Linkage type mop squeezing frame and mop

Abstract

The utility model relates to a linkage type mop squeezing frame which comprises a squeezing frame body provided with a water stroking channel. The water stroking piece is movably installed on the squeezing frame body, and a water stroking opening is formed between the water stroking piece and the inner wall of the water stroking channel; the squeezing frame is characterized by further comprising a cleaning box used for containing cleaning substances, the cleaning box is restrained in the squeezing frame body and can ascend and descend, and a conveying component used for conveying the cleaning substances in the cleaning box into a wiping object of the water stroking channel is arranged at the bottom of the cleaning box. The driving piece is movably installed on the squeezing frame body and used for driving the cleaning box to ascend and descend, the driving piece and the water stroking piece are in linkage, and when the driving piece drives the cleaning box to descend to the cleaning position, the driving piece restrains the water stroking piece to limit the movement range of the water stroking piece; when the driving part drives the cleaning box to ascend to the water stroking position, the driving part relieves the constraint on the water stroking part. According to the mop squeezing frame, the wiping object can be evenly coated with cleaning substances in the cleaning state, the water content of the wiping object can be larger, and the cleaning modification of the wiping object is effectively improved.

Description

Technical Field

[0001] This utility model belongs to the technical field of cleaning tools, and particularly relates to a linkage mop wringer for a self-wringing mop. This utility model also relates to a mop having the aforementioned wringer. Background Technology

[0002] A self-squeezing horizontal board mop generally includes a mop handle and a flat mop head movably connected to the lower end of the mop handle. The mop handle is also equipped with a wringer that can slide up and down along the mop handle. The wringer has a wringing opening for the flat mop head to pass through. The wringing channel is equipped with wringing components, which can be scrapers, wringing rollers, wringing protrusions, etc. The flat mop head can be inserted into the wringing opening. After the flat mop head enters the wringing opening, the wringer moves back and forth by pushing and pulling it, causing the wringer to move back and forth and wringing the water out of the wiping material on the flat mop head through the wringing components.

[0003] For example, Chinese utility model patent ZL201721864874.7 (publication number CN208301612U), entitled "A Self-Squeezing Horizontal Board Mop with a Squeezing Head Mechanism," discloses a structure including a mop handle, a wringing handle, and a flat mop board movably connected to the lower end of the mop handle. The flat mop board has a wiping agent on it. The lower end of the wringing handle has a squeezing head mechanism, which includes a wringing frame with an opening. A squeezing plate is placed in the opening, forming a squeezing opening between the squeezing plate and the opening, or between two squeezing plates. The key feature is that the squeezing plate and the wringing frame are movably connected... The mop head is rotatable, and the width of the spout can be adjusted during rotation. A limiting device on the wringer restricts the rotation angle of the mop head. During wringing, the flat mop head rotates and aligns with the spout of the mop head mechanism, then enters the spout. When the mop head mechanism slides upward, the wiping material contacts the mop head, and the mop head rotates downward, widening the spout and reaching the limiting point, maintaining a large opening. When the mop head mechanism slides downward, the wiping material contacts the mop head, and the mop head rotates upward, narrowing the spout and reaching the limiting point, maintaining a small opening.

[0004] The aforementioned wringer has the following defects: During cleaning, soap or cleaning solution is applied to the object being wiped. However, when the wiping mechanism slides downwards, the wiping plate swings to a position where the opening is smaller. At this point, the wiping plate exerts a large squeezing force on the object being wiped, causing the cleaning solution to be pushed and concentrated at the lower end of the object, resulting in uneven distribution of the cleaning solution and affecting the cleaning of the object. Furthermore, in the cleaning operation state, it is ideal for the object to be wiped to have more moisture. However, the aforementioned mop's wiping mechanism squeezes away most of the water from the object in a single downward movement, further affecting the cleaning of the object.

[0005] Therefore, the wringer of the aforementioned mop can be further improved. Utility Model Content

[0006] The first technical problem to be solved by this utility model is to provide a novel linkage mop squeezer that addresses the current state of the prior art. In the cleaning state, the mop squeezer can evenly coat the cleaning substance onto the object being wiped and increase the moisture content of the object, thereby effectively improving the cleaning and modification of the object.

