TWM576035U - Flat mop cleaning tool convenient for drying by flinging - Google Patents

Abstract

The present invention relates to a flat mop cleaning tool which is convenient for dry operation, including a mop bucket and a flat mop head which is rotatably connected to the lower end of the mop stick, and a wiper head is provided on the flat mop head; the mop bucket has a drying area, and the drying area is provided a first supporting member for supporting and rotating the flat mop head; wherein: the first supporting member is mounted at a bottom of the drying region by a connecting structure, the connecting structure enables the rotation axis of the first supporting member to be Moving in a plane, the rotation axis can also be swung with its bottom as a fulcrum. In the dry state, the flat mop head is inserted and supported on the first support member in the drying area, and the flat plate is driven by the depression of the mop rod. The mop head rotates rapidly about the axis of rotation in the spin region to dry the wipe. The cleaning tool can significantly improve the shaking of the flat mop during the drying process, effectively improving the drying effect of the wiper and reducing the noise.

Description

Flat mop cleaning tool for dry operation

The present invention relates to a cleaning tool, and more particularly to a cleaning tool that facilitates the drying operation of a flat mop.

There are four ways to dehydrate a conventional flat mop.

Method 1: Pressing the squeeze dehydration, and setting the foot pressing device on the mop bucket, including the water squeeze basket set in the mop bucket, the pedal hinged on the upper part of the mop bucket and opposite to the water squeeze basket, the pedal and the water squeeze The basket is surrounded by a water squeezing space. When dehydrating, the mop on the mop plate of the flat mop is first removed, and the mop is placed in the squeezing space, and then the pedal is pressed to make the squeezing space shrink to squeeze the water on the mop. The purpose of doing it. This form of dewatering requires the design of a complicated foot press device, which is costly; when the water is squeezed, the mop needs to be first removed, and the foot is required to be stepped on, which is troublesome to operate.

Mode 2: Centrifugal rotary dewatering, which adopts a hand-pressed rotary mop rod. When dehydrating, it is necessary to bend both ends of the mop plate of the flat mop and place it in the dewatering area of the mop bucket, and press the mop rod to make the flat mop The mop plate is spin-dried and dehydrated. In order to reduce the area of the mop bucket, this form of dewatering method requires the mop panel of the flat mop to be designed as a bendable structure, so that the structure of the mop head of the component is complicated, and the structure of the mop in the mop bucket is also complicated. higher cost. In addition, the rotation axis position at the time of drying is always in a vertical state, and when the mop lever is pulled up and down, the vertical posture must be maintained, and the operation is inconvenient. Because there is a matching gap between the axis of rotation of the mop rod and the axis of the mop rod supported in the mop bucket, During the drying process, the two axes will be misaligned. Plastic deformation, assembly clearance, mop cloth processing technology, and mop cloth installation accuracy will affect the overall center of gravity. Therefore, it consists of a flat mop head, a mop rod, and a dry basket with wipes. The system is difficult to keep the center of gravity of the system on the axis of rotation, so it will produce jitter when rotating, which not only makes the noise during the drying process very loud, but also can not increase the rotation speed, so that the wipe can not be dried.

Method 3: self-screwing dehydration, which comprises a mop rod, a flat mop plate movably connected to the mop rod, and a water squeezing mechanism on the mop rod, by the relative squeezing movement between the water squeezing mechanism and the flat mop plate To squeeze and clean the wipes on the flat mop board. The disadvantage is that in the water squeezing operation, it is necessary to hold the mop rod in one hand and hold the water squeezing mechanism in one hand, and the relative squeezing between the water squeezing mechanism and the flat mop board is realized by a single hand push and pull water squeezing mechanism. Pressing and moving motion is very laborious and not very operability.

Method 4: hand-pushing dry squeezing water, which is equipped with a squeezing device on the mop bucket, and the squeezing principle is similar to that of the method 3, except that the squeezing structure is moved to the mop bucket one, as the patent number is CN20 1620853180.2 (the announcement number is CN206080445U) The Chinese utility model patent "a mop bucket for flat water mop squeezing and cleaning" also has the disadvantage of being laborious and difficult to squeeze.

In summary, conventional cleaning tools for cleaning and de-drying flat mops are also considered to be further improved.

The technical problem to be solved by the present invention is to provide a flat mop cleaning tool with a novel and reasonable drying method and a convenient cleaning operation for facilitating the drying operation, which can significantly improve the flat mop during the drying process. The jitter is effective to improve the drying effect of the wipe and reduce the noise.

