission part 107 drives the linkage mechanism 108 to move, and the movement of the linkage mechanism 108 drives the drainage assembly 102 to move and block the drain outlet A.

[0380] In this embodiment, one side of the linkage mechanism 108 is fixedly connected to the side of the drainage assembly 102 near the transmission part 107, and the other side is fixedly connected to the side of the transmission part 107 that is not driven by the mop 20. By linking the drainage assembly 102 and the transmission part 107 through the linkage mechanism 108, the relative positional relationship between the drainage assembly 102 and the transmission part 107 is not restricted, while the drainage outlet A can be effectively opened or closed, making it easier to adjust the position of the drainage assembly 102 and the transmission part 107 more flexibly.

[0381] In some embodiments, such as Figures 1 to 14 As shown, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The rotating part 1021 is rotatably disposed in the area of ​​the inner wall of the barrel 101 near the drain outlet A, and the blocking part 1022 is fixedly connected to one side of the linkage mechanism 108.

[0382] In this embodiment, the drainage assembly 102 includes a rotating part 1021 and a blocking part 1022. The blocking part 1022 is fixedly connected to one side of the linkage mechanism 108 and can disengage from or block the drain outlet A under the drive of the linkage mechanism 108. Through the linkage mechanism 108, the relative positional relationship between the blocking part 1022 and the transmission part 107 is not restricted, which makes it easier to adjust the position of the blocking part 1022 and the transmission part 107 more flexibly.

[0383] In some embodiments, such as Figures 1 to 14 As shown, the transmission unit 107 is arranged to move up and down along the axial direction of the barrel 101, and the mop 20 is driven to move the transmission unit 107 up and down along the axial direction of the barrel 101.

[0384] When the mop 20 is driven to lower the transmission part 107 to the low position of the bucket 101, the transmission part 107 drives the linkage mechanism 108 to move towards the drain assembly 102. The movement of the linkage mechanism 108 drives the drain assembly 102 to move and block the drain outlet A, so that cleaning water accumulates in the bucket 101 to facilitate cleaning the mop 20.

[0385] And / or, when the mop 20 is driven to raise the transmission unit 107 to the high position of the tub 101, the transmission unit 107 drives the linkage mechanism 108 to move away from the drain assembly 102. The linkage mechanism 108 moves and drives the drain assembly 102 to move away from the drain outlet A, so that the wastewater from cleaning the mop 20 in the tub 101 is discharged through the drain outlet A.

[0386] In this embodiment, the transmission unit 107 can be raised and lowered axially along the bucket 101. When the mop 20 is driven to lower the transmission unit 107 to the lower position of the bucket 101, the transmission unit 107 can drive the linkage mechanism 108 to move closer to the drain assembly 102, thereby driving the drain assembly 102 to move and block the drain outlet A, so as to collect cleaning water in the bucket to wash the mop 20. When the mop 20 is driven to raise the transmission unit 107 to the higher position of the bucket 101, the transmission unit 107 can drive the linkage mechanism 108 to move away from the drain assembly 102, thereby driving the drain assembly 102 to move and disengage from the drain outlet A, so as to discharge sewage through the drain outlet A. The user can control the mop 20 to drive the transmission unit 107 to rise and fall axially, thereby linking the drain assembly 102 to disengage from or block the drain outlet A through the linkage mechanism 108, which is convenient for the user to operate.

[0387] In some embodiments, such as Figures 1 to 14 As shown, a spring 109 is provided between the transmission part 107 and the bottom wall of the barrel body 101;

[0388] When the mop 20 is driven to lower the transmission part 107 to the low position of the bucket 101, the transmission part 107 presses the spring 109 and drives the linkage mechanism 108 to move towards the drain assembly 102. The movement of the linkage mechanism 108 drives the drain assembly 102 to move and block the drain outlet A, so that cleaning water accumulates in the bucket 101 to facilitate cleaning the mop 20.

