A flat mop head for an ultra-efficiency mop

Abstract

A super-efficiency mop head includes a mop handle and a rotatable flat mop head located at the lower end of the handle. The flat mop head includes a mop plate and a mop cloth located below the mop plate. When the flat mop head is rotated relative to the mop handle to a squeezing state to engage with a swiping device or structure, the swiping opening of the device or structure can squeeze and dehydrate or clean the passing mop head. The key feature is that a rigid component is provided above the mop cloth, located on the side where the mop cloth preferentially enters the swiping opening, and the rigid component is fixedly connected to the edge of the mop cloth. The mop cloth is connected to the mop plate via the rigid component. During the squeezing operation, the mop cloth at the front end of the flat mop head enters the swiping opening through the rigid component and the mop plate for squeezing. Because the edge of the mop cloth at the front end of the flat mop head structure of this invention will not lift or fall off due to contact with the scraper during the squeezing operation, the squeezing operation of the flat mop head becomes super-efficiency, and the product has a long service life.

Description

Technical Field

[0001] This invention relates to a flat mop head for an ultra-efficiency mop. Background Technology

[0002] Currently, mops on the market include a mop handle and a rotatable flat mop head located at the lower end of the mop handle. The flat mop head includes a mop plate and a mop cloth located below the mop plate. The mop cloth and mop plate are connected by a Velcro structure, or one end of the mop cloth has a pocket, with the corresponding end of the mop plate inserting into the pocket, and the remaining part of the mop cloth connected to the mop plate by a Velcro structure. When the flat mop head is rotated relative to the mop handle to a squeezing state to engage with a swiping device or swiping structure, the swiping device or swiping structure can squeeze and dehydrate the passing flat mop head. Pressure cleaning; the squeegee structure includes a wringer, which is slidably fitted onto the mop handle. The wringer has an opening, and within the opening is a scraper strip for aligning and squeezing the mop head. The scraper strip and the opening form a squeegee. During squeezing, the movement of the wringer relative to the mop handle allows the squeegee to pass through the flat mop head for a moving squeezing operation; as shown in patent numbers: 201320019718.6, 202220733734.0, 201820446662.5, 201520796391.2, 201 521127257.X A mop with a function equivalent to a swivel structure; / The swivel device includes a bucket body, a bucket lid at the top of the bucket body, an opening in the bucket lid, and a scraper strip in the opening for positioning and squeezing the mop head. A swivel is formed between the scraper strip and the opening. During squeezing, the mop handle is held to operate the flat mop head through the swivel of the bucket body to perform a moving squeezing operation; e.g., patent numbers: 201810740211.7, 201922131628.6, 201710694362.9 with a function equivalent to a swivel. The device has several drawbacks. However, in Example 1, the edge of the mop head (connected to the mop plate via a magic hook structure) often curls up or falls off when it touches the scraper during the process of entering the swivel opening. In Example 2, the mop plate and the pocket are difficult to fit tightly together during the process of entering the swivel opening, so the edge of the mop easily curls up when it touches the scraper or the pocket of the mop easily breaks when it comes into contact with the scraper. The above-mentioned flat mop heads are easily obstructed when entering the swivel opening, and therefore urgently need to be upgraded and improved. Summary of the Invention

[0003] One object of the present invention is to provide a flat mop head for an ultra-efficiency mop that solves the above-mentioned problems.

[0004] To achieve the above-mentioned objectives, the present invention is implemented through the following technical solution: a flat mop head for an ultra-efficiency mop, the mop including a mop handle and a rotatable flat mop head located at the lower end of the mop handle, the flat mop head including a mop plate and a mop cloth located below the mop plate; when the flat mop head is rotated relative to the mop handle to a squeezing state to engage with a swiping device or a swiping structure, the swiping opening of the swiping device or swiping structure can squeeze and dehydrate or squeeze and clean the mop cloth passing through the flat mop head; characterized in that: a rigid member is provided above the mop cloth, the rigid member is located on the side where the mop cloth preferentially enters the swiping opening, and the rigid member is fixedly connected to fit the edge of the mop cloth; the mop cloth is connected to the mop plate by the rigid member, and during the squeezing operation, the mop cloth at the front end of the flat mop head enters the swiping opening through the rigid member and the mop plate to perform the squeezing operation.