The first technical solution adopted by the present invention to solve the above technical problems is: a flat mop cleaning tool for facilitating the drying operation, including a mop bucket and a flat mop head pivotally connected to the lower end of the hand-rotating mop stick, on the flat mop head a wiping material is provided; the mop barrel has a drying area, and the first supporting part is configured to support and rotate the flat mop head; wherein: the first supporting part is mounted on the connecting structure by the connecting structure The bottom of the dry zone, the connecting structure enables the rotation axis of the first support member to move not only in the plane, but also to oscillate the rotation axis with its bottom as a fulcrum, and rotate the flat mop head to its length direction when dry In the same direction as the axis of the mop rod, in the dry state, the flat mop head is inserted into and supported by the first support member, and the lowering of the mop rod drives the flat mop head around the rotation axis in the drying region. Rotate quickly to dry the wipe.

Further, the first supporting member is provided with a latch extending upwardly, and the lower side of the flat mop head is provided with a socket for inserting the plug. In a state where the flat mop head is supported on the first supporting member, the latch is inserted into the plug. Jack. By inserting the pin and the jack, when the mop rod drives the flat mop head to deflect, the first supporting member is synchronously yawed, and the setting of the pin enables the center of rotation of the flat mop head and the first supporting member. The center of rotation is always on the same axis, ensuring the synchronization of the two rotations.

Preferably, the flat mop head has a U-shaped open slot, the open slot extends through the upper side of the flat mop head, and the bottom of the open slot is hinged with a joint, and the lower end of the mop rod is connected to the joint, the flat mop The wipe is provided on both the front and back sides of the head. The flat mop head structure has the following advantages: firstly, the flat mop head is turned over to the cleaning or drying state, and the central axis of the flat mop head is coincident with the axis of the mop rod, so that the mop rod and the flat mop head are kept coaxial, The dry effect is good; then the wipes are mounted on both sides of the flat mop head to reduce the number of wipes, save time and improve work efficiency.

Preferably, the connecting structure comprises a connecting component fixed at the bottom of the trunking region, the first supporting component has a receiving cavity with an opening facing downward, the connecting component extends into the receiving cavity and is supported by the ball The head connection structure is coupled to the first support member, the connection member being spaced from the opening of the receiving cavity such that the first support member is movable in a plane relative to the connecting member. The connecting member is connected to the first supporting member by the ball joint structure, so that the first supporting member can be yawed, and the connecting member and the opening of the accommodating cavity are spaced, so that the first supporting member can be in a plane with respect to the connecting member. Move inside. The first connection structure is reasonable in layout.

Specifically, the ball joint structure includes a first connecting ball head and a second connecting ball head, the first connecting ball head is disposed at a head of the connecting component, and the bottom of the second connecting ball head is provided with the first connecting ball head The mating spherical cavity is inserted into the spherical cavity, and the bottom of the first supporting member is provided with a receiving cavity for the second connecting ball to be accommodated. The cooperation of the second connecting ball head and the spherical four cavity, and the cooperation of the second connecting ball head and the accommodating cavity enable the first supporting component to swing, and the spacing between the openings of the connecting component accommodating cavity enables the rotation axis to move . The connecting member is connected to the first supporting member by the two connecting ball heads, and it can be better ensured that the first supporting member can easily rotate around its own axis even in a state where the first supporting member is yawed.

Due to the limited space in the mop bucket, if the displacement of the rotation axis is too large or the swing amplitude is too large, the mop rod and the barrel wall of the mop bucket may easily collide and interfere, thereby affecting the rotation of the first support member, and further improving in order to avoid the occurrence of the aforementioned situation. a limiting structure is disposed between the connecting component and the accommodating cavity, and the limiting structure not only limits the moving range of the rotating axis of the first supporting component in a plane range, but also uses the bottom of the rotating axis as a fulcrum The amplitude of the swing is limited.

Preferably, the periphery of the limiting connecting member has an annular limiting plate, and the first supporting member has a receiving cavity matched with the limiting plate, and the deflection of the first supporting member enables the limiting plate and the capacity The inner top surface and the inner bottom surface of the cavity are formed to form a limit, and the bottom surface of the second connecting ball head and the top surface of the limiting plate have a limit spacing. The first supporting member can not be deflected at a large angle by the limit matching of the limiting plate and the receiving cavity, and the setting of the limiting spacing limits the amplitude of the second connecting ball to the first connecting ball. If the swing angle is too large, the bottom of the second connecting ball head will touch the top surface of the limit plate.