[0389] And / or, when the mop 20 stops being driven, the spring 109 relieves the force and drives the transmission part 107 to rise to the high position of the tub 101. The transmission part 107 moves and drives the linkage mechanism 108 to move away from the drain assembly 102. The linkage mechanism 108 moves and drives the drain assembly 102 to move and disengage from the drain outlet A, so that the wastewater from cleaning the mop 20 in the tub 101 is discharged through the drain outlet A.

[0390] Optionally, spring 109 can also be other elastic components, such as coil springs, torsion springs, etc.

[0391] In this embodiment, a spring 109 is provided between the transmission part 107 and the bottom wall of the bucket 101. Specifically, during use, when the user drives the transmission part 107 to the low position of the bucket 101, the transmission part 107 will press the spring 109 to generate deformation, and the spring 109 will compress and store force. When the user stops driving the transmission part 107 with the mop 20, the spring 109 will release the force and reset, which will drive the transmission part 107 to the high position of the bucket 101 for dehydration. Then, through the linkage mechanism 108, the drain assembly 102 will be driven to move and disengage from the drain outlet A, so as to open the drain outlet A to discharge sewage.

[0392] The following example illustrates the mop bucket provided in this embodiment of the present invention, such as... Figures 1 to 14 As shown, there are two main options:

[0393] Option 1: The dehydration component 103 abuts against the drainage component 102, causing the drainage component 102 to disengage from or block the drain outlet A.

[0394] A drainage component 102 is rotatably installed inside the drain outlet A. An elastic component (such as a coil spring or torsion spring) is provided between the drainage component 102 and the bucket body 101. After the elastic component stores force, it applies a rotational force to the drainage component 102 in a direction away from the drain outlet A.

[0395] The inner side of the drainage assembly 102 is provided with an abutment portion 1023 (e.g., a top holding post), and the end of the abutment portion 1023 is provided with a ball bearing. The ball bearing abuts against the outer wall of the dewatering basket 1031 of the dewatering assembly 103. The dewatering basket 1031 can be raised and lowered inside the barrel 101. When the dewatering basket 1031 is raised to the high position (dewatering position), the drainage assembly 102 rotates upward under the action of the elastic member. At this time, the drain port A is opened, and the sewage in the barrel 101 can be discharged through the drain port A. When the dewatering basket 1031 is lowered to the low position (washing position) inside the barrel 101, the side wall of the dewatering basket 1031 abuts against the abutment portion 1023 and moves downward until the drainage assembly 102 blocks the drain port A again.

[0396] Furthermore, when the spin-dry basket 1031 is lowered to the low position (washing position), the user can open the water pipe connected to the inlet K. Water from the water pipe enters the inlet pipe 1061 through the inlet K and then enters the bucket 101 through the outlet L of the inlet pipe 1061. At this time, the mop 20 placed in the spin-dry basket 1031 can rotate the spin-dry basket 1031 to facilitate washing with the water stored in the bucket 101. After washing is complete, the user closes the external water pipe and moves the spin-dry basket 1031 to the high position using the mop 20. When the spin-dry basket 1031 moves to the high position (spin-drying position), the drain assembly 102 rotates upward, opening the drain outlet A to discharge the wastewater from washing the mop 20. At this time, the mop 20 drives the spin-dry basket 1031 to rotate at the high position, which can achieve spin-drying of the mop 20, and the spun wastewater can be discharged through the drain outlet A at the same time.

[0397] Option 2: The transmission unit 107 drives the drainage assembly 102 to move via the linkage mechanism 108, disengaging from or blocking the drain outlet A.

[0398] The mop disc on the mop 20 can drive the transmission part 107 (e.g., the central column) and the spin-dry basket 1031 in the mop bucket 10 to rise and fall within the bucket body 101. The lower end of the transmission part 107 is connected to one end of the linkage mechanism 108 via a spring 109, and the other end of the linkage mechanism 108 is connected to the inner side of the drainage assembly 102.