[0007] The technical solution adopted by this utility model to solve the first technical problem mentioned above is as follows: a linkage mop holder, including a holder body with a rinsing channel for a mop head carrying wiping material to pass through; a rinsing component, movably mounted on the holder body, wherein a rinsing nozzle is formed between the rinsing component and the corresponding area of ​​the inner wall of the rinsing channel, and the rinsing component can adjust the rinsing distance of the rinsing nozzle during its movement; characterized in that: it also includes a cleaning box for containing cleaning material, constrained within the holder body and capable of rising and falling, the bottom of the cleaning box is provided with a conveying component for conveying the cleaning material into the wiping channel; a driving component, movably mounted on the holder body for driving the cleaning box to rise and fall, the driving component and the rinsing component are linked, when the driving component drives the cleaning box to fall to the cleaning position, the driving component constrains the rinsing component, limiting its range of motion; when the driving component drives the cleaning box to rise to the rinsing position, the driving component releases the constraint on the rinsing component.

[0008] Preferably, the aforementioned water-squeezing component is rotatably mounted on the extrusion frame body, allowing it to swing. The water-squeezing component can be mounted on a bracket, which in turn is rotatably mounted on the extrusion frame body. The water-squeezing component is preferably a water-squeezing plate, suitable for squeezing fibrous wiping materials. Of course, the water-squeezing component can also be a wringing roller or a wringing protrusion, suitable for squeezing foam wiping materials. Alternatively, the water-squeezing component can be slidably mounted on the extrusion frame body, allowing it to slide.

[0009] As a preferred method of constraining the rinsing component with a drive member, the drive member is constrained within the wringer and can slide left and right. The inner end of the drive member has a protruding abutment, and the rinsing component has a clearance notch for the abutment to pass through. When the drive member slides to the first position, the abutment abuts against the rinsing component; when the drive member slides to the second position, the abutment is located at the clearance notch. In the first position, the abutment prevents the rinsing component from swinging. In the second position, the abutment is located at the clearance notch, allowing the rinsing component to swing. The abutment can pass through the notch, meaning it does not obstruct the rinsing component, allowing it to swing.

[0010] Further improvements include a guide groove on the side wall of the cleaning box, with a drive column on the drive component. The drive column is positioned within the guide groove and can slide along it. This sliding movement allows the drive column to be positioned at different locations within the guide groove, thereby raising and lowering the cleaning box. The sliding of the drive component not only controls the oscillation of the rinsing component but also controls the raising and lowering of the cleaning box. These two functions share a single component, resulting in a more compact structure and easier control.

[0011] Preferably, the guide groove has an upper horizontal groove, a lower horizontal groove, and an inclined groove. The upper horizontal groove is located above the lower horizontal groove and is spaced apart horizontally. The inner ends of the upper and lower horizontal grooves are connected by the inclined groove. The drive column slides along the inclined groove to the upper horizontal groove, and the cleaning box descends to the cleaning position. The drive column then slides along the inclined groove to the lower horizontal groove, and the cleaning box rises to the rinsing position. When the cleaning box is subjected to a force perpendicular to the direction of the cleaning box from the squeeze roller, the horizontal arrangement of the upper and lower horizontal grooves acts as a locking mechanism, preventing the drive column from receiving lateral force. The drive component remains in its original position, and the usage mode of the wringer can only be changed by operating the drive component, resulting in better operational stability.

[0012] Preferably, the aforementioned conveying component includes a transfer roller located at the bottom opening of the cleaning box. This transfer roller rotates around an axis to convey cleaning material from the cleaning box. The transfer roller is driven by a mop head moving within the water-slicking channel. One side of the transfer roller contacts the cleaning material, and the other side contacts the wiping material. The transfer roller is driven by the wiping material sliding within the water-slicking channel to rotate around its own axis, thereby carrying the cleaning material from the cleaning box to the wiping material. All wiping materials that can be contacted by the transfer roller are covered with the cleaning material.