Preferably, the limiting plate is provided with a plurality of circumferentially spaced receiving holes, and the receiving hole is provided with a steel ball. In the yaw state of the first supporting member, the steel ball and the receiving cavity are The inner top surface and the inner bottom surface touch. The arrangement of the steel balls facilitates the rotation of the first support member.

The upper part of the first supporting member is provided with a drying basket, and the inner wall of the drying basket is provided with a limiting groove for restraining the flat mop head inserted therein. The setting of the dry basket supports the flat mop head, which facilitates the rotation of the flat mop head. The limiting slot acts on the flat mop head in a limited position, so that the flat mop head is kept in a coaxial position with the first supporting member during the drying process, and the plug is inserted while the flat mop head is supported on the first supporting member. Inside the jack.

Preferably, the mop bucket is further provided with a cleaning zone independent of the drying zone, and the cleaning zone is provided with a cleaning device, and the flat mop head is rotated to the same length direction as the axis of the mop bar during cleaning. The flat mop head is inserted into the washing device in the washing area and moved up and down to cause the cleaning device to clean the wipe. The cleaning and drying structure is cleverly integrated on the mop bucket, which can be cleaned and dried in a mop bucket at the same time. It is very convenient to use, and the cleaning device can wipe the wipes, and the cleaning wipe is better.

Further improved, the flat mop head is provided with a locking structure matched with the mop rod, and in the state in which the plug is inserted into the jack, the latch triggers the locking structure to lock the flat mop head in the same length direction as the mop rod axis direction The location status. The locking structure ensures that the flat mop head is always in a vertical state during the drying process, so that the entire drying head can be normally carried out. If the flat mop head is deflected relative to the mop rod during the drying process, it will collide with the mop barrel. Let the dryness be in a chaotic state, affecting the dry effect, and seriously damage the mop.

The second technical solution adopted by the present invention to solve the above technical problems is: a flat mop cleaning tool for facilitating dry operation, including a mop bucket and a flat mop head connected to the lower end of the hand-rotating mop stick, on the flat mop head Providing a wiping material; the mop barrel has a drying area, wherein: the drying area is provided with a groove for forming a support for the flat mop head, and the flat mop head is provided and capable of a second supporting member that rotates with the flat mop head, the second supporting member is driven by the driving structure to be able to slide down along the length of the flat mop head, and the second supporting member is moved down to extend the bottom of the flat mop head and the concave portion The groove forms a support, and the rotation axis of the second support member can not only move in a plane in which the bottom surface of the groove is located, but also the rotation axis is oscillated with the bottom of the second support member as a fulcrum, and the flat mop head is dried when dry Rotating to the length direction is the same as the axial direction of the mop rod. In the dry state, the flat mop head is inserted in the drying area and the second supporting member is supported on the groove, and the flat mop head is driven by the depression of the mop rod The wiper is quickly rotated about the axis of rotation in the spin region to dry the wipe.

Since the second support member extends downward and protrudes from the bottom of the flat mop head and forms a support with the groove, the rotation axis of the second support member can be arbitrarily moved not only in the plane in which the bottom surface of the groove is located, but also in the second axis of rotation. The bottom of the support member swings for the fulcrum, so that the whole of the flat mop head, the mop rod and the second support member provided with the wipe can automatically find the rotation axis during the rotation process, and ensure that the center of gravity thereof is on the rotation axis. During the dry operation, even if the mop lever is slightly tilted, the rotation center can be automatically found, which can significantly improve the jitter of the flat mop during the drying process, effectively improve the drying effect of the wiper and reduce the noise. The gyro turns similar. And the groove can restrain the movement limit of the second support member, and avoid the interference between the flat mop and the mop bucket. When mopping the floor, the driving structure drives the second supporting member to move up and is hidden in the flat mop head, which does not affect the mopping.

The bottom of the first support member has a downwardly extending support shaft for contacting the bottom surface of the recess. The contact position of the support shaft and the groove is easy to get along the rotation fulcrum, and the structure is simple.

The driving structure comprises a driving rod and a return spring. The driving rod is sleeved on the mop rod and driven by the wrench mechanism to slide up, and the lower end of the driving rod is matched with the two vertical arms of the second supporting member, the return spring A horizontal arm that is sleeved on the support shaft and acts on the second support member maintains the second support member in an upward trend. The driving structure is convenient to operate, and the wrench mechanism has a self-locking function to facilitate locking, and of course, other known locking structures can be selected.