[0005] In this invention, the rigid component is made of rigid plastic, and is connected to the mop by sewing, gluing, or fusion bonding. This structure achieves the purpose of fixing the rigid component to the mop.

[0006] In this invention, the rigid component is either a single piece or formed by connecting an upper cover plate and a lower base plate. This structure further optimizes the product.

[0007] The advantages of this invention are as follows: Since a rigid component is fixedly connected to the upper edge of the mop head, the mop head is connected to the mop plate by combining the rigid component. When squeezing, the edge of the mop head at the front end of the flat mop head fits against the rigid component and enters the squeegee to perform the squeezing operation. When the above-mentioned flat mop head structure is squeezed, the edge of the mop head at the front end will not lift up or fall off due to contact with the scraper, so the squeezing operation of the flat mop head becomes super labor-saving and the product has a long service life.

[0008] In this invention, the mop head is connected to the mop plate via a detachable structure using a rigid component. The detachable structure includes a splicing structure between the mop plate and the rigid component, and a hook structure between the mop head and the mop plate. The splicing structure includes a plug on the side of the mop plate and an insertion port on the side of the rigid component. When the mop head is connected to the mop plate via the rigid component, the rigid component assembles the plug with the insertion port, and then the remaining part of the mop head is pulled tight at the splice joint before being bonded to the mop plate via the hook structure. After the mop plate and the rigid component are connected, a limiting structure restricts their relative rotation. The limiting structure includes at least two sets of splicing structures, or the insertion port and plug in the splicing structure are not circular. This structure achieves the purpose of connecting the mop head to the mop plate via a detachable structure using a rigid component.

[0009] In this invention, the mop head is connected to the mop plate via a detachable structure using a rigid component. The detachable structure includes a snap-fit ​​mechanism between the mop plate and the rigid component, and a hook mechanism between the mop head and the mop plate. The snap-fit ​​mechanism includes a locking head B in the mop plate and a locking position B in the rigid component. When the mop head is connected to the mop plate via the rigid component, the mop plate and the rigid component are engaged by the locking head B and the locking position B. The remaining portion of the mop head is then bonded to the mop plate via the hook mechanism. This structure also achieves the purpose of connecting the mop head to the mop plate via a detachable structure using a rigid component.

[0010] In this invention, a splicing structure is provided between the slide and the rigid component. The splicing structure includes a plug on the side of the slide and a socket on the side of the rigid component. During the splicing process of the rigid component with the socket, a locking head B can engage with a locking position B. After the slide and the rigid component are connected, a limiting structure restricts their relative rotation. The limiting structure includes at least two sets of splicing structures, or the socket and plug in the splicing structure have a non-circular fit. This structure makes the connection between the slide and the rigid component more stable and the connection operation convenient and quick.

[0011] In this invention, the mop is connected to the mop plate via a detachable structure using a rigid component. The detachable structure includes a snap-fit ​​structure B between the mop plate and the rigid component, and a magic hook structure between the mop and the mop plate. The mop plate includes an upper plate and a lower plate, which are detachably connected. The snap-fit ​​structure B includes a rotatable locking head between the upper and lower plates, and the upper and lower plates can limit the rotation angle of the locking head. The outer end of the locking head has a locking head. When the mop is connected to the mop plate using the rigid component, the locking head is exposed on the mop plate and can engage with a locking position provided on the rigid component. The remaining part of the mop is then bonded to the mop plate via the magic hook structure. A torsion spring is provided between the locking head and the mop plate. Under non-external force, the torsion spring causes the locking head end of the locking head to tilt upwards to maintain the engaging state. The locking head includes an operating part exposed on the mop plate. The operating part is used to drive the locking head to rotate, causing the locking head to disengage from the locking position, thereby allowing the rigid component to be detached from the mop plate. The above structure can also achieve the purpose of connecting the mop to the slide plate via a detachable structure, which is combined with rigid components.