[0013] Preferably, the cleaning substance is cleaning soap, and the cleaning box is equipped with an elastic element that directly or indirectly presses the cleaning soap against the transfer roller. The cleaning soap is a solid block, making it less likely to leak from the cleaning box, thus requiring less airtightness. The elastic element directly or indirectly presses the cleaning soap against the transfer roller, ensuring that the transfer roller can scrape off the cleaning soap as it rotates. The scraped-off cleaning soap is then transported to the object to be wiped via the rotating transfer roller.

[0014] In a further improvement, the aforementioned cleaning box includes a box body and a lid detachably attached to the box body. The elastic element is a spring sheet, which has a U-shaped arch and a support leg extending outward from the bottom end of the arch. The top end of the arch is fixed to the lid. The elastic element is preferably a metal spring sheet. Compared to using a spring, springs are prone to fatigue and breakage. Using a spring generally requires a plate to contact the cleaning soap, while a spring sheet eliminates this plate, reducing costs and simplifying assembly.

[0015] In a further improvement, the top surface of the cleaning substance is provided with an anti-adhesion layer, and the elastic element acts on the anti-adhesion layer. The anti-adhesion layer prevents the elastic element from embedding into the cleaning soap, thus avoiding the need for a tension spring elastic element.

[0016] Compared with existing technologies, the advantages of this linked mop holder are as follows: the design of the cleaning box and the drive unit allows for two usage modes. When used in cleaning mode, the drive unit lowers the cleaning box to the cleaning position. The drive unit constrains the water-slicking component, limiting its range of motion. The minimum water-slicking distance at the water outlet is also relatively large. As the wiping material passes through the water-slicking channel, the conveying component delivers the cleaning agent from the cleaning box to the wiping material. Due to the large minimum water-slicking distance, the water-slicking component exerts pressure on the wiping material reciprocating through the water outlet. Smaller size facilitates easy passage, and the rinsing mechanism prevents cleaning agents from being pushed and concentrated at the bottom of the surface. This ensures more even coverage of the cleaning agent and increases the moisture content of the surface, resulting in better cleaning. After several uses, it's necessary to switch to the rinsing and rinsing mode. The drive mechanism raises the cleaning box to the rinsing position, releasing the rinsing mechanism, allowing it to move freely. The mop head reciprocates through the rinsing channel, and the rinsing mechanism can swing to its minimum rinsing distance, applying significant rinsing force to the surface and thoroughly drying it. Only during cleaning operations does the transfer mechanism transfer the cleaning agent from the cleaning box to the surface on the mop head, eliminating the need for manual spraying or application of cleaning agents, reducing steps and making it more user-friendly.

[0017] The second technical problem to be solved by this utility model is to provide a multi-mode mop that can further improve the cleaning effect of wiping objects without affecting the normal wringing effect, in view of the above-mentioned existing technology.

[0018] The technical solution adopted by this utility model to solve the above-mentioned technical problems is as follows: a mop, including a mop handle and a mop head with wiping material rotatably connected to the lower end of the mop handle, characterized in that: it also includes the aforementioned linkage mop squeeze frame, the squeeze frame body is constrained on the mop handle and can slide up and down along the mop handle.

[0019] Compared with existing technologies, the advantages of this mop are that, due to the aforementioned wringer, the mop has two working modes. Attached Figure Description

[0020] Figure 1 A three-dimensional schematic diagram of an embodiment of a linkage mop squeezer. Figure 1 (Cleaning Mode);

[0021] Figure 2 A three-dimensional schematic diagram of an embodiment of a linkage mop squeezer. Figure 2 (Cleaning Mode);

[0022] Figure 3 Cross-sectional view of an embodiment of a linkage mop extruder. Figure 1 (Cleaning Mode);

[0023] Figure 4 Cross-sectional view of an embodiment of a linkage mop extruder. Figure 2 (Cleaning Mode);

[0024] Figure 5 This is a three-dimensional diagram of the linkage mop extruder assembly embodiment after removing the extruder body. Figure 1 (Cleaning Mode);

[0025] Figure 6 This is a three-dimensional diagram of the linkage mop extruder assembly embodiment after removing the extruder body. Figure 2 (Cleaning Mode);

[0026] Figure 7 A three-dimensional schematic diagram of an embodiment of a linked mop wringer (rinsing and wringing mode);