Compared with the prior art, the advantages of this creation are:

1. The first supporting member forms a support for the flat mop head vertically inserted into the drying area, and when the lever is dry, the upper rod of the mop rod is moved up and down, and the flat mop head is rapidly rotated under the action of the hand-rotating structure, thereby Drying the wipe, because the length of the flat mop head is the same as the axial direction of the mop bar during the drying process (substantially vertical), so that the space occupied by the flat mop head is small, and the flat mop head does not need to be set to The foldable method also ensures that the size of the mop bucket does not need to be large, and the structure of the flat mop head is simplified, and there is no need to additionally provide a squeezing mechanism on the mop rod, and the mop structure is more compact.

2. In addition, since the first supporting member is installed at the bottom of the drying region by the connecting structure, the first connecting structure enables the rotation axis of the first supporting member to move not only in the plane but also the bottom of the rotating axis The fulcrum is oscillated, so that the whole of the flat mop head, the mop stick and the first support member provided with the wipe can automatically find the rotation axis during the rotation process, and ensure that the center of gravity is on the rotation axis, in the dry operation In the process, even if the mop rod is slightly inclined, the rotation center can be automatically found, which can obviously improve the shaking condition of the flat mop during the drying process, effectively improve the drying effect of the wiping object, and improve the noise reduction. The working principle is similar to that of the gyroscopic rotation. .

3, the operator can adjust to a comfortable angle to hold the mop bar, even if the angle of the flat mop head is in the vertical state, it can effectively complete the drying, the operation is more convenient and user-friendly.

1‧‧‧Mop bucket

2‧‧‧Mops

3‧‧‧ flat mop head

4‧‧‧ Wipe

5‧‧‧First support member

6‧‧‧Connecting parts

7‧‧‧Second connection ball head

8‧‧‧cleaning device

9‧‧‧Lock frame

10‧‧‧ Spring

11‧‧‧Second support parts

12‧‧‧ Groove

13‧‧‧Driver

14‧‧‧Return spring

15‧‧‧Wrench mechanism

21‧‧‧Connectors

22, 541‧‧‧ Limit slot

31‧‧‧ jack

32‧‧‧Open slot

51‧‧‧Latch

52, 53‧‧‧ 容 cavity

54‧‧‧甩 dry basket

61‧‧‧First connecting ball head

62‧‧‧Limited disk

63‧‧‧ steel ball

71‧‧‧Spherical cavity

91‧‧‧

92‧‧‧Connecting column

111‧‧‧Support shaft

621‧‧‧ accommodating holes

D‧‧‧ Limit spacing

Q1‧‧‧甩干区

Q2‧‧‧Cleaning area

L‧‧‧ Length direction

X‧‧‧Rotation axis

1 is a schematic perspective view of a first embodiment of the present invention; FIG. 2 is a cross-sectional view showing a first embodiment of the creation; FIG. 3 is an enlarged view of a portion A of FIG. 2; An exploded perspective view of a first support member portion in one embodiment; Figure 5 is a schematic perspective view showing the structure of the flat mop head in the first embodiment of the present invention; Fig. 6 is a schematic view showing the internal structure of the flat mop head portion in the first embodiment of the creation (unlocked state); The internal structure diagram (locked state) of the flat mop head portion in the first embodiment of the present invention; FIG. 8 is a three-dimensional structure diagram of the second embodiment of the creation (not dry state); The two embodiments remove the three-dimensional structure diagram of the flat cover of the flat mop head (not dry state); the tenth figure is a three-dimensional structure diagram of the second embodiment of the creation (dry state); The two embodiments remove the three-dimensional structure diagram of the flat cover of the flat mop head (dry state).

The present writing is further described in detail below in conjunction with the illustrated embodiments.

As shown in Figures 1 through 71, this is the first embodiment of the creation.

A flat mop cleaning tool for facilitating the drying operation, comprising a mop bucket 1 and a flat mop head 3 rotatably connected to the lower end of the hand-rotating mop lever 2, the flat mop head 3 is provided with a wipe 4; the wipe 4 is generally The mop, which is not shown in the drawings in this embodiment, can be referred to the prior art by the hand-rotating mop lever 2, and generally includes an upper rod and a lower rod that are sleeved with each other, and between the upper and lower rods. The telescopic movement of the upper rod is converted into a driving structure for the rotational movement of the lower rod, and the mop rod 2 only shows the lower rod portion.

The flat mop head 3 and the mop stick 2 in this embodiment are connected in the following manner. The flat mop head 3 is provided with a U-shaped open slot 32. The open slot 32 extends through the upper side of the flat mop head 3, and the bottom of the open slot is hinged. There is a joint 21 to which the lower end of the mop rod 2 is attached, and the front and back sides of the flat mop head 3 are provided with a wipe 4, which is generally a rag or the like.