[0399] When the transmission part 107 moves upward, the spring 109 pulls one end of the connecting rod in the linkage mechanism 108 connected to the transmission part 107 to move upward, and the remaining connecting rods move towards the center of the barrel 101, causing the drainage component 102 to rotate upward and open the drain port A.

[0400] When the transmission part 107 moves down, the spring 109 applies force to the end of the linkage mechanism 108, causing one end of the connecting rod in the linkage mechanism 108 connected to the transmission part 107 to move down to the bottom of the barrel 101, and the remaining connecting rods move away from the center of the barrel 101, causing the drainage component 102 to rotate downward and block the drain outlet A again.

[0401] 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. A mop bucket, characterized in that, include: The barrel body is provided with a drain outlet, and a drain assembly and a dehydration assembly are movably disposed inside the barrel body; The dehydration component switches between a washing position and a dehydration position by moving within the tub. A mop that extends into the tub and cooperates with the dehydration component performs washing in the washing position and dehydration in the dehydration position. When the dehydration component switches from the washing position to the dehydration position, the drainage component is driven to move and disengage from the drain outlet, so that the wastewater from washing the mop in the bucket is discharged through the drain outlet. And / or, when the dehydration component switches from the dehydration position to the washing position, the drainage component is driven to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate washing the mop.

2. The mop bucket according to claim 1, characterized in that, The drainage assembly is rotatably mounted inside the tank. When the dehydration component switches from the washing position to the dehydration position, the drainage component is driven to rotate and disengage from the drain outlet, so that the drain outlet is opened. And / or, when the dehydration component switches from the dehydration position to the cleaning position, the drainage component is driven to rotate and block the drain outlet to close the drain outlet.

3. The mop bucket according to claim 2, characterized in that, The drainage assembly includes a rotating part and a blocking part. The rotating part is rotatably disposed in the area adjacent to the drain outlet on the inner side wall of the barrel. The blocking part is kinetically connected to or abuts against the dewatering assembly. When the dehydration component moves from the cleaning position to the dehydration position, the rotating part is driven to rotate in the forward direction, causing the blocking part to move away from the drain outlet so as to disengage from the drain outlet; And / or, when the dehydration component switches from the dehydration position to the cleaning position, the dehydration component drives the blocking part to move towards the drain outlet until the blocking part covers and blocks the drain outlet, and the blocking part drives the rotating part to rotate in the opposite direction to reset.

4. The mop bucket according to claim 3, characterized in that, The rotating part is rotatably disposed above the drain outlet on the inner side wall of the barrel, and the blocking part abuts against the dewatering component; When the dehydration component moves from the cleaning position to the dehydration position, the rotating part is driven to rotate in the forward direction, causing the blockage part to flip upward to disengage from the drain outlet. And / or, when the dehydration component switches from the dehydration position to the cleaning position, the dehydration component presses against the blockage part and flips downward until the blockage part covers and blocks the drain outlet, and the blockage part drives the rotating part to rotate in the opposite direction to reset.

5. The mop bucket according to claim 4, characterized in that, An extension portion extending toward the center of the barrel is provided on the inner side wall of the barrel near the drain outlet, and the rotating part is rotatably connected to the extension portion.

6. The mop bucket according to claim 5, characterized in that, The upper side of the extension is provided with two lugs, and the lugs are provided with mounting holes. Both sides of the rotating part are provided with protrusions, and the two protrusions are respectively rotatably disposed in the mounting holes on the two lugs, so that the rotating part is rotatably disposed on the extension.

7. The mop bucket according to any one of claims 3 to 6, characterized in that, An elastic component is provided between the rotating part and the inner side wall of the barrel; When the dehydration component switches from the dehydration position to the cleaning position, the dehydration component presses against the blockage part and moves towards the drain outlet. The blockage part drives the rotating part to rotate in the opposite direction, and the rotating part drives the elastic component to deform to store force. And / or, when the dehydration assembly moves from the washing position to the dehydration position, the elastic member unloads force and drives the rotating part to rotate in the forward direction, thereby causing the blockage part to move away from the drain outlet.

