CN215457713U - Anti-overflow system of base station and base station - Google Patents

Anti-overflow system of base station and base station Download PDF

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Publication number
CN215457713U
CN215457713U CN202120590033.1U CN202120590033U CN215457713U CN 215457713 U CN215457713 U CN 215457713U CN 202120590033 U CN202120590033 U CN 202120590033U CN 215457713 U CN215457713 U CN 215457713U
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liquid
overflow
sensing
piece
base station
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郑连荣
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Shenzhen Silver Star Intelligent Group Co Ltd
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Shenzhen Silver Star Intelligent Technology Co Ltd
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Abstract

The utility model relates to the field of cleaning equipment, in particular to an anti-overflow system of a base station, the base station is provided with a reaction piece which can make at least two reactions along with the difference of the liquid level of a liquid storage tank and an anti-overflow mechanism which is at least used for preventing the liquid of the liquid storage tank from overflowing, when the reaction piece is in a first state that the liquid level is at a first height, the reaction piece triggers one anti-overflow mechanism to work so as to realize first-stage anti-overflow, when the reaction piece is in a second state that the liquid level is at a second height, the reaction piece triggers the other anti-overflow mechanism to work so as to realize the joint work of second-stage anti-overflow and first-overflow, the two anti-overflow mechanisms are respectively triggered at different liquid level heights, the two anti-overflow mechanisms can perform anti-overflow in a layered mode, double anti-overflow is realized, the anti-overflow effect is better, and the liquid of the liquid storage tank can be treated, solves the problem of anti-overflow and can also carry out double anti-overflow.

Description

Anti-overflow system of base station and base station
Technical Field
The utility model relates to the field of cleaning equipment, in particular to an anti-overflow system of a base station and the base station.
Background
Present basic station for washing mop, at the in-process of washing the mop, need last add clean cell body with the clear water in to with the mop sanitization, however current single with the mode of electrode piece group response liquid level height be difficult to satisfy clean demand, current basic station sets up positive and negative electrode piece on the sewage tank take the altitude usually, when the liquid level rises to the position of electrode piece group, the electrode piece group gives the turn-on signal, transmits for the control panel, connect bee calling organ suggestion water fullness through the control panel.
The full water detection mechanism of this kind of structure does not handle sewage when suggestion water is full, the problem that overflows appears easily, does not possess the anti-overflow effect.
SUMMERY OF THE UTILITY MODEL
Based on this, the utility model aims to provide an anti-overflow system of a base station with double anti-overflow characteristics.
An anti-overflow system of a base station is applied to a liquid storage tank and comprises:
at least two anti-overflow mechanisms;
the reaction part can make at least two reactions along with the difference of the liquid level of the liquid storage tank, and when the reaction part is in a first state that the liquid level is at a first height, the reaction part triggers one of the anti-overflow mechanisms to work; when the reaction member is in a second state that the liquid level is at a second height, the reaction member triggers another overflow prevention mechanism to work.
Can follow through the setting the difference of the liquid level of liquid reserve tank makes the reaction piece of two at least reactions to and at least dual-purpose in preventing the anti-overflow mechanism that the liquid of liquid reserve tank spills over the reaction piece is in when the liquid level is located the first state of first height, the reaction piece triggers one of them anti-overflow mechanism work realizes the first order anti-overflow, works as the reaction piece is in when the liquid level is located the second state of second height, the reaction piece triggers another anti-overflow mechanism work realizes second level anti-overflow and first order anti-overflow joint work, triggers two anti-overflow mechanisms respectively on different liquid level heights, and two anti-overflow mechanisms can have the layering to carry out the anti-overflow, dual anti-overflow, and the anti-overflow effect is better, not only can handle the liquid of liquid reserve tank, has solved the problem of anti-overflow, can also carry out dual anti-overflow.
Further preferably, at least one of the spill prevention mechanisms is adapted to drain the liquid from the liquid storage tank or to stop the liquid from being introduced into the liquid storage tank.
The overflow preventing mechanisms can be used for discharging liquid and stopping liquid from entering, the overflow preventing actions of the two overflow preventing mechanisms can be the same, the overflow preventing actions can be more selective, and when the two overflow preventing mechanisms are both used for discharging liquid or both used for stopping liquid from entering, the liquid discharging mode or the liquid stopping mode can be the same or different.
Further preferably, one of the overflow preventing mechanisms is used for discharging the liquid in the liquid storage tank, and the other overflow preventing mechanism is used for stopping the liquid from being input into the liquid storage tank. The spill-proof actions of the two spill-proof mechanisms may be different.