[0012] In this invention, a splicing structure is provided between the slide and the rigid component. The splicing structure includes a plug on the side of the slide and a socket on the side of the rigid component. During the splicing process of the rigid component assembling the plug with the socket, a locking head can engage with a locking position. After the slide and the rigid component are connected, a limiting structure restricts their relative rotation. The limiting structure includes at least two sets of splicing structures, or the socket and plug in the splicing structure have a non-circular fit. This structure makes the connection between the slide and the rigid component more stable and the connection operation convenient and quick. Attached Figure Description

[0013] Figure 1 This is a schematic diagram of the structure of the super labor-saving mop of the present invention when used in conjunction with the brush head structure.

[0014] Figure 2 This is a schematic diagram of the structure of the super labor-saving mop of the present invention when used in conjunction with the spout device.

[0015] Figure 3 This is an exploded view of Embodiment 1 of the detachable structure of the flat trailer head of the present invention.

[0016] Figure 4 This is a schematic cross-sectional view of the detachable structure of the flatbed trailer head of the present invention, embodiment 1. Figure 1 (The locking state of the locking head of the locking component and the locking position of the rigid component).

[0017] Figure 5 This is the present invention. Figure 4 Enlarged view of the AA structure at the indicator.

[0018] Figure 6 This is a schematic cross-sectional view of the detachable structure of the flatbed trailer head of the present invention, embodiment 1. Figure 2 (The card head of the card head component is disengaged from the card slot of the hard component).

[0019] Figure 7 This is the present invention. Figure 6 Enlarged view of the BB structure at the indicator.

[0020] Figure 8 This is an exploded view of Embodiment 2 of the detachable structure of the flat trailer head of the present invention.

[0021] Figure 9 This is the present invention. Figure 8 Enlarged view of the CC structure at the indicator.

[0022] Figure 10 This is a cross-sectional view of the detachable structure embodiment 2 of the flat trailer head of the present invention.

[0023] Figure 11 This is the present invention. Figure 10 Enlarged view of the DD structure at the indicator.

[0024] Figure 12 This is an exploded view of embodiment 3 of the detachable structure of the flat trailer head of the present invention.

[0025] Figure 13 This is the present invention. Figure 12 Enlarged view of the EE structure at the indicator.

[0026] Figure 14 This is a cross-sectional view of the detachable structure of the flat trailer head of the present invention, embodiment 3.

[0027] Figure 15 This is the present invention. Figure 14 Enlarged view of the FF structure at the indicator. Detailed Implementation

[0028] The present invention will be further described below with reference to the accompanying drawings and through embodiments. (Refer to...) Figures 1 to 7 As shown: This invention discloses a flat mop head for an ultra-efficiency mop. The mop includes a mop handle 1 and a rotatable flat mop head 2 located at the lower end of the mop handle. The flat mop head includes a mop plate 2-1 and a mop cloth 2-2 located below the mop plate. When the flat mop head is rotated relative to the mop handle to a squeezing state to engage with a swiping device or a swiping structure, the swiping openings 3-4 of the swiping device or swiping structure can squeeze and dehydrate or squeeze and clean the flat mop head that passes through it. The invention is characterized in that: a rigid member 5 is provided above the mop cloth, the rigid member is located on the side where the mop cloth preferentially enters the swiping opening, and the rigid member 5 is fixedly connected to the edge of the mop cloth 2-2; the mop cloth 2-2 is connected to the mop plate 2-1 in conjunction with the rigid member 5, and during the squeezing operation, the mop cloth at the front end of the flat mop head enters the swiping opening through the rigid member and the mop plate to perform the squeezing operation. The squeegee structure 4 includes a wringer 20, which is slidably fitted onto the mop handle 1. The wringer has an opening, and within the opening is a scraper 21 for aligning and squeezing the mop head. The scraper and the opening form a squeegee 3-4. During squeezing, the movement of the wringer relative to the mop handle allows the squeegee to pass through the mop head for a moving squeezing operation; as per patent numbers: 201320019718.6, 202220733734.0, 201820446662.5, 201520796391.2, 201521. 127257.X A mop with a function equivalent to a swivel structure; / The swivel device includes a bucket body 22, a bucket cover 23 at the upper opening of the bucket body, an opening in the bucket cover, and a scraper 21 in the opening for positioning and squeezing the mop. A swivel 3-4 is formed between the scraper and the opening. During the squeezing operation, the mop handle is held to operate the flat mop head through the swivel of the bucket body to perform a moving squeezing operation; such as patent numbers: 201810740211.7, 201922131628.6, 201710694362.9 with a function equivalent to a swivel device.