8. The mop bucket according to claim 7, characterized in that, The elastic component is a torsion spring, one end of which abuts against the rotating part, and the other end abuts against the inner side wall of the barrel.

9. The mop bucket according to any one of claims 1 to 6 and 8, characterized in that, The drainage component has an abutment portion on the side near the dehydration component, and the abutment portion abuts against the dehydration component; When the dehydration component switches from the dehydration position to the cleaning position, the dehydration component drives the drainage component to move by pressing against the abutment part until the drainage component blocks the drain outlet.

10. The mop bucket according to claim 9, characterized in that, The dehydration component is provided with a sliding surface. When the dehydration component moves the drainage component by pressing against the abutting part, the abutting part slides along the sliding surface.

11. The mop bucket according to claim 10, characterized in that, The sliding surface is an arc-shaped surface or an inclined surface. The dehydration component presses against the abutting part, causing the abutting part to slide along the arc-shaped surface or the inclined surface. The sliding of the abutting part along the arc-shaped surface or the inclined surface drives the drainage component to rotate and block the drain outlet.

12. The mop bucket according to claim 11, characterized in that, The end of the contact portion near the dehydration component is provided with a guide wheel or ball bearing.

13. The mop bucket according to any one of claims 10 to 12, characterized in that, The drainage assembly includes a rotating part and a blocking part. The rotating part is rotatably disposed in the area of ​​the inner side wall of the barrel adjacent to the drain outlet. The blocking part abuts against the dehydration assembly. The abutting part is disposed on the side of the blocking part close to the dehydration assembly.

14. The mop bucket according to any one of claims 10 to 12, characterized in that, The dehydration assembly includes a dehydration basket, and the sliding surface is disposed on the outer side wall of the dehydration basket.

15. The mop bucket according to claim 14, characterized in that, The dehydration basket is vertically and vertically disposed within the barrel, and the dehydration basket is driven to move up and down within the barrel to switch between the washing position and the dehydration position.

16. The mop bucket according to any one of claims 10 to 12, characterized in that, The dehydration assembly includes a dehydration basket and a support frame. The support frame drives the dehydration basket to move up and down within the barrel to switch between the washing position and the dehydration position. The sliding surface is located on the side of the bracket near the bottom of the barrel.

17. The mop bucket according to claim 16, characterized in that, The dehydration basket is rotatably connected to the bracket. In the washing position and / or the dehydration position, the dehydration basket is driven to rotate relative to the bracket so that the mop can be washed in the washing position and dehydrated in the dehydration position.

18. The mop bucket according to any one of claims 1 to 3, characterized in that, The drainage component and the dehydration component are connected by a linkage mechanism; When the dehydration component moves from the washing position to the dehydration position, it drives the drainage component to move through the linkage mechanism so as to disengage from the drain outlet; And / or, when the dehydration component switches from the dehydration position to the cleaning position, the linkage mechanism drives the drainage component to move to block the drain outlet.

19. The mop bucket according to claim 18, characterized in that, The drainage component is slidably or rotatably disposed within the tank body; When the dehydration component moves from the washing position to the dehydration position, the linkage mechanism drives the drainage component to slide or rotate inside the bucket, so as to open the drain outlet. And / or, when the dehydration component switches from the dehydration position to the cleaning position, the linkage mechanism drives the drainage component to slide or rotate within the barrel to block the drain outlet.