Further preferably, the overflow prevention mechanism triggered by the reaction member in the first state is used for discharging the liquid in the liquid storage tank, the overflow prevention mechanism triggered by the reaction member in the second state is used for stopping the liquid from being input into the liquid storage tank, and the first height is lower than the second height. Along with the rising of liquid level height, can carry out discharge liquid earlier, stop the input liquid again, at this moment, the liquid of liquid reserve tank reduces earlier, and when the speed that reduces was less than the speed of input, the liquid level risees, is in the action of another anti-overflow mechanism, stops the input liquid to guarantee that liquid can not spill over, this kind of mode can guarantee when one of them anti-overflow mechanism discharge liquid, and the liquid reserve tank can also carry out the feed liquor, guarantees that the feed liquor work of liquid reserve tank can also normally go on when discharging. Of course, the liquid may be discharged after the liquid supply is stopped.
Further preferably, the reaction member includes:
the anti-overflow device comprises a floating piece, wherein when the floating piece is suspended to a first height, one of the anti-overflow mechanisms is triggered to work, and when the floating piece is suspended to a second height, the other anti-overflow mechanism is triggered to work.
The floating member can rise to different heights along with different liquid levels of the liquid storage tank by utilizing buoyancy, namely, at least two reactions are made along with the different liquid levels of the liquid storage tank.
Further preferably, the overflow preventing mechanism for discharging the liquid of the liquid storage tank includes:
the baffle plate is connected with a liquid outlet of the liquid storage tank, and the floating piece is connected with the baffle plate so as to open the liquid outlet to different degrees when the height of the floating piece is changed.
By connecting the float member to the flap, the float member can open the flap when the liquid level rises, utilizing buoyancy.
Further preferably, the baffle is rotatably connected to the liquid discharge port, and the liquid discharge port can be opened to different degrees when the baffle rotates; the floating piece is arranged at the free end of the baffle and is positioned at one side of the baffle, which faces the liquid storage tank. Through rotating the baffle and connecting on the leakage fluid dram, can rise to when floating the piece height above at the liquid level, drive through the liquid level and float the piece in order to with the opening grow between baffle and the leakage fluid dram, when the liquid level rose, the degree of flowing back was also big more, and the anti-overflow is effectual.
Further preferably, the spill prevention mechanism for stopping the liquid from being supplied to the liquid storage tank includes:
the sensing range of the first sensing piece covers the partial range of the length, the width or the height in the liquid storage tank;
the sensed piece can be sensed by the first sensing piece, and the sensed piece is arranged on the reaction piece.
The electromagnetic valve is connected with a liquid inlet channel connected with the liquid storage tank and used for controlling the on-off of the liquid inlet channel;
the first control part is respectively electrically connected with the first sensing part and the electromagnetic valve and is used for receiving a first signal sent by the first sensing part and outputting a first control signal according to the first signal so as to control the on-off of the electromagnetic valve.
Through setting up first control part and the first response piece of being connected with first control part electricity, first response piece can respond to length, width or the partial range of height in the liquid storage tank to when the response piece gets into this response scope, send first signal to first control part, first control part is according to the first control signal of this first signal output to the break-make of control solenoid valve control inlet channel prevents liquid entering liquid storage tank, thoroughly solves the problem that the liquid level rose and spills over.
Further preferably, the overflow preventing mechanism for stopping liquid from entering the liquid storage tank further comprises:
the second sensing piece is electrically connected with the first control part, and the first control part can receive a second signal sent by the second sensing piece and output a second control signal according to the second signal so as to control the on-off of the electromagnetic valve;
the sensing range of the second sensing piece covers the partial range of the length, the width or the height in the liquid storage tank, and the sensing range of the second sensing piece and the sensing range of the first sensing piece form different sensing areas in the length direction, the width direction or the height direction.
Through setting up the second response piece, the second response piece is connected with first control part, and the second response piece is in length, width or height in the liquid storage tank with first response piece forms different induction area to block the feed liquor twice. At this time, the liquid inlet channels for blocking the liquid inlet twice can be the same or different.
Further preferably, the anti-overflow system of the base station further includes:
a second control unit;
the reaction piece comprises at least two groups of electrode plates, the electrode plates are electrically connected to the second control part respectively, the electrode plates are located at different heights in the vertical direction of the liquid storage tank, the second control part can receive conduction signals sent by the electrode plates of different groups, and different control signals are output according to different conduction signals to control one of the anti-overflow mechanisms to work.
The two anti-overflow mechanisms can be overlapped to control the anti-overflow by arranging two groups of electrode plates with different heights.
Compared with the prior art, the anti-overflow system of the base station has the advantages that the reaction piece capable of making at least two reactions along with the difference of the liquid level of the liquid storage tank and the anti-overflow mechanism at least used for preventing the liquid of the liquid storage tank from overflowing are arranged, when the reaction piece is in the first state that the liquid level is at the first height, the reaction piece triggers one anti-overflow mechanism to work, so that the first-stage anti-overflow is realized, when the reaction piece is in the second state that the liquid level is at the second height, the reaction piece triggers the other anti-overflow mechanism to work, so that the second-stage anti-overflow and the first-stage anti-overflow work are realized, the two anti-overflow mechanisms are respectively triggered at different liquid level heights, the two anti-overflow mechanisms can perform anti-overflow in a layered mode, the double anti-overflow effect is better, the liquid in the liquid storage tank can be treated, and the anti-overflow problem is solved, can also be used for double anti-overflow. The anti-overflow system of the base station has the characteristic of double anti-overflow.