The mop bucket 1 has a drying zone Q1, and the first support member 5 for supporting and rotating the flat mop head 3 is disposed in the kneading zone Q1, and the first supporting component 5 is mounted on the drying frame by the first connecting structure At the bottom of the zone Q1, the connecting structure enables the rotation axis X of the first support member 5 to be moved not only in the plane but also to oscillate the rotation axis X with its bottom as a fulcrum. The first supporting member 5 is provided with a latch 51 extending upwardly, and the lower side of the flat mop head 3 is provided with a jack 31 for inserting the plug 51, and when the lever is dry, the flat mop head 3 is rotated to the length direction L and the mop The rod 2 has the same axial direction. In the dry state, the flat mop head 3 is inserted into and supported by the first support member in the drying zone Q1, and the latch 51 is inserted into the insertion hole 31, and the flat mop head is driven by the depression of the mop rod 2. 3 Quickly rotate in the Q1 area of the dry area to dry the wipe 4.

The connecting structure comprises a connecting part 6 fixed in the bottom of the drying zone Q1. The first supporting part 5 has an accommodating cavity 53 with an opening facing downward, and the connecting part 6 extends into the accommodating cavity 53 and is connected by the ball joint structure and the A support member 5 is connected, and the connecting member 6 is spaced from the opening of the accommodating chamber 53 so that the first support member 5 can move in a plane with respect to the connecting member 6. The ball joint structure includes a first connecting ball head 61 and a second connecting ball head 7, the first connecting ball head 61 is disposed at the head of the connecting member 6, and the bottom of the second connecting ball head 7 is provided with the first connecting ball The first concave connecting rod 61 is inserted into the spherical concave cavity 71. The bottom of the first supporting member 5 is provided with a receiving cavity 52 for the second connecting ball head 7 to be accommodated.

A limiting structure is provided between the connecting member 6 and the accommodating cavity 53, and the limiting structure not only limits the moving range of the rotation axis X of the first supporting member 5 in the plane range, but also the bottom of the rotating axis X. Limit the amplitude of the fulcrum swing.

The limiting structure includes an annular limiting plate 62 disposed on the periphery of the connecting member 6. The first supporting member 5 has a receiving cavity 53 matched with the limiting plate 62. The swing of the first supporting member 5 can limit the position. The disk 62 and the inner top surface and the inner bottom surface of the accommodating cavity 53 are in contact with each other to form a limit, and the bottom surface of the second connecting ball head 7 and the top surface of the limiting plate 62 have a limiting distance D. The limiting plate 62 is provided with a plurality of circumferentially spaced receiving holes 621, the accommodating hole 621 is provided with a steel ball 63. In the yaw state of the first supporting member 5, the steel ball 63 is in contact with the inner top surface and the inner bottom surface of the accommodating cavity 53. The upper portion of the first support member 5 is provided with a drying basket 54, and the inner wall of the drying basket 54 is provided with a limiting groove 541 for restraining the flat mop head 3 inserted therein.

The mop bucket 1 is further provided with a washing zone Q2 independent of the kneading zone Q1, and the washing zone Q2 is provided with a washing device 8 for rotating the flat mop head 3 to its longitudinal direction L and the axial direction of the mop bar 2 during cleaning. In the same manner, the flat mop head 3 is inserted into the washing device 8 in the washing zone and moved up and down to cause the washing device 8 to clean the wipe 4. The cleaning device 8 can refer to a conventional technique.

The flat mop head 3 is provided with a locking structure for cooperating with the mop lever 2, and in a state where the plug 51 is inserted into the insertion hole 31, the latch 51 triggers the locking structure to lock the flat mop head 3 in the longitudinal direction L thereof and the mop lever 2 The positional state of the axis is the same. The locking structure may adopt the following structure: a lock frame 9 disposed in the flat mop head 3 and slidable along the length thereof, and a limiting structure between the lock frame 9 and the mop bar 2 or the joint 21, the lock frame 9 being spring The ten items are kept moving toward the lower side of the flat mop head 3, and the lock frame 9 is moved up. The limit structure limits the lock frame 9 to the mop lever 2 or the joint 21, and the lock frame 9 moves downward, and the limit is limited. The structure releases the limit between the lock frame 9 and the mop bar 2 or the joint 21, and the flat mop head 3 is rotated until the length direction of the flat mop head 3 is the same as the axial direction of the mop bar 2 and is inserted into the spin-drying zone Q1. The latch 51 is inserted into the jack 31 to trigger the lock frame 9 to move up.