20. The mop bucket according to claim 19, characterized in that, The drainage assembly includes a rotating part and a blocking part, the rotating part being rotatably disposed in the region of the inner side wall of the barrel adjacent to the drain outlet; the linkage mechanism includes multiple sub-rods, the multiple sub-rods being rotatably connected in sequence; the sub-rods at both ends of the linkage mechanism are rotatably connected to the dewatering assembly and the blocking part of the drainage assembly, respectively; When the dehydration assembly moves from the cleaning position to the dehydration position, the plurality of sub-rods slide and / or rotate relative to each other in the barrel, causing the blockage part to flip away from the drain outlet relative to the drain outlet through the rotating part, so as to disengage from the drain outlet; And / or, when the dehydration assembly switches from the dehydration position to the cleaning position, the plurality of sub-rods slide and / or rotate relative to each other in the barrel, causing the blocking part to flip relative to the drain outlet through the rotating part in a direction closer to the drain outlet, so as to block the drain outlet.

21. The mop bucket according to claim 19 or 20, characterized in that, The dehydration assembly includes a dehydration basket and a lifting column supporting the dehydration basket. The lifting column is vertically and vertically disposed in the barrel body, and the linkage mechanism is rotatably connected to the lifting column. The dehydration basket is driven to move from the washing position to the dehydration position, which causes the lifting column to rise. The lifting column drives the linkage mechanism to move, and the linkage mechanism causes the drainage assembly to slide or rotate in the barrel so that the drain outlet opens. And / or, the dehydration basket is driven to switch from the dehydration position to the washing position, which causes the lifting column to lower. The lifting column drives the linkage mechanism to move, and the linkage mechanism causes the drainage assembly to slide or rotate in the barrel to block the drain outlet.

22. The mop bucket according to claim 21, characterized in that, The barrel is equipped with a hollow support column, the lifting column is located in the hollow area of ​​the support column, and the dehydration basket is supported at the top of the lifting column. The inner wall of the support column is provided with a track, which has a high limit point and a low limit point, and the lifting column is slidably connected to the track; The dehydration basket is driven to move from the washing position to the dehydration position, which causes the lifting column to rise. The lifting column slides along the track to the high limit point, limiting the dehydration basket to the high position of the barrel. The lifting column also drives the linkage mechanism to move, and the linkage mechanism drives the drainage assembly to slide or rotate in the barrel so that the drain outlet opens. And / or, the dehydration basket is driven to switch from the dehydration position to the cleaning position, which causes the lifting column to lower. The lifting column slides along the track to the low limit point, limiting the dehydration basket to the low position of the barrel. The lifting column also drives the linkage mechanism to move, and the linkage mechanism drives the drainage assembly to slide or rotate in the barrel to block the drain outlet.

23. The mop bucket according to claim 22, characterized in that, An auxiliary elastic element is provided between the lifting column and the barrel body; The dehydration basket is driven to move from the washing position to the dehydration position, which causes the lifting column to rise, and the auxiliary elastic element deforms to store force; And / or, the auxiliary elastic element relieves the force, causing the lifting column to lower.

24. The mop bucket according to any one of claims 1 to 6, 8, 10 to 12, 15, 17, 19, 20, 22, and 23, characterized in that, The dehydration component is rotatably connected to the bucket body. At the cleaning position, the dehydration component is driven to rotate so as to clean the mop with the cleaning water collected in the bucket body. A water-lifting component is provided at the bottom of the inner side wall of the barrel, and the water-lifting component extends away from the side wall of the barrel. When the dehydration component rotates and agitates the water gathered inside the barrel to form a water flow that rises to the water-lifting component, the water-lifting component blocks the water flow from continuing to rise along the inner side wall of the barrel and guides the flow of the water flow toward the center of the barrel, so that the water flow is sprayed away from the side wall of the barrel.

25. The mop bucket according to claim 24, characterized in that, The water-lifting component is a sheet-shaped water-lifting plate, with one end of the water-lifting plate located at the bottom of the inner side wall of the tank, and the other end extending away from the side wall of the tank.

26. The mop bucket according to claim 25, characterized in that, The water-lifting plate is inclined relative to the bottom wall of the barrel.