[0027] Figure 8 A cross-sectional view of an embodiment of a linked mop wringer (rinsing and wringing mode);

[0028] Figure 9 This is a three-dimensional diagram of the linkage mop extruder assembly embodiment after removing the extruder body. Figure 1 (rinse and wring dry mode);

[0029] Figure 10 This is a three-dimensional diagram of the linkage mop extruder assembly embodiment after removing the extruder body. Figure 2 (rinse and wring dry mode);

[0030] Figure 11 3D Explosion of an Example of a Linkage Mop Squeegee Figure 1 ;

[0031] Figure 12 3D Explosion of an Example of a Linkage Mop Squeegee Figure 2 ;

[0032] Figure 13 This is a three-dimensional structural diagram of an embodiment of a mop. Detailed Implementation

[0033] The present invention will be further described in detail below with reference to the accompanying drawings and embodiments.

[0034] like Figures 1-12 The image shows a preferred embodiment of a linkage mop holder.

[0035] A linkage mop holder, including

[0036] The extrusion frame body 1 has a water-swiping channel D through which a mop head 2 carrying a wiping material 4 passes;

[0037] The water-strapping component 3 is plate-shaped and is rotatably mounted on the extrusion frame body 1, allowing the water-strapping component 3 to swing. A water-strapping port is formed between the water-strapping component 3 and the corresponding area of ​​the inner wall of the water-strapping channel D. The size of the water-strapping distance H of the water-strapping port can be adjusted during the movement of the water-strapping component 3.

[0038] The cleaning box 6, which is used to contain the cleaning material 10, is constrained within the extruder body 1 and can be raised and lowered. The cleaning box 6 includes a box body 6a and a box cover 6b that is detachably connected to the box body 6a. The bottom of the box body 6a is provided with a conveying component that conveys the cleaning material 10 inside into the wiping channel D of the wiping material 4.

[0039] A drive component 5, movably mounted on the extrusion frame body 1, drives the cleaning box 6 to rise and fall. The drive component 5 is linked with the water-slicking component 3. When the drive component 5 lowers the cleaning box 6 to the cleaning position, it constrains the water-slicking component 3, limiting its range of motion. When the drive component 5 raises the cleaning box 6 to the water-slicking position, it releases the constraint, allowing the water-slicking component 3 to swing over a wider range. The minimum water-slicking distance H formed by the water-slicking component 3 with its limited range of motion is greater than the minimum water-slicking distance H formed by the water-slicking component 3 with contact constraints.

[0040] The drive member 5 is constrained within the wringer and can slide left and right. The inner end of the drive member 5 has an outwardly protruding abutment 51. The rinsing member 3 has a clearance notch 31 for the abutment 51 to pass through. When the drive member 5 slides to the first position, the abutment 51 abuts against the rinsing member 3. When the drive member 5 slides to the second position, the abutment 51 is located in the clearance notch 31.

[0041] The cleaning box 6 has a guide groove 61 on its side wall. The driving member 5 is provided with a driving column 52. The driving column 52 is placed in the guide groove 61 and can slide along the guide groove 61. The sliding of the driving member 5 causes the driving column 52 to be placed in different positions in the guide groove 61, thereby driving the cleaning box 6 to rise and fall. The guide groove 61 has an upper horizontal groove 611, a lower horizontal groove 612, and an inclined groove 613. The upper horizontal groove 611 is located above the lower horizontal groove 612 and is spaced apart on the left and right. The inner end of the upper horizontal groove 611 and the inner end of the lower horizontal groove 612 are connected by the inclined groove 612. When the driving column 52 slides along the inclined groove 613 to the upper horizontal groove 611, the cleaning box 6 descends to the cleaning position. When the driving column 52 slides along the inclined groove 613 to the lower horizontal groove 612, the cleaning box 6 rises to the rinsing position.