As shown in FIG. 6 and FIG. 7 , the limit structure is a rib slot insertion structure disposed between the mop lever 2 and the lock frame 9 , and the lock frame 9 is moved upward, and the rib slot insertion structure is mutually inserted to form a limit. Position, the lock frame 9 moves the rib groove insertion structure to disengage from each other to release the limit. The limiting slots 22 in the rib slotting structure are disposed on both sides of the mop bar 2, the locking frame 9 is substantially U-shaped, and the ribs 91 in the rib slotting structure are disposed on the two vertical arms of the locking frame 9. The middle portion of the horizontal arm of the lock frame 9 is provided with a downwardly extending connecting post 92. The connecting post 92 is always inserted into the insertion hole 31, and after the plug 51 is inserted into the insertion hole 31, the connecting post 92 is pushed, thereby pushing the lock frame 9 to move. The lock frame 9 is moved up, the rib 91 is inserted into the limit groove 22, and the lock frame 9 moves the rib 91 off the limit groove 22.

The cleaning and drying process of this embodiment is as follows: Cleaning process: The flat mop head 3 is rotated until its longitudinal direction L is the same as the axial direction of the mop rod 2, and the flat mop head 3 is moved up and down through the cleaning device 8.

Drying process: As shown in Fig. 10, the flat mop head 3 is rotated to the length direction L thereof and the same as the axial direction of the mop rod 2, so that the flat mop head 3 enters the drying basket 54, and both sides of the flat mop head 3 The slot 541 is inserted into the inner peripheral wall of the drying basket 54. At the same time, the latch 51 passes through the jack 31 and then pushes the lock frame 9 upward. The rib 91 on the lock frame 9 is inserted into the limiting slot 22 on the mop lever 2 to complete. The flat mop head 3 is locked relative to the mop stick 2. The upper rod of the mop rod 2 is pressed down, and the lower rod of the mop rod 2 and the flat mop head 3 and the dry basket 8 are quickly rotated together to dry the wipe. Since the first supporting member 5 is connected to the connecting member 6 extending into the accommodating cavity 53 by the ball joint structure, the connecting member 6 is fixed at the bottom of the sill region Q1, so that the rotation axis X of the first supporting member 5 Not only can it move in the plane, but also the rotation axis X can be swung with its bottom as a fulcrum. Therefore, the whole of the flat mop head 3, the mop rod 2, and the first supporting member 5 provided with the wipe can automatically find the rotation axis X during the rotation process, and ensure that the center of gravity thereof is on the rotation axis X, in the dry operation. In the process, even if the mop rod 2 is slightly inclined, the rotation center can be automatically found, which can obviously improve the shaking condition of the flat mop during the drying process, effectively improve the drying effect of the wiper and reduce the noise, and the working principle is similar to that of the gyroscopic rotation. . The operator can adjust the mop lever 2 to a comfortable angle at will, and even if the flat mop head is in a vertical state when the angle is not available, the drying can be effectively performed, and the operation is more convenient and user-friendly.

After the drying is completed, as shown in FIG. 9, after the flat mop head 3 is moved upwardly out of the drying basket 54, the bolt 51 is disengaged from the pushing of the locking frame 9, and the locking frame 9 can be automatically moved down and reset by the action of the spring 10. The rib 91 on the lock frame 9 is disengaged from the limit groove 22 on the mop bar 2 to complete the unlocking of the flat mop head 3, so that the flat mop head 3 can be freely flipped to the mopping state relative to the mop bar 2.

As shown in Figures 8 through 11, this is the second embodiment of the creation.

A flat mop cleaning tool for facilitating dry operation, comprising a mop bucket 1 and a flat mop head 3 rotatably connected to a lower end of the hand-rotating mop lever 2, the flat mop head 3 is provided with a wipe 4; the mop bucket 1 has therein For the specific area Q1, refer to the first embodiment.

A groove 12 for supporting the flat mop head 3 is provided in the Q1 area, and the groove 12 is a part of the inner bottom of the drying zone Q1. The mop head 3 is provided and can be rotated together with the flat mop head 3. The second supporting member 11 is driven by the driving structure to be able to slide down along the longitudinal direction of the flat mop head 3. The second supporting member 11 is moved down and extends out of the bottom of the flat mop head 3 and the recess 12 Forming the support, the rotation axis X of the second support member 11 can not only move in the plane in which the bottom surface of the groove 12 is located, but also the rotation axis X can be oscillated with the bottom of the second support member 11 as a fulcrum. The mop head 3 is rotated until its longitudinal direction L is the same as the axial direction of the mop rod 2, and in the dry state, the flat mop head 3 is inserted in the spin-drying zone Q1 and the second support member 11 is supported on the groove by the mop lever The depression of 2 drives the flat mop head 3 to rotate rapidly about the rotation axis X in the drying zone Q1 to dry the wipe 4.

