The present invention relates to a mop, and particularly to a mop that performs dripping in response to a trigger.
Mops are common cleaning tools in the daily lives. However, during the process of using a mop, a wetted cleaning cloth on the mop may be caused to gradually dry out by the moisture generated during the cleaning process, and needs to be wetted again for further use. Such repeated steps may result in application inconveniences of cleaning staff. Further, after the mop is repeated wetted, the cleaning cloth on the mop may fail to retain water and starts to drip, such that an originally cleaned area may become stained due to the dripping.
A dripping mop is later disclosed by an industrialist. For example, the China Patent No. CN2790397Y discloses a water spraying mop. The water spraying mop is primarily provided with a rotating arm mechanism in a connecting tube, and an inverted bottle at the connecting pipe at an appropriate height from the ground. Through a guiding effect of the tube body, a cleaning liquid stored in the bottle is transported to a spraying head at the front edge of a mop seat, and the flowing of the cleaning liquid out of the bottle is controlled by the rotating arm mechanism.
Further, the China Patent Publication No. 104644081A discloses a mop. The mop of this disclosure includes a mop handle and a mop head. The mop handle includes a water tank at an upper portion and a switch at a middle portion. To apply the mop, the switch at the middle portion is turned on to allow the water in the water tank to flow to the mop head.
Further, the China Patent No. CN2587335Y discloses a mop with a liquid container. In this disclosure, a through hole is axially provided on a connecting rod between a mop pole and a mop head, and one end of a soft tube is penetrated through the through hole to become connected to a water inlet on the mop head. The water inlet is in communication with a water injecting opening. At a position in the connecting rod and corresponding to the through hole, a control switch that turns on and off the water flow in the soft tube in response to a pressing operation on a pressing cover at an upper end of the mop pole is provided.
However, in the above disclosures, a connecting mechanism or a guiding tube mechanism is provided in a mop pole. As such, after the mop pole is assembled, it cannot be readily disassembled. During a transportation process, the mop pole may require special protection to prevent damages, hence disfavoring the transportation process. In addition, in the structures of the above disclosures, maintenance complications may be caused by the connecting structure or guiding tube structure in the mop pole.
The primary object of the present invention is to solve issues of maintenance and transportation complications of conventional structures.
To achieve the above object, the present invention provides a dripping mop. The dripping mop includes a mop head and a mop pole. The mop pole includes a holding rod, a connecting rod assembled with the mop head, a dripping control assembly connected between the holding rod and the connecting rod, and a water tank connected to the dripping control assembly and storing a cleaning liquid. The holding rod includes a recess at a surface thereof. The dripping control assembly includes an inlet conduit connected to the water tank, an outlet valve connected to the inlet conduit, an outlet conduit connected to the outlet valve, a dripping con/off switch assembled with the holding rod and corresponding to the outlet valve, and a dripping limiting switch corresponding to the holding rod. The dripping on/off switch has an on state and an off state. In the on state, the holding rod receives a force and displaces towards the connecting rod to trigger the outlet valve, such that the cleaning liquid is constantly provided for dripping through the outlet conduit. In the off state, the holding rod in the on state again receives a force and displaces towards the connecting rod to close the outlet valve, such that the dripping is suspended. The dripping limiting switch is rotatable relative to the holding rod, and includes a protrusion corresponding to the recess. When the protrusion is falls in the recess, the holding rod is restrained from displacing towards the connecting rod.
In one embodiment, the dripping on/off switch includes an upper tooth column, a low tooth column corresponding to the upper tooth column, a connecting sleeve accommodating the upper tooth column and the lower tooth column, a restoration spring in the connecting sleeve and accommodating the upper tooth column to drive the upper tooth column to move, and a trigger rod corresponding to the lower tooth column and driven by the lower tooth column to trigger the outlet valve. Each of the upper tooth column and the lower tooth column includes a plurality of channels spaced from one another. The connecting sleeve is provided with at least one guiding rib at the inner edge thereof. During the process of the upper tooth column driving the lower tooth column, the guiding rib rotates the lower tooth column to fall into one of the channels or abuts against the lower tooth column, so as to cause the dripping on/off switch to enter the on state or the off state.
In one embodiment, the dripping on/off switch includes an installation seat connected to the holding rod. The installation seat includes a recessed region at one side facing the upper tooth column. The recessed region is for disposing the upper tooth column therein.
In one embodiment, the dripping mop further includes an outer housing on the mop pole and at least enclosing the dripping on/off switch. Further, the dripping on/off switch includes an installation sleeve corresponding to the trigger rod. The installation sleeve includes a limiting groove at each of two opposite sides thereof. An extension direction of the limiting grooves is orthogonal to an axial direction of the mop pole. The outer housing includes two limiting ribs respectively corresponding to the limiting grooves to restrain the mobility of the outer housing.