The utility model further provides a base station for cleaning the mopping piece of the cleaning robot, which comprises the anti-overflow system of the base station, wherein the liquid storage tank is a sewage collection tank.
Through the anti-overflow system who uses this basic station on the basic station, the sewage that cleaning robot's the clean process of dragging the piece produced can be stored in the sewage collection box, and cleaning robot's cleanness is safer, has solved the liquid level and has risen and soak cleaning robot and the excessive problem of sewage.
Compared with the prior art, the base station disclosed by the utility model has the advantages that by applying the anti-overflow system of the base station on the base station, sewage generated in the cleaning process of the mopping piece of the cleaning robot can be stored in the sewage collecting box, the cleaning of the cleaning robot is safer, and the problems that the cleaning robot is soaked and sewage overflows due to the rise of the liquid level are solved. The base station has the characteristic of preventing sewage from overflowing.
For a better understanding and practice, the utility model is described in detail below with reference to the accompanying drawings.
Drawings
FIG. 1 is a side view of an overfill prevention system for a base station of the present invention;
FIG. 2 is a schematic view of the reaction member in a first state;
FIG. 3 is a schematic view of the reaction member in a transition state between a first state and a second state;
FIG. 4 is a schematic view of the reaction member in a second state;
FIG. 5 is a schematic view of the first sensing element and the second sensing element forming different sensing regions in the length direction;
FIG. 6 is a schematic view of the first sensing member and the second sensing member forming different sensing regions in a width direction;
FIG. 7 is a schematic view of a reaction member of a modification in a second state;
FIG. 8 is a schematic view showing the connection between the shutter and the drain port according to another embodiment;
FIG. 9 is a schematic view of a reaction member of another embodiment in a first state;
FIG. 10 is a schematic view of a reaction member of another embodiment in a second state;
FIG. 11 is a schematic structural view of a combination of two spill prevention mechanisms according to another modification;
fig. 12 is a schematic structural diagram of a base station of the present invention.
Detailed Description
The terms of orientation of up, down, left, right, front, back, top, bottom, and the like, referred to or may be referred to in this specification, are defined relative to their configuration, and are relative concepts. Therefore, it may be changed according to different positions and different use states. Therefore, these and other directional terms should not be construed as limiting terms.
The implementations described in the exemplary embodiments below are not intended to represent all implementations consistent with the present disclosure. Rather, they are merely examples of methods consistent with certain aspects of the present disclosure, as detailed in the appended claims.
The terminology used in the present disclosure is for the purpose of describing particular embodiments only and is not intended to be limiting of the disclosure. As used in this disclosure and the appended claims, the singular forms "a," "an," and "the" are intended to include the plural forms as well, unless the context clearly indicates otherwise. It should also be understood that the term "and/or" as used herein refers to and encompasses any and all possible combinations of one or more of the associated listed items.
Example one
As shown in fig. 1 and 2, fig. 1 is a side view of an anti-overflow system of a base station of the present invention, and fig. 2 is a schematic view of a reaction member in a first state.
The overflow prevention system of the base station of the present invention can be applied to the liquid storage tank 1, wherein:
the base station may be suitable for the cleaning robot 4, may be used for cleaning a mop of the cleaning robot 4, and may perform maintenance work such as charging or/and cleaning the mop for the cleaning robot 4.
The liquid storage tank 1 may be a tank for storing clean water, detergent, sewage generated after cleaning, or other liquids, and may be an open tank having an open top or other openings, or may be a closed tank. For example, the anti-overflow system of the base station can be used in the cleaning tank body of the mopping piece of the cleaning robot 4, after the cleaning robot 4 enters the cleaning tank body, sewage generated after cleaning can flow into the cleaning tank body, the anti-overflow system of the base station can be used in the cleaning tank body at the moment, or can be a sewage collecting box below or above the cleaning tank body, when the sewage collecting box is located below the cleaning tank body, the sewage can directly flow into the sewage collecting box, when the sewage collecting box is located above the cleaning tank body, the sewage can be extracted into the sewage collecting box through the booster pump, the anti-overflow system of the base station can also be used in other liquid storage boxes 1, especially, the anti-overflow system of the base station can be applied to the base station of the mopping piece of the cleaning robot 4, the anti-overflow system of the base station can have a water inlet channel and a water outlet channel, and the combination of the anti-overflow system of the base station can be more diversified.