The second support member 11 has a U shape, and the middle portion of the horizontal arm of the second support member 11 is provided with a downwardly extending support shaft 111. The drive structure acts on the two vertical arms of the second support member 11, and the vertical arm is exposed. The opposite side of the flat mop head 3 should support the shaft 111 for contacting the bottom surface of the recess 12.

The driving structure includes a driving rod 13 and a return spring 14, and the driving rod 13 is sleeved on the mop rod 2 and driven by the wrench mechanism 15 to be vertically slidable, and the lower end of the driving rod 13 and the two vertical portions of the second supporting member 11 In the arm engagement, the return spring 14 is sleeved on the support shaft 111 and acts on the horizontal arm of the second support member 11 to maintain the second support member 11 in a translational tendency.

Since the second support member 11 is moved down and protrudes from the bottom of the flat mop head 3 and forms a support with the recess 12, the rotation axis X of the second support member 11 can be arbitrarily moved not only in the plane in which the bottom surface of the recess 12 is located, but also The rotation axis X is swung with the bottom of the second support member 11 as a fulcrum, so that the whole of the flat mop head 3, the mop rod 2, and the second support member 11 provided with the wipe 4 can be automatically found during the rotation process. Rotating the axis X and ensuring that its center of gravity is on the axis of rotation X during the spin-drying operation, ie The tilting of the mop lever can automatically find the center of rotation, which can significantly improve the shaking of the flat mop during the drying process, effectively improve the drying effect of the wiper 4, and reduce the noise. The working principle is similar to that of the spinning. Moreover, the groove 12 can restrain the movement limit of the second support member 11 to prevent the flat mop 3 from interfering with the mop bucket 1. When the floor is mopped, the driving structure drives the second supporting portion 11 to move up and is hidden in the flat mop head 3 without affecting the mopping.

Although the preferred embodiment of the present invention has been described in detail above, it should be clearly understood that various modifications and changes can be made in the present invention. Any modification, equivalent replacement, improvement, etc. made within the spirit and principles of this creation shall be included in the scope of protection of this creation.

Claims (13)