27. The mop bucket according to claim 26, characterized in that, The tilt direction of the water pumping plate is such that the upstream of the water flow after it has been agitated by the dewatering component is lower than the downstream.

28. The mop bucket according to any one of claims 25 to 27, characterized in that, The water-lifting blade is fan-shaped, and one end of the fan-shaped water-lifting blade corresponding to the apex of the fan faces the center of the barrel.

29. The mop bucket according to claim 28, characterized in that, The fan-shaped water-lifting plate has a rounded corner at one end corresponding to the apex of the fan.

30. The mop bucket according to any one of claims 25 to 27, 29, characterized in that, The upper side of the water-lifting plate is connected to the inner wall of the tank through an arc-shaped transition surface; And / or, the lower side of the water-lifting plate is perpendicularly connected to the inner wall of the tank.

31. The mop bucket according to claim 30, characterized in that, The edges of the water pumps are all rounded and chamfered.

32. The mop bucket according to any one of claims 25 to 27, 29, and 31, characterized in that, The mop bucket also includes a guide plate, which is detachably mounted on the inner side wall of the bucket, and the water-lifting component is integrally formed on the guide plate.

33. The mop bucket according to claim 32, characterized in that, The guide plate is provided with a track, which has a high limit point and / or a low limit point. The dehydration component is directly or indirectly slidably connected to the track. When the dehydration component slides along the track to the low limit point, the dehydration component rotates and agitates the water accumulated in the barrel to form a water flow that rises to the water-lifting component and is sprayed away from the side wall of the barrel under the obstruction of the water-lifting component. And / or, when the dehydration component slides along the track to the high limit point, the dehydration component detaches from the water accumulated in the barrel.

34. The mop bucket according to any one of claims 25 to 27, 29, 31, and 33, characterized in that, The dehydration assembly includes a dehydration basket and a support frame; The bracket drives the dehydration basket to rise and fall within the barrel. When the bracket drives the dehydration basket to a low cleaning position within the barrel, the dehydration basket is driven to rotate and agitate the water accumulated in the barrel, forming a water flow that causes the water flow to rise to the water-lifting component and, under the obstruction of the water-lifting component, is sprayed away from the side wall of the barrel. And / or, the dehydration basket and the support are rotatably disposed at the center of the barrel.

35. The mop bucket according to claim 34, characterized in that, The inner side wall of the barrel is detachably provided with a guide plate, the guide plate is provided with a track, and the track has a high limit point and / or a low limit point; The bracket is slidably connected to the track; when the bracket slides along the track to the low limit point, it drives the dehydration basket to descend to the low cleaning position inside the barrel. And / or, when the bracket slides along the track to the high limit point, it drives the dehydration basket to rise to the high dehydration position inside the barrel.

36. The mop bucket according to any one of claims 1 to 6, 8, 10 to 12, 15, 17, 19, 20, 22, 23, 25 to 27, 29, 31, 33, characterized in that, The upper end of the barrel is provided with a water inlet component, which is used to connect to an external water source and deliver water from the external water source into the barrel. When the dehydration component switches from the dehydration position to the cleaning position, the drainage component is driven to move and block the drain outlet. The water inlet component connects to an external water source and delivers water from the external water source into the bucket, so that cleaning water is collected in the bucket for cleaning the mop.

37. The mop bucket according to claim 36, characterized in that, The water inlet assembly includes a water inlet pipe disposed at the edge of the opening of the barrel, and the water inlet pipe is provided with a water inlet port for connecting to the external water source through an extension pipe and transmitting water from the external water source into the water inlet pipe; The water inlet pipe has multiple water outlet holes on one side facing the inside of the barrel, which are used to spray water from the water inlet pipe into the barrel through the multiple water outlet holes.

38. The mop bucket according to claim 37, characterized in that, The water inlet pipe is ring-shaped and is arranged around the edge of the opening of the barrel; And / or, the plurality of water outlet holes are evenly arranged on the water inlet pipe.