The anti-overflow system of this basic station includes:
the anti-overflow mechanism 2 comprises at least two anti-overflow mechanisms 2, wherein all the anti-overflow mechanisms 2 are used for preventing liquid in the liquid storage tank 1 from overflowing, the anti-overflow mechanisms 2 can be mechanical anti-overflow mechanisms 2, the mechanical anti-overflow mechanisms 2 such as a baffle plate 21 open a liquid outlet 11, or electrical contact type anti-overflow mechanisms 2, and the electrical contact type anti-overflow mechanisms 2 such as a first sensing piece 22 are arranged for sensing the liquid level;
the reaction part 3 can perform at least two reactions along with the difference of the liquid level of the liquid storage tank 1, and when the reaction part 3 is in a first state that the liquid level is at a first height d1, the reaction part 3 triggers one of the spill-proof mechanisms 2 to work; when the reaction member 3 is in the second state that the liquid level is at the second height d2, the reaction member 3 triggers another spill prevention mechanism 2 to work, and the second height d2 can be seen in fig. 4. Specifically, in this embodiment, the reaction member 3 includes a floating member, and when the floating member floats to a first height d1, one of the spill-proof mechanisms 2 is triggered to operate, and when the floating member floats to a second height d2, the other spill-proof mechanism 2 is triggered to operate. The floating piece utilizes buoyancy, can rise to different heights along with the difference of the liquid level of the liquid storage tank 1, namely makes at least two reactions along with the difference of the liquid level of the liquid storage tank 1, and the floating piece can be a hollow and sealed part in a spherical shape, a columnar shape or other shapes, can be a hollow floating ball, and can also be a part made of a material with density smaller than that of water, so long as the floating piece can finally float on the water surface, and different reactions can be realized according to different floating height correspondences. In other embodiments, at least two groups of electrode plates arranged along the vertical height can be used for replacing the floating part, a single group of electrode plates comprises a positive electrode piece and a negative electrode piece, the corresponding electrode plate group can be conducted after the liquid level rises, the electrode plate group is electrically connected with a control panel, the control panel is electrically connected with an electromagnetic valve for controlling the liquid discharge channel or/and the liquid inlet channel in the liquid storage tank 1 to be electrically connected, and the electrode plate groups at different positions can react.
The working principle is as follows: reaction piece 3 is in during the liquid level is located the first state of first height d1, reaction piece 3 triggers one of them anti-overflow mechanism 2 works, realizes the first order anti-overflow, works as reaction piece 3 is in during the liquid level is located the second state of second height d2, reaction piece 3 triggers another anti-overflow mechanism 2 works, realizes second level anti-overflow and first order anti-overflow combined work, triggers two anti-overflow mechanisms 2 respectively on different liquid level height, and two anti-overflow mechanisms 2 can have the one-tenth anti-overflow, dual anti-overflow, and the anti-overflow effect is better.
When two or more spill-proof mechanisms 2 are combined, the two or more spill-proof mechanisms 2 may be combined together, or two or more different spill-proof mechanisms 2 may be combined together, in addition to the two or more same spill-proof mechanisms 2 being stacked together. At least one overflow prevention mechanism 2 is used for discharging the liquid in the liquid storage tank 1 or stopping the liquid from being input into the liquid storage tank 1. For example, when two overflow preventing mechanisms 2 are used, two overflow preventing mechanisms 2 for discharging the liquid in the liquid storage tank 1 may be combined, or two overflow preventing mechanisms 2 for stopping the liquid input into the liquid storage tank 1 may be combined, at this time, the two overflow preventing mechanisms 2 for discharging the liquid in the liquid storage tank 1 may be the same or different, and the two overflow preventing mechanisms 2 for stopping the liquid input into the liquid storage tank 1 may be the same or different. The spill-proof mechanisms 2 can be used for discharging liquid and stopping liquid entering, the spill-proof actions of the two spill-proof mechanisms 2 can be the same, the spill-proof actions can be more selective, and when the two spill-proof mechanisms 2 are used for discharging liquid or stopping liquid entering, the liquid discharging mode or the liquid entering stopping mode can be the same or different.