A flat mop cleaning tool for facilitating a dry operation, comprising a mop bucket (1) and a flat mop head (3) pivotally connected to a lower end of a mop lever (2) of the hand pressing, the flat mop head (3) There is a wipe (4); the mop bucket (1) has a dry area (Q1), and the dry area (Q1) is provided with a support for the flat mop head (3) and can be rotated a first supporting member (5); wherein: the first supporting member (5) is mounted at a bottom of the drying region (Q1) by a connecting structure, the connecting structure enabling the first supporting member (5) An axis of rotation (X) can not only move in a plane, but also oscillate the axis of rotation (X) with its bottom as a fulcrum, and rotate the flat mop head (3) to a length direction (L) when dry In the same direction as the axial direction of the mop rod (2), the flat mop head (3) is inserted into and supported by the first support member (5) in the drying region (Q1) by the mop rod The pressing of (2) drives the flat mop head (3) to rotate rapidly around the rotation axis (X) in the drying zone (Q1) to dry the wipe (4). The flat mop cleaning tool for facilitating the drying operation according to the first aspect of the patent application, wherein the first supporting member (5) is provided with a latch (51) extending upwardly, the flat mop head (3) a lower end side is provided with a socket (31) for inserting the plug (51), and the plug (51) is inserted in a state where the flat mop head (3) is supported on the first support member (5) Jack (31). The flat mop cleaning tool for facilitating the drying operation according to the first aspect of the patent application, wherein the flat mop head (3) has a U-shaped open groove (32), and the open groove (32) runs through An upper side of the flat mop head (3), a joint (21) is hinged at a bottom of the open groove (32), and a lower end of the mop rod (2) is connected to the joint (21), the flat mop head (3) The wipe (4) is provided on both the front and back sides. A flat mop cleaning tool which facilitates the drying operation as described in claim 1, wherein the connecting structure comprises a connecting member (6) fixed to a bottom portion of the drying area (Q1), the first support The component (5) has a receiving cavity (53) with an opening facing downward, the connecting component (6) extending into the receiving cavity (53) and being coupled to the first supporting component (5) by a ball joint structure The connection member (6) is spaced from the opening of the accommodating cavity (53) such that the first support member (5) can move in a plane relative to the connecting member (6). A flat mop cleaning tool for facilitating dry operation as described in claim 4, wherein the ball joint structure comprises a first connecting ball head (61) and a second connecting ball head (7), the first A connecting ball head (61) is disposed at a head of the connecting member (6), and a bottom of the second connecting ball head (7) is provided with a spherical cavity (71) that cooperates with the first connecting ball head (61). The first connecting ball head (61) is inserted into the spherical cavity (71), and the bottom of the first supporting member (5) is provided with a second receiving ball (7) The cavity (52) is accommodated. The flat mop cleaning tool for facilitating the drying operation as described in claim 5, wherein: the limiting member (6) and the receiving cavity (53) are provided with a limiting structure, the limiting structure is not only The rotation axis (X) of the first support member (5) is limited in the range of movement in the plane range, and the amplitude of the rotation axis (X) is swung with its bottom as a fulcrum. The flat mop cleaning tool for facilitating the drying operation according to claim 6, wherein the limiting structure comprises a ring-shaped limiting plate (62) disposed at a periphery of the connecting member (6), The first supporting member (5) has a receiving cavity (53) engaged with the limiting plate (62), and the swinging of the first supporting member (5) enables the limiting plate (62) to The inner top surface and the inner bottom surface of the accommodating cavity (53) are in contact with each other to form a limit, and a bottom distance between the bottom surface of the second connecting ball head (7) and the top surface of the limiting plate (62) (D) ). The flat mop cleaning tool for facilitating the drying operation as described in claim 7, wherein the limiting plate (62) is provided with a plurality of accommodating holes (621) circumferentially spaced apart, the plurality of accommodating holes The hole (621) is provided with a steel ball (63). In the yaw state of the first support member (5), the steel ball (63) and the inner top surface and the inner bottom surface of the accommodating cavity (53) Touch. The flat mop cleaning tool for facilitating the drying operation as described in claim 1, wherein: the upper portion of the first supporting member (5) is provided with a dry basket (54), and the inside of the drying basket (54) The wall is provided with a limiting groove (541) for restraining the flat mop head (3) inserted therein. The flat mop cleaning tool for facilitating the drying operation as described in claim 1, wherein: the mop bucket (1) is further provided with a washing zone (Q2) independent of the drying zone (Q1), a cleaning device (8) is arranged in the cleaning area (Q2), and the flat mop head (3) is rotated to a length direction (L) of the same direction as an axis of the mop rod (2) during cleaning, and the flat mop is The head (3) is inserted into the cleaning device (8) in the cleaning zone and moved up and down to cause the cleaning device (8) to clean the wipe (4). A flat mop cleaning tool for facilitating a drying operation, comprising a mop bucket (1) and a flat mop head (3) rotatably coupled to a lower end of a mop lever (2) of the hand pressing, the flat mop head (3) There is a wipe (4); the mop bucket (1) has a dry area (Q1), wherein: the dry area (Q1) is provided with a support for forming the flat mop head (3) a recess (12), a second support member (11) disposed in the flat mop head (3) and rotatable with the flat mop head (3), the second support member (11) being driven by a drive The structure is driven to be along the length of the flat mop head (3) Moving downward, the second supporting member (11) is moved down and protrudes from the bottom of the flat mop head (3) and forms a support with the groove (12), and an axis of rotation of the second supporting member (11) ( X) can not only move in the plane of the bottom surface of the groove (12), but also oscillate the rotation axis (X) with the bottom of the second support member (11) as a fulcrum, and the flat mop when dry The head (3) is rotated to a length direction (L) which is the same as the axial direction of the mop rod (2), and in the dry state, the flat mop head (3) is inserted in the drying area (Q1) and the second Supporting member (11) is supported on the groove, and the lowering pressure of the mop rod (2) drives the flat mop head (3) to rotate rapidly around the rotation axis (X) in the drying region (Q1) The wipe (4) was dried. The flat mop cleaning tool for facilitating the drying operation according to claim 11, wherein the bottom of the second supporting member (11) has a support shaft (111) extending downward, the support shaft (111) It is used to contact the bottom surface of the groove (12). The flat mop cleaning tool for facilitating the drying operation according to claim 11, wherein the driving structure comprises a driving rod (13) and a return spring (14), and the driving rod (13) is sleeved on the The mop bar (2) is driven by a wrench mechanism (15) to be vertically slidable, and the lower end of the driving rod (13) is engaged with two vertical arms of the second supporting member (11), the return spring ( 14) A horizontal arm sleeved on the support shaft (111) and acting on the second support member (11) maintains the second support member (11) in an upward trend.