[0042] In this embodiment, the conveying component is a conveying roller 7 located at the bottom opening of the cleaning box 6. The conveying roller 7 rotates around a pivot to transport the cleaning material inside the cleaning box 6. The conveying roller 7 is driven to rotate by the mop head 2, which moves within the rinsing channel D. The cleaning material 10 is cleaning soap. An elastic element 8 is provided inside the cleaning box 6. The elastic element 8 directly or indirectly presses the cleaning soap against the conveying roller 7. The rotation of the conveying roller 7 scrapes the cleaning soap off and then transfers it to the wiping material. An anti-adhesion layer 101 is provided on the top surface of the cleaning material 10, and the elastic element 8 acts on the anti-adhesion layer 101.

[0043] The elastic element 8 is a spring sheet. The elastic element 8 has a U-shaped arched portion 81 and a support portion 82 extending outward from the bottom end of the arched portion 81. The top end of the arched portion 81 is fixed to the box cover 6b.

[0044] The working process and principle of this linkage mop squeezer are as follows:

[0045] Cleaning modes, such as Figures 1-7 As shown, the drive unit 5 is slid to the first position, the drive column 52 slides along the inclined groove 613 to the upper horizontal groove 611, the cleaning box 6 descends to the working position, and the transfer roller 7 can contact the wiping material 4 on the mop head 2 passing through the wiping channel D. At the same time, the blocking part 51 abuts against the wiping component 3, constraining the wiping component 3 and preventing it from swinging. At this time, the minimum wiping distance H of the wiping nozzle is relatively large. The extruder body 1 is reciprocated, and the transfer roller 7 is driven by the wiping material 4 sliding back and forth in the wiping channel D to rotate around its own axis. The line rotates, which in turn brings the cleaning substance 10 in the cleaning box 6 to the wiping object 4. The wiping object 4 that is contacted by the transfer roller 7 can be covered with the cleaning substance 10. Because the water-slicking distance H is the largest, the squeezing force of the water-slicking component 3 on the wiping object 4 that reciprocates through the water-slicking port is small, which facilitates passage. The water-slicking component 3 will not push the cleaning substance 10 to and concentrate it at the bottom of the wiping object. The cleaning substance 10 is more evenly covered on the wiping object 4, and it can also make the wiping object 4 have a higher water content and a better cleaning effect. The cleaning is completed after the extrusion frame body 1 is pushed back and forth.

[0046] Rinse and rinse mode, such as Figures 8-11 As shown, when the drive component 5 is slid to the second position, the drive column 52 slides along the inclined groove 613 to the lower horizontal groove 612, and the cleaning box 6 rises to the initial position. The transmission roller 7 cannot contact the wiping material 4 on the mop head 2 passing through the wiping channel D. At the same time, the blocking part 51 is located at the clearance notch 31, and the blocking part 51 can pass through the clearance notch 31. That is, the blocking part 51 does not obstruct the wiping component 3, the wiping component 3 can swing a larger range, and the minimum wiping distance H that the wiping component 3 can form is smaller. The reciprocating push of the squeezing frame body 1 causes the mop head 2 to reciprocate through the wiping channel D. The wiping component 3 can apply a large wiping force to the wiping material 4, fully squeezing the wiping material dry, which is the same as the working principle of a traditional wringer.

[0047] like Figure 13 The image shows a preferred embodiment of the mop.

[0048] A mop includes a mop handle 9 and a mop head 2 with a wiping agent 4 rotatably connected to the lower end of the mop handle 9. It also includes a linkage mop holder 1 as described in the previous embodiment, wherein the holder body 1 is constrained on the mop handle 9 and can slide up and down along the mop handle 9.

[0049] It should be noted that in the description of this embodiment, the terms "front," "rear," "left," "right," "inner," "outer," "upper," and "lower," etc., indicating orientations or positional relationships, are based on the orientations or positional relationships shown in the accompanying drawings. They are merely for the convenience of describing the invention and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the invention. 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 direct connection or an indirect connection through an intermediate medium; they can refer to the internal communication between two elements. Those skilled in the art can understand the specific meaning of the above terms in this invention based on the specific circumstances.