[0029] In this embodiment, the rigid component 5 is made of rigid plastic, and is connected to the mop by sewing, gluing, or fusion bonding. Preferably, the rigid component is made of PP, PA, or PE, and is sewn to the mop using thread; the fusion bonding includes hot-melt pressing or ultrasonic welding.

[0030] In this embodiment, the mop head is connected to the mop plate via a detachable structure using a rigid component. The detachable structure includes a snap-fit ​​structure B between the mop plate and the rigid component, and a magic hook structure between the mop head and the mop plate. The mop plate includes an upper plate 11 and a lower plate 12, which are detachably connected. The snap-fit ​​structure B includes a rotatable locking head 13 between the upper and lower plates, and the upper and lower plates can limit the rotation angle of the locking head. A locking head 14 is provided at the outer end of the locking head. The mop head is connected to the rigid component via a detachable structure. When the plates are connected, the clamp head is exposed on the slide plate and can be engaged with the clamping position 15 provided on the rigid component. The remaining part of the mop is then bonded to the slide plate via the magic hook structure 10. A torsion spring 16 is provided between the clamp head 13 and the slide plate 2-1. Under non-external force, the torsion spring keeps the clamp head end of the clamp head in a clamping state. The clamp head includes an operating part 17 exposed on the slide plate. The operating part is used to drive the clamp head to rotate, causing the clamp head to disengage from the clamping position, thereby allowing the rigid component to be disassembled relative to the slide plate. The upper plate and the lower plate are connected by a screw structure or a snap-fit ​​structure. The clamp head is rotatably located between the upper and lower plates. Preferably, two horizontally arranged opposite connecting holes 24 are formed between the upper and lower plates. Two connecting posts 25 are respectively provided on the two outer sides of the clamp head corresponding to the connecting holes. After the clamp head is connected to the connecting holes through the connecting posts, it can rotate up and down in the slide plate. Preferably, the torsion spring is sleeved on the connecting posts, and its two torsion arms abut against the upper plate and the lower plate respectively.

[0031] In this embodiment, a splicing structure is provided between the slide plate and the rigid component. The splicing structure includes a plug 6 on the side of the slide plate 2-1 and a socket 7 on the side of the rigid component 5. During the splicing process of the rigid component with the socket, the locking head 14 can engage with the locking position 15. After the slide plate and the rigid component are connected, they are restricted from relative rotation by a limiting structure. The limiting structure includes at least two sets of splicing structures, or the socket and plug in the splicing structure are not circular. At least one of the plug and socket has a guide portion.

[0032] In this embodiment, the rigid component is either a single piece or formed by connecting an upper cover plate and a lower base plate.

[0033] The working process of this embodiment is as follows: When assembling the flat tractor head, the operator aligns the rigid component connector with the tractor plug. During assembly, the clamp head can be aligned and engaged with the clamping position. The operator can then attach the remaining part of the mop to the mop plate using the magic hook structure. During disassembly, the operator drives the clamp head to rotate using the operating part, causing the clamp head to disengage from the clamping position, thus allowing the rigid part to be disassembled relative to the mop plate. During squeezing, the flat mop head rotates relative to the mop handle to a squeezing state to engage with the swishing device or swishing structure. When used, the swishing device or swishing structure can squeeze and dehydrate or squeeze and clean the flat mop head that passes through it. During the process of the flat mop head passing through the swishing device or swishing structure, the rigid part can protect the front end of the mop head from tilting back, falling off, or being damaged.