In order to further improve the anti-overflow effect caused by the combination of the anti-overflow mechanism 2, it is preferable that the anti-overflow mechanism 2 is arranged on the liquid storage tank 1 having a liquid inlet channel and a liquid outlet channel, in this case, one of the anti-overflow mechanisms 2 is used for discharging the liquid in the liquid storage tank 1, and the other anti-overflow mechanism 2 is used for stopping the liquid from being input into the liquid storage tank 1. The spill-proof action of the two spill-proof mechanisms 2 may be different. Specifically, the anti-overflow mechanism 2 triggered by the reaction member 3 in the first state is used for discharging the liquid in the liquid storage tank 1, the anti-overflow mechanism 2 triggered by the reaction member 3 in the second state is used for stopping the liquid from being input into the liquid storage tank 1, and the first height d1 is lower than the second height d 2. Along with the rising of liquid level height, can carry out earlier discharge liquid, stop the input liquid again, at this moment, the liquid of liquid reserve tank 1 reduces earlier, when the speed that reduces is less than the speed of input, the liquid level uprises, is in the action of another anti-overflow mechanism 2, stops the input liquid to guarantee that liquid can not spill over, this kind of mode can guarantee when one of them anti-overflow mechanism 2 discharge liquid, liquid reserve tank 1 can also carry out the feed liquor, guarantees that the feed liquor work of liquid reserve tank 1 can also normally go on when discharging.
For example, when the overflow prevention system of the base station is applied to the base station for cleaning the wiping member of the cleaning robot 4, and the floating member floats to the first height d1, one of the overflow prevention mechanisms 2 acts to discharge liquid, and at this time, the work of cleaning the wiping member is not affected, and the cleaning work is continued, and the following two cases can be divided: in the first situation, the liquid feeding speed is higher than the liquid discharging speed, the liquid level height continues to rise, when the liquid level height rises to the second height d2, the other anti-overflow mechanism 2 is triggered to act, and the liquid input is stopped, at this time, when one anti-overflow mechanism 2 works, the cleaning work can still be carried out, and the cleaning work is stopped when the second height d2 is reached, the liquid discharging can not affect the cleaning work as much as possible, the cleaning efficiency is improved, in the falling process, if the reaction member 3 with the sensed member 24 continues to swing upwards from the sensing range and exceeds the sensing range, the first sensing member 22 can be triggered again when the liquid falling process is carried out, so that the liquid feeding starts, the liquid feeding speed is higher than the liquid discharging speed, the cleaning can be carried out repeatedly, the cleaning time can be utilized to the greatest extent, of course, the reaction member 3 with the sensed member 24 can also not trigger the first sensing member 22, that is, the reaction member 3 falls back after being in the sensing range, and at this time, another sensing member may be set to trigger the liquid inlet to start, for example, a sensing member capable of sending a signal to enable the first control portion to control the liquid inlet channel to be opened is additionally provided on the rotation path such as the rotation starting point, so that the process of falling back to the rotation starting point can trigger the liquid inlet to start, and certainly, the sensing member may not be set to enable the liquid inlet to start; in the second case, the speed of the liquid feeding is less than the speed of the liquid discharging, so the liquid level height is maintained below the second height d2, the cleaning mop can be operated all the time, the cleaning operation is not affected, and the cleaning efficiency can be greatly improved compared with the case that a single anti-overflow mechanism 2 blocks the liquid feeding channel.
Of course, in another embodiment, the liquid input may be stopped before the liquid is discharged.
The above-mentioned spill prevention mechanism 2 for discharging the liquid of the liquid storage tank 1 may also have various embodiments, for example, it may include:
the baffle 21, the baffle 21 is connected with the leakage fluid port 11 of the liquid storage tank 1, and the floating piece is connected with the baffle 21 so as to open the leakage fluid port 11 to different degrees when the height of the floating piece is changed. By connecting the float member to the flap 21, the float member can open the flap 21 when the liquid level rises, utilizing buoyancy.
In the embodiment, the baffle 21 is rotatably connected to the liquid discharge port 11, and the baffle 21 can open the liquid discharge port 11 to different degrees when rotating; the floating piece is arranged at the free end of the baffle plate 21 and is positioned at one side of the baffle plate 21 facing the liquid storage tank 1. Through rotating the baffle 21 and connecting on the leakage fluid dram 11, can rise to when floating the piece height above at the liquid level, drive floating the piece through the liquid level with baffle 21 and leakage fluid dram 11 between the opening grow, when the liquid level rose, the degree of flowing back was also big more, and the anti-overflow is effectual. Wherein, because the floating member is located the baffle 21 orientation one side in the liquid reserve tank 1, consequently, the position of floating member and pin joint is not on same vertical line, and liquid can be decomposed into partly promotion floating member pivoted effort to the ascending buoyancy that the floating member brought, and articulated position is located the top, and the position from the end is located the below, consequently, when the liquid level rose, liquid can drive floating member and baffle 21 and rotate, and when the liquid level declined, gravity can drive the downward rotation of floating member.
Of course, the baffle 21 may be disposed at the liquid discharge port 11 in other manners, for example, in another embodiment, the baffle 21 may be disposed at the liquid discharge port 11 in a sliding manner, as shown in fig. 8 to 10.
The above-mentioned spill-proof mechanism 2 for stopping the liquid from being supplied to the liquid storage tank 1 may have various embodiments, for example, in the present embodiment, it may include:
a first sensing member 22, wherein the sensing range of the first sensing member 22 covers a partial range of the length, the width or the height of the liquid storage tank 1;
a sensed member 24, wherein the sensed member 24 can be sensed by the first sensing member 22, and the sensed member 24 is disposed on the reaction member 3.