In one embodiment, the outer housing includes a first half housing, a second half housing and a lower sealing half housing assembled with one another. The two limiting ribs are disposed in one of the first and second half housings, and extend towards the other. The lower sealing half housing includes a through hole for disposing the outlet conduit therein.
In one embodiment, the dripping on/off switch includes a bridge ring bridged between the connecting sleeve and the installation sleeve.
In one embodiment, the dripping control assembly includes an adaptor bridged between the connecting rod and the outlet valve. The adaptor includes a guiding channel deviating from the axial direction of the mop pole, extending towards the mop head and allowing the outlet conduit to be disposed therein.
In one embodiment, the outer housing includes a tank seat assembled with the two limiting ribs and assembled with one end of the inlet conduit. Further, the outer housing includes a supply valve on the tank seat.
In one embodiment, the mop pole includes a pivoting sleeve accommodating the holding rod and corresponding to the recess. The dripping limiting switch is pivotally disposed on the pivoting sleeve by a pivot axis, and includes a lever member and a pivot member. The pivot member is connected to the lever member, forms a pivotal connection with the pivoting sleeve, and includes the protrusion.
In one embodiment, the recess is a trench surrounding the surface of the holding rod, and the protrusion is a protruding point adapted to fall in the surrounding trench.
Through the above technical solution, the present invention provides following features compared to known technologies. In the present invention, the dripping control assembly is implemented by an alternating switching structure to solve issues of maintenance and transportation complications caused by a connecting mechanism or a guiding tube mechanism in a mop pole of a conventional structure. In addition, with the implementation of the alternating switching structure, continuous dripping can be achieved without having a user pressing a switch for an extended period of time during a cleaning process. After the cleaning process is complete, the dripping can be suspended by having the dripping control assembly enter the off state. Thus, the present invention provides simpler operations and experiences compared to known technologies.
Details and technical contents of the present invention are given with the accompanying drawings below.
Referring to
The holding rod 3, the dripping control assembly 5 and the connecting rod 4 of the present invention are sequentially assembled along an axial direction. The holding rod 3 includes a recess 31 at a surface thereof. The recess 31 is provided at a partial area of the holding rod 3, and may be a trench surrounding the surface of the holding rod 3, for example, as shown 1. The dripping control assembly 5 of the present invention includes an inlet conduit 51 connected to the water tank 6, an outlet valve 52 connected to the inlet conduit 51, an outlet conduit 53 connected to the outlet valve 52, a dripping on/off switch 54 assembled with the holding rod 3 and corresponding to the outlet valve 52, and a dripping limiting switch 56 corresponding to the holding rod 3.
Further referring to
Referring to
Again referring to
The outer housing 7 of the present invention may further include a first half housing 72, a second half housing 73 and a lower sealing half housing 74 assembled with one another. The two limiting ribs 71 are disposed in one of the first half housing 72 and the second half housing 73, and extend towards the other of the first half housing 72 and the second half housing 73. For example, when the two limiting ribs 71 are disposed in the first half housing 72, the two limiting ribs 71 extend from the first half housing 72 towards the second half housing 73. It should be noted that, the two limiting ribs 71 do not simultaneously in come into contact with the first half housing 72 and the second half housing 73 after they are formed. In other words, the two limiting ribs 71 only extend from the first half housing 72 towards the second half housing 73 without coining into contact with the second half housing 73. Further, the lower sealing half housing 74 is assembled with both of the first half housing 72 and the second half housing 73, and is located at a relatively lower end of the first half housing 72 and the second half housing 73, as shown in
Referring to
In one embodiment, the dripping control assembly 5 further includes an adaptor 57 bridged between the connecting rod 4 and the outlet valve 52. The adaptor 57 includes a guiding channel 571 deviating from the axial direction of the mop pole 2, extending towards the mop head 1 and allowing the outlet conduit 53 to be disposed therein. An inclined level of the guiding channel 571 may be designed according to actual application requirements.
Referring to
In an initial stage of applying the dripping mop of the present invention, the displacement restraint that the dripping limiting switch 56 applies on the holding rod 3 is released, and a force is then applied to the holding rod 3 to cause the dripping on/off switch 54 to enter the on state to allow the dripping mop to perform dripping. After cleaning, a force is again applied to the holding rod 3 to cause the dripping on/off switch 54 to change from the on state to the off state to stop dripping.
Number | Name | Date | Kind |
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6572711 | Sclafani | Jun 2003 | B2 |
6692172 | Hsu | Feb 2004 | B1 |
9687133 | Zhu | Jun 2017 | B2 |
Number | Date | Country |
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2587335 | Nov 2003 | CN |
2790397 | Jun 2006 | CN |
104644081 | May 2015 | CN |