[0034] Because the upper edge of the mop head of the present invention is fixedly connected to a rigid component, the mop head is connected to the mop plate by combining the rigid component. When squeezing, the edge of the mop head at the front end of the mop head fits against the rigid component and enters the squeegee to perform the squeezing operation. When the above-mentioned flat mop head structure is squeezed, the edge of the mop head at the front end will not lift up or fall off due to contact with the scraper, so the squeezing operation of the flat mop head becomes super labor-saving and the product has a long service life.

[0035] Figures 8-11 The mop is connected to the mop plate via a detachable structure, which includes a splicing structure between the mop plate and the rigid component, and a magic hook structure between the mop and the mop plate. The splicing structure includes a plug 6 on the side of the mop plate 2-1 and an insertion port 7 on the side of the rigid component 5. When the mop is connected to the mop plate via the splicing port 7, the rigid component 5 assembles the plug 6 with the insertion port 7, and then the remaining part of the mop 2-2 is pulled tight at the splice joint before being bonded to the mop plate 2-1 via the magic hook structure 10. After the mop plate and the rigid component are connected, a limiting structure restricts their relative rotation. The limiting structure includes at least two sets of splicing structures, or the insertion port and plug in the splicing structure are not circular. At least one of the plug and insertion port has a guide portion.

[0036] The working process of this embodiment is as follows: When assembling the flat tractor head, the operator aligns the rigid component connector with the tractor plug. The horizontal splicing, combined with the remaining parts of the mop head, is tightened at the splice joint and then bonded to the mop board via a magic hook structure; the reverse is disassembly. When squeezing, the flat mop head rotates relative to the mop handle to a squeezing state to engage with the swivel device or swivel structure. When in use, the swivel device or swivel structure can squeeze and dehydrate or squeeze and clean the flat mop head that passes through it. During the process of the flat mop head passing through the swivel, the rigid component can protect the front mop head from tilting back, falling off, or being damaged.

[0037] Figures 12-15The mop is connected to the mop plate via a detachable structure, which includes a snap-fit ​​structure between the mop plate and the rigid component, and a magic hook structure between the mop 2-2 and the mop plate. The snap-fit ​​structure includes a snap head B8 in the mop plate 2-1 and a snap position B9 in the rigid component 5. When the mop is connected to the mop plate via the rigid component, the mop plate and the rigid component are engaged by the snap head B and the snap position B, and the remaining part of the mop is then bonded to the mop plate via the magic hook structure 10. A splicing structure is provided between the mop plate and the rigid component. This splicing structure includes a plug 6 on the side of the mop plate and a socket 7 on the side of the rigid component. During the splicing of the plug and socket, the snap head B can engage with the snap position B. After the mop plate and the rigid component are connected, a limiting structure restricts their relative rotation. This limiting structure includes at least two sets of splicing structures, or the socket and plug in the splicing structure are not circular. At least one of the plug and socket has a guide portion. The rigid component may be provided with a slot 72, which is used for disassembly after the card head B and the card position B are engaged.

[0038] The working process of this embodiment is as follows: When assembling the flat mop head, the operator aligns the rigid component insertion port with the mop plate plug during the horizontal assembly process. The clamp B can then align and engage with the clamping position B. The operator subsequently attaches the remaining part of the mop head to the mop plate using the magic hook structure; the reverse is disassembly. During squeezing, the flat mop head rotates relative to the mop handle to a squeezing state to engage with the swishing device or swishing structure. When used, the swishing device or swishing structure can squeeze and dehydrate or clean the flat mop head as it passes through the swishing device or structure. Furthermore, during the process of the flat mop head passing through the swishing device or structure, the rigid component protects the front end of the mop head from tilting backwards, falling off, or being damaged.

[0039] The above embodiments are merely examples of the present invention. Any substitutions or combinations between embodiments made in accordance with the spirit of the present invention should be understood as not departing from the protection scope of the present invention.