The electromagnetic valve is connected with a liquid inlet channel connected with the liquid storage tank 1 and used for controlling the on-off of the liquid inlet channel;
the first control part is respectively electrically connected with the first sensing part 22 and the electromagnetic valve, and is used for receiving a first signal sent by the first sensing part 22 and outputting a first control signal according to the first signal so as to control the on-off of the electromagnetic valve.
And in another embodiment, the anti-overflow mechanism 2 for stopping liquid from entering the liquid storage tank 1 may further include a second sensing member 23, so as to realize the combination of the anti-overflow mechanism 2 in a pure electric touch response, or a combination of a plurality of anti-overflow mechanisms 2, as shown in fig. 11 in particular.
In this embodiment, by induction member 24 can be the magnetic substance, for example can be the magnetic stripe, magnetic sheet or magnetic path etc. induction member can be hall sensor, can set up the magnetic substance on reaction piece 3, as floating member by induction member 24 rise to be in hall sensor's response within range, hall sensor sends signal to control unit, control unit control solenoid valve blocks inlet channel, it is concrete, can be that to paste the magnetic stripe on floating member, perhaps paste the surface of floating member with the magnetic sheet. In another embodiment, the sensed member 24 may also be a proximity switch, when the sensed member 24 as a floating member rises to be within the sensing range of the proximity switch, the proximity switch sends a signal to the control portion, the control portion controls the electromagnetic valve to block the liquid inlet channel, and when the sensed member 24 is the proximity switch, the sensed member 24 may be an extension structure on the reaction member 3 for being sensed, or may be the reaction member 3 itself. Of course, in other embodiments, the sensed object 24 and the sensing element can be other components for sensing that an object falls within the sensing range.
The working principle is as follows: through setting up first control part and the first response piece 22 of being connected with first control part electricity, first response piece 22 can respond to length, width or the partial range of height in the liquid reserve tank 1 to when reaction piece 3 gets into this response scope, send first signal to first control part, first control part is according to this first control signal of signal output, with the break-make of control solenoid valve control inlet channel, prevent that liquid from getting into liquid reserve tank 1, thoroughly solve the liquid level and rise the problem of spilling over. Specifically, the first sensing member 22 may sense a partial range of the height in the reservoir 1. While in other embodiments the first sensing member 22 may sense a partial range of the length, see fig. 5, in alternate embodiments the first sensing member 22 may also sense a partial range of the width, see fig. 6 and 7.
As shown in fig. 2 to 4, fig. 2 is a schematic view of the reaction member in a first state, fig. 3 is a schematic view of the reaction member in a transition state between the first state and a second state, and fig. 4 is a schematic view of the reaction member in the second state.
Fig. 2 to 4 show the entire process of the reaction element 3 triggering the two spill-proof mechanisms 2, in which the liquid tank 1 has a liquid level of different height, when the reaction member 3 is in a first state that the liquid level is at the first height d1, the reaction member 3 triggers one of the spill-proof mechanisms 2 to work, and the mechanical spill-proof mechanism 2 starts to work, during the process that the liquid level rises to the second height d2 at the first height d1, the baffle plate 21 rotates upwards, the opening between the baffle plate 21 and the liquid discharge port 11 becomes larger gradually, the liquid discharge speed becomes faster and faster, when the reaction member 3 rises to the second state in which the liquid level is at the second height d2, reaction member 3 triggers first response piece 22, and first response piece 22 can transmit signal to first control part, and first control part is according to this signal output control signal to control and feed liquor channel's solenoid valve will feed liquor channel block.
And the sensed member 24 may be a magnetic stripe at this time, the reaction member 3 may be a hollow cylinder capable of floating on the liquid, and the magnetic stripe is adhered to the position of the reaction member 3 facing the first sensing member 22 or adhered to the circumference of the first sensing member so as to be sensed by the first sensing member 22.
As shown in fig. 5, fig. 5 is a schematic view of the first sensing member and the second sensing member forming different sensing regions in the length direction.
The overflow preventing mechanism 2 for stopping the liquid from entering the liquid storage tank 1 may further include, in addition to the first sensing member 22:
the second sensing piece 23, the second sensing piece 23 is electrically connected with the first control part, and the first control part can receive a second signal sent by the second sensing piece 23 and output a second control signal according to the second signal to control the on-off of the electromagnetic valve; the sensing range of the second sensing member 23 covers a partial range of the length, width or height of the liquid storage tank 1, and the sensing range of the second sensing member 23 and the sensing range of the first sensing member 22 form different sensing regions in the length, width or height direction. Through setting up second response piece 23, second response piece 23 is connected with first control part, and second response piece 23 is in length, width or height in the liquid reserve tank 1 with first response piece 22 forms different induction area to block the feed liquor twice. At this time, the liquid inlet channels for blocking the liquid inlet twice can be the same or different.