39. A mop bucket, characterized in that, include: The barrel body is provided with a drain outlet; and a drain assembly and a transmission part are movably disposed inside the barrel body. The mop extending into the bucket is connected to the transmission unit, and the transmission unit is connected to the drainage assembly; The mop is driven to move the transmission part, and the movement of the transmission part drives the drainage component to move and disengage from the drain outlet, so that the wastewater in the bucket used to clean the mop is discharged through the drain outlet. And / or, the mop is driven to move the transmission part, and the movement of the transmission part drives the drainage assembly to move and block the drain outlet, so that cleaning water is collected in the bucket to facilitate cleaning the mop.

40. The mop bucket according to claim 39, characterized in that, The drainage assembly is rotatably mounted inside the tank. The transmission unit drives the drainage assembly to rotate and disengage from the drainage outlet, thereby opening the drainage outlet. And / or, the transmission unit drives the drainage assembly to rotate and block the drain outlet, thereby closing the drain outlet.

41. The mop bucket according to claim 40, characterized in that, The drainage assembly includes a rotating part and a blocking part. The rotating part is rotatably disposed on the inner wall of the barrel in a region adjacent to the drain outlet, and the blocking part abuts against the transmission part. The transmission unit drives the rotating part to rotate in the forward direction, thereby causing the blocking part to move away from the drain outlet so as to disengage from the drain outlet; And / or, the transmission part actively presses against the blocking part and moves towards the drain outlet until the blocking part covers and blocks the drain outlet, and the blocking part drives the rotating part to rotate in the opposite direction to reset.

42. The mop bucket according to claim 41, characterized in that, The rotating part is rotatably disposed on the inner wall of the barrel, above the drain outlet; The transmission unit drives the rotating part to rotate in the forward direction, causing the blocking part to flip upward and disengage from the drain outlet; And / or, the transmission part actively presses against the blocking part and flips it downward until the blocking part covers and blocks the drain outlet, and the blocking part drives the rotating part to rotate in the opposite direction to reset.

43. The mop bucket according to claim 42, characterized in that, An extension portion extending into the interior of the barrel is provided on the inner wall of the barrel above the drain outlet, and the rotating part is rotatably connected to the extension portion.

44. The mop bucket according to claim 43, characterized in that, The upper side of the extension is provided with two lugs, and the lugs are provided with mounting holes. Both sides of the rotating part are provided with protrusions, and the two protrusions are respectively rotatably disposed in the mounting holes on the two lugs, so that the rotating part is rotatably disposed on the extension.

45. The mop bucket according to any one of claims 41 to 44, characterized in that, An elastic component is provided between the rotating part and the inner wall of the barrel; The transmission part actively presses against the blocking part and moves it towards the drain outlet. The blocking part drives the rotating part to rotate in the opposite direction. The rotating part causes the elastic component to deform to store force. And / or, the transmission part moves to avoid the drainage assembly, causing the elastic member to unload the force and drive the rotating part to rotate in the forward direction, so that the rotating part can drive the blocking part to move away from the drain outlet.

46. ​​The mop bucket according to claim 45, characterized in that, The elastic component is a torsion spring, with one end of the torsion spring abutting against the rotating part and the other end abutting against the inner wall of the barrel.

47. The mop bucket according to any one of claims 39 to 44, 46, characterized in that, The drainage assembly has an abutment portion on the side near the transmission part, and the abutment portion abuts against the transmission part; The transmission unit drives the drainage component to move by pressing against the abutment part until the drainage component blocks the drain outlet.

48. The mop bucket according to claim 47, characterized in that, The transmission part is provided with a sliding surface. When the transmission part drives the drainage component to move by pressing against the abutting part, the abutting part slides along the sliding surface.