Claims

1. A flat mop head for an ultra-efficiency mop, the mop comprising a mop handle and a rotatable flat mop head located at the lower end of the mop handle, the flat mop head comprising a mop plate and a mop cloth located below the mop plate; when the flat mop head is rotated relative to the mop handle to a squeezing state to engage with a swiping device or a swiping structure, the swiping device or swiping structure can squeeze and dehydrate or squeeze and clean the flat mop head that passes through it; characterized in that: A rigid component is provided above the mop head, located on the side where the mop head preferentially enters the swivel opening. The rigid component is fixedly connected to the edge of the mop head. The mop head is connected to the mop plate by the rigid component. During the squeezing operation, the mop head at the front end enters the swivel opening through the rigid component and the mop plate to perform the squeezing operation.

2. The flat mop head of the ultra-efficiency mop according to claim 1, characterized in that: The rigid component is made of rigid plastic and is connected to the mop by sewing, gluing, or fusion bonding.

3. The flat mop head of the ultra-efficiency mop according to claim 2, characterized in that: The mop is connected to the mop plate via a detachable structure using a rigid component. The detachable structure includes a splicing structure between the mop plate and the rigid component, and a magic hook structure between the mop and the mop plate. The splicing structure includes a plug on the side of the mop plate and an insertion port on the side of the rigid component. When the mop is connected to the mop plate via the rigid component, the rigid component splices the plug with the insertion port, and then the remaining part of the mop is pulled tight at the splice joint before being bonded to the mop plate via the magic hook structure.

4. The flat mop head of the ultra-efficiency mop according to claim 3, characterized in that: After the slide plate is connected to the rigid component, it is restricted from rotating relative to the component by a limiting structure. The limiting structure includes at least two sets of splicing structures or the splicing structure includes non-circular sockets and plugs.

5. The flat mop head of the ultra-efficiency mop according to claim 2, characterized in that: The mop is connected to the mop plate via a detachable structure using a rigid component. The detachable structure includes a snap-fit ​​structure between the mop plate and the rigid component, and a magic hook structure between the mop and the mop plate. The snap-fit ​​structure includes a snap head B in the mop plate and a snap position B in the rigid component. When the mop is connected to the mop plate via the rigid component, the mop plate and the rigid component are engaged by the snap head B and the snap position B, and the remaining part of the mop is then bonded to the mop plate via the magic hook structure.

6. The flat mop head of the ultra-efficiency mop according to claim 2, characterized in that: The mop is connected to the mop plate via a detachable structure using a rigid component. The detachable structure includes a snap-fit ​​structure B between the mop plate and the rigid component, and a magic hook structure between the mop and the mop plate. The mop plate includes an upper plate and a lower plate, which are detachably connected. The snap-fit ​​structure B includes a rotatable locking head between the upper and lower plates, and the upper and lower plates can limit the rotation angle of the locking head. The outer end of the locking head has a locking head. When the mop is connected to the mop plate via the rigid component, the locking head protrudes from the mop plate and can engage with a locking position provided on the rigid component. The remaining part of the mop is then bonded to the mop plate via the magic hook structure. A torsion spring is provided between the locking head and the mop plate. Under non-external force, the torsion spring causes the locking head end of the locking head to tilt upwards to maintain the engaging state. The locking head includes an operating part protruding from the mop plate. The operating part is used to drive the locking head to rotate, causing the locking head to disengage from the locking position, thereby allowing the rigid component to be detached from the mop plate.

7. The flat mop head of the ultra-efficiency mop according to claim 5 or 6, characterized in that: The slide plate and the rigid component are provided with a splicing structure. The splicing structure includes a plug on the side of the slide plate and an insertion port on the side of the rigid component. During the process of splicing the plug with the insertion port, the clamp head can cooperate with the clamping position to engage, or the clamp head B can cooperate with the clamping position B to engage.

8. The flat mop head of the ultra-efficiency mop according to claim 7, characterized in that: After the slide plate is connected to the rigid component, it is restricted from rotating relative to the component by a limiting structure. The limiting structure includes at least two sets of splicing structures or the splicing structure includes non-circular sockets and plugs.

9. The flat mop head of the ultra-efficiency mop according to claim 2, characterized in that: The rigid component is either a single piece or formed by connecting an upper cover plate and a lower base plate.

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