The first sensing member 22 and the second sensing member 23 may form different sensing areas in the length direction of the liquid storage tank 1, and the first sensing member 22 and the second sensing member 23 are disposed along the length direction of the liquid storage tank 1.
The two induction pieces can be corresponding to the on-off of the two liquid inlet channels, or correspondingly control the opening and closing of the two liquid inlets which communicate liquid from the outside to the liquid storage tank 1.
The working principle is as follows: when the liquid level rises, the baffle 21 rotates upwards, the floating piece with the sensed piece 24 can open the liquid outlet 11 to discharge liquid mechanically, if the liquid discharge speed is less than the liquid inlet speed, the first sensing piece 22 is triggered in the length direction, the first sensing piece 22 triggers the electromagnetic valve to control one of the liquid inlet channels to stop liquid inlet, in the first case, the liquid discharge speed is less than the liquid inlet speed, the reaction piece 3 drives the baffle 21 to continue to rotate upwards to trigger the second sensing piece 23, at the moment, the two liquid inlet channels stop liquid inlet, the baffle 21 falls back, the second sensing piece 23 is in the sensing range of the second sensing piece 23 when being positioned at the highest liquid level, therefore, the second sensing piece cannot enter the sensing range of the second sensing piece 23 again when falling back, in the falling process, when falling back to trigger the first sensing piece 22, the first sensing piece 22 sends a third signal, the first control part receives the third signal, and outputting a third control signal according to a third signal to control the electromagnetic valve to open the liquid inlet channel corresponding to the first sensing element 22, at this time, an additional sensing element capable of sending a signal to enable the first control part to control the liquid inlet channel corresponding to the second sensing element 23 to be kept open may be additionally arranged on the rotation path of the rotation starting point, so that the liquid inlet of another liquid inlet channel can be triggered to start by the sensing element 24 in the process that the baffle 21 falls back to the rotation starting point, and certainly, the liquid inlet of another liquid inlet channel can also start without the sensing element. In the process of falling back, because one of them inlet channel is opened, if the flowing back speed still is less than the inlet velocity, baffle 21 can continue upwards to rotate and trigger second response piece 23 to the repeated falling back and the stack action that rises and form, constantly feed liquor with the time that utilizes this process, when the expression is on the basic station that is used for washing the piece of mopping, can utilize the time cleanness by the at utmost, improve clean efficiency, if the flowing back speed is greater than the inlet velocity, rotate the initial point position when baffle 21 falls back. In the second case, if the liquid discharge velocity is greater than the liquid inlet velocity, the flap 21 falls back and the liquid level drops to the first height d 1.
As shown in fig. 6 and 7, fig. 6 is a schematic view of the first sensing element and the second sensing element forming different sensing regions in the width direction, and fig. 7 is a schematic view of the reaction element of the modification in the second state.
First response piece 22 and second response piece 23 can also form the different induction zone on the width direction at liquid reserve tank 1, first response piece 22 and second response piece 23 set up along the width direction of liquid reserve tank 1, this kind of combination of two anti-overflow mechanisms 2, it rotates for the leakage fluid dram 11 to drive baffle 21 through reaction piece 3 as buoyancy spare, control the opening size between leakage fluid dram 11 and the baffle 21, and combine the first response piece 22 of one of them anti-overflow mechanism 2, and the second response piece 23 of another anti-overflow mechanism 2, can effectively carry out dual anti-overflow.
The operation principle is the same as that of the embodiment shown in fig. 5, and will not be described again here.
As shown in fig. 8 to 10, fig. 8 is a schematic view showing a connection relationship between the baffle plate and the liquid discharge port according to another embodiment, fig. 9 is a schematic view showing a first state of the reaction member according to another embodiment, and fig. 10 is a schematic view showing a second state of the reaction member according to another embodiment.
The baffle 21 can be slidably connected to the liquid outlet 11, specifically, the baffle 21 and the liquid outlet 11 are vertically attached to each other, and a hollow limiting member is disposed in the liquid storage tank 1, and is used for loading the reaction member 3 and limiting the reaction member 3 from disengaging from the limiting member.
Stretch out connecting portion from the locating part on the reaction 3, the one end of this connecting portion is connected with reaction 3, the other end is connected with baffle 21, wherein, be provided with the bar opening that sets up along vertical direction of height on the locating part, connecting portion and this bar opening sliding connection, when reaction 3 rose, drive connecting portion upwards slided for the bar opening, baffle 21 opened leakage fluid dram 11, carry out the flowing back, and the degree of opening increases along with high rising, when reaction 3 descends, drive connecting portion and slide down for the bar opening, baffle 21 closes leakage fluid dram 11, and the degree of closing increases along with high decline.