49. The mop bucket according to claim 48, characterized in that, The sliding surface is an arc-shaped surface or an inclined surface. The transmission part presses against the abutting part, causing the abutting part to slide along the arc-shaped surface or the inclined surface. The sliding of the abutting part along the arc-shaped surface or the inclined surface drives the drainage component to rotate and block the drain outlet.

50. The mop bucket according to claim 49, characterized in that, The end of the abutment portion near the transmission portion is provided with a guide wheel or ball bearing.

51. The mop bucket according to any one of claims 48 to 50, characterized in that, The drainage assembly includes a rotating part and a blocking part. The rotating part is rotatably disposed on the inner wall of the barrel in a region adjacent to the drain outlet. The blocking part abuts against the transmission part. The abutting part is disposed on the side of the blocking part close to the transmission part.

52. The mop bucket according to any one of claims 39 to 44, 46, and 48 to 50, characterized in that, The transmission unit is arranged to move up and down along the axial direction of the bucket body, and the mop is driven to move up and down along the axial direction of the bucket body; When the mop is driven to raise the transmission unit to the high position of the bucket, the transmission unit drives the drainage component to move and disengage from the drain outlet, so that the wastewater in the bucket used to clean the mop is discharged through the drain outlet. And / or, when the mop is driven to lower the transmission unit to a low position in the bucket, the transmission unit drives the drainage assembly to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate cleaning the mop.

53. The mop bucket according to any one of claims 39 to 44, 46, characterized in that, The drainage component is connected to the transmission unit via a linkage mechanism; The transmission unit drives the linkage mechanism to move, and the movement of the linkage mechanism drives the drainage assembly to move.

54. The mop bucket according to claim 53, characterized in that, One side of the linkage mechanism is fixedly connected to the side of the drainage assembly near the transmission part, and the other side of the linkage mechanism is fixedly connected to the side of the transmission part that is not driven by the mop. The mop is driven to move the transmission part, the movement of the transmission part drives the linkage mechanism, and the movement of the linkage mechanism drives the drainage assembly to move and disengage from the drain outlet; And / or, the mop is driven to move the transmission part, the movement of the transmission part drives the linkage mechanism, and the movement of the linkage mechanism drives the drainage assembly to move and block the drain outlet.

55. The mop bucket according to claim 54, characterized in that, The drainage assembly includes a rotating part and a blocking part. The rotating part is rotatably disposed on the inner wall of the barrel in a region adjacent to the drain outlet, and the blocking part is fixedly connected to one side of the linkage mechanism.

56. The mop bucket according to claim 54 or 55, characterized in that, The transmission unit is arranged to move up and down along the axial direction of the bucket body, and the mop is driven to move up and down along the axial direction of the bucket body; When the mop is driven to lower the transmission unit to a low position in the bucket, the transmission unit drives the linkage mechanism to move closer to the drain assembly. The movement of the linkage mechanism drives the drain assembly to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate cleaning the mop. And / or, when the mop is driven to raise the transmission unit to the high position of the bucket, the transmission unit drives the linkage mechanism to move away from the drain assembly. The movement of the linkage mechanism drives the drain assembly to move and disengage from the drain outlet, so that the wastewater from cleaning the mop in the bucket is discharged through the drain outlet.

57. The mop bucket according to claim 56, characterized in that, A spring is provided between the transmission part and the bottom wall of the barrel; When the mop is driven to lower the transmission part to the low position of the bucket, the transmission part presses the spring and drives the linkage mechanism to move closer to the drain assembly. The movement of the linkage mechanism drives the drain assembly to move and block the drain outlet, so that cleaning water accumulates in the bucket to facilitate cleaning the mop. And / or, when the mop stops being driven, the spring unloads the force and drives the transmission part to rise to the high position of the bucket. The transmission part moves the linkage mechanism away from the drain assembly. The linkage mechanism moves the drain assembly and disengages it from the drain outlet, so that the wastewater from cleaning the mop in the bucket is discharged through the drain outlet.

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