Claims

1. A linkage mop squeezing frame, comprising a squeezing frame body (1) having a water wringing channel (D) for a mop head (2) with a wiping material (4) to pass through; a water wringing member (3) movably mounted on the squeezing frame body (1), a water wringing opening being formed between the water wringing member (3) and a corresponding area of the inner wall of the water wringing channel (D), the water wringing member (3) being capable of adjusting the size of the water wringing distance (H) of the water wringing opening during movement; characterized in that further comprising a cleaning box (6) for containing cleaning material (10), being constrained in the squeezing frame body (1) and being capable of ascending and descending, the bottom of the cleaning box (6) being provided with a conveying component for conveying the cleaning material (10) in the cleaning box (6) to the wiping material (4) in the water wringing channel (D); a driving member (5) movably mounted on the squeezing frame body (1) for driving the cleaning box (6) to ascend and descend, the driving member (5) being linked with the water wringing member (3), when the driving member (5) drives the cleaning box (6) to descend to a cleaning position, the driving member (5) restricts the water wringing member (3) to form a range of movement, when the driving member (5) drives the cleaning box (6) to ascend to a water wringing position, the driving member (5) releases the restriction on the water wringing member (3).

2. The linkage mopping bucket of claim 1, wherein: The water wringing member (3) is rotatably mounted on the squeezing frame body (1) so that the water wringing member (3) can swing.

3. The linkage mopping bucket of claim 2, wherein: The driving member (5) is constrained in the squeezing frame and is capable of sliding left and right, the inner end of the driving member (5) is provided with an outward protruding resisting portion (51), the water wringing member (3) is provided with a giving gap (31) for the resisting portion (51) to pass through, when the driving member (5) slides to a first position, the resisting portion (51) abuts against the water wringing member (3), when the driving member (5) slides to a second position, the resisting portion (51) is located in the giving gap (31).

4. The linkage mopping bucket of claim 3, wherein: A guide groove (61) is formed on the side wall of the cleaning box (6), the driving member (5) is provided with a driving column (52), the driving column (52) is located in the guide groove (61) and is capable of sliding along the guide groove (61), the sliding of the driving member (5) causes the driving column (52) to be located in different positions of the guide groove (61) and further drives the cleaning box (6) to ascend and descend.

5. The linkage mopping bucket of claim 4, wherein: The guide groove (61) has an upper horizontal groove portion (611), a lower horizontal groove portion (612) and an inclined groove portion (613), the upper horizontal groove portion (611) is located above the lower horizontal groove portion (612) and is arranged left and right with a spacing, the inner end of the upper horizontal groove portion (611) and the inner end of the lower horizontal groove portion (612) are communicated through the inclined groove portion (613), the driving column (52) slides along the inclined groove portion (613) to the upper horizontal groove portion (611), the cleaning box (6) descends to a cleaning position, the driving column (52) slides along the inclined groove portion (613) to the lower horizontal groove portion (612), the cleaning box (6) ascends to a water wringing position.

6. The linkage mopping bucket of claim 1, wherein: The conveying component is a transmission roller (7) arranged at the bottom opening of the cleaning box (6), which rotates around a rotating shaft to convey the cleaning material in the cleaning box (6) out, and the transmission roller (7) is driven to rotate by the wiping material (4) on the mop head (2) moving in the water channel (D).

7. The linked mop bucket of claim 6, wherein: The cleaning material (10) is cleaning soap, and the cleaning box (6) is provided with an elastic member (8) which directly or indirectly presses the cleaning soap towards the transmission roller (7).

8. The linked mop wringer of claim 7, wherein: The cleaning box (6) comprises a box body (6a) and a box cover (6b) detachably connected to the box body (6a), the elastic member (8) is a spring sheet, the elastic member (8) has a U-shaped arch portion (81) and a supporting leg portion (82) extending outwardly at the bottom end of the arch portion (81), and the top end of the arch portion (81) is fixed to the box cover (6b).

9. The linkage mopping bucket of claim 7, wherein: The top surface of the cleaning material (10) is provided with an anti-sticking layer (101), and the elastic member (8) acts on the anti-sticking layer (101).

10. A mop comprising a mop rod (9) and a mop head (2) with a wiping material (4) which is pivotally connected to the lower end of the mop rod (9), characterized in that: The linkage type mop holder further comprises the linkage type mop holder according to any one of claims 1-9, and the holder body (1) is constrained on the mop rod (9) and can slide up and down along the mop rod (9).

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