The working principle is as follows: when the reaction member 3 ascends, in the first situation, if the liquid inlet speed is greater than the liquid discharge speed, the reaction member 3 continuously ascends to the second height d2, the sensed member 24 on the reaction member 3 enters the sensing range of the first sensing member 22, the first sensing member 22 is triggered to send out a first signal, and the first control part receives the first signal and outputs a first control signal according to the first signal so as to control the electromagnetic valve to control the liquid inlet channel to be closed. When reaction piece 3 fell back this moment, first response piece 22 can also send and sense the fourth signal that is broken away from the response scope by response piece 24, first control division can open liquid inlet channel according to fourth signal output fourth control signal control solenoid valve, if liquid inlet speed is greater than the flowing back speed after opening, then reaction piece 3 continues to rise and triggers first response piece 22 for first control division output first signal control liquid inlet channel blocks, go on with this is reciprocal, with the maximum increase feed liquor, when showing in the basic station that is used for cleaning the piece of wiping, can increase clean water as far as, in order to improve clean efficiency. If the liquid inlet speed is lower than the liquid discharge speed after opening, the reaction member 3 descends and drives the baffle plate 21 to finally close the liquid discharge port 11. In the second case, if the liquid feeding speed is lower than the liquid discharging speed, the reaction member 3 descends and drives the baffle 21 to move until the reaction member 3 is at the first height d1, and the baffle 21 closes the liquid discharging port 11.
In the above embodiments, the liquid outlet 11 may be connected to the outside, such as a floor drain, to directly discharge the liquid or may be connected to a spare first liquid storage space, for example, a liquid storage transfer cavity is further disposed below, on the side, or above the liquid storage tank 1; when the transfer chamber of stock solution sets up in 1 below of liquid reserve tank or side, can also set up the second stock solution space that is located 1 top of liquid reserve tank on the basis of transfer chamber of stock solution again, at this moment, the transfer chamber of stock solution can set up a passageway intercommunication to second stock solution space, and absorb the liquid of transfer chamber in the stock solution to second stock solution space through the booster pump, the excessive problem of liquid that the flowing back passageway blockked up and cause can be avoided to this kind of structure, highly higher leakage fluid dram 11 can not blockked up by the filth of sinking, can shift the liquid in first stock solution space to second stock solution space through the booster pump, the booster pump also can be the same booster pump that the flowing back passageway adopted, also can be the booster pump that sets up in addition.
Besides the above-mentioned embodiments, more than three anti-overflow mechanisms 2 can be combined to achieve a better anti-overflow effect.
Of course, besides the way of opening the single liquid discharge port 11 with the single shutter 21, there are other ways of discharging the liquid in the tank 1, such as the way of opening the two liquid discharge ports 11 with the two shutters 21 in combination, such as the way of controlling the opening of the liquid discharge passage by the solenoid valve, and it may be that the two spill prevention mechanisms 2 respectively control the opening of one liquid discharge passage, or in combination with the way of opening the liquid discharge port 11 with the shutter 21.
Similarly, in addition to the anti-overflow mechanism 2 which stops the liquid input into the liquid storage tank 1 under the control of the solenoid valve, the liquid input can also be stopped by the blocking plate being linked by the motor and the blocking plate being controlled to close the liquid inlet by the action of the motor.
As shown in fig. 11, fig. 11 is a schematic structural view of a combination of two spill prevention mechanisms according to another modification.
Fig. 11 shows that two anti-overflow mechanisms 2 all adopt the response piece to trigger, and the lower response piece of vertical height is first response piece 22, and the higher response piece of vertical height is second response piece 23, and two response pieces are connected with first control portion electricity respectively, and different drainage channels of control portion can be controlled respectively according to the different signals that two response pieces sent carry out the break-make, and is all when drainage channel opens, drainage speed is greater than the inlet velocity.
The working principle is as follows: when the liquid level rises, the reaction part 3 floats to the sensing range of the first sensing part 22, the first sensing part 22 sends a fifth signal, the first control part receives the fifth signal and outputs a fifth control signal according to the fifth signal to control one liquid discharge channel to be opened, at this time, in the first situation, if the liquid inlet speed is still higher than the liquid discharge speed, the liquid level rises, the reaction part 3 floats to the sensing range of the second sensing part 23, the second sensing part 23 sends a sixth signal, the first control part receives the sixth signal and outputs a sixth control signal according to the sixth signal to control all the liquid discharge channels to be opened, at this time, the liquid level falls, because the position of the second sensing part 23 is located at the highest liquid level of the liquid storage tank 1, therefore, the reaction part 3 cannot rise to exceed the sensing range of the second sensing part 23, at this time, the reaction part 3 falls along with the falling of the liquid level, when the liquid level of the liquid storage tank 1 is within the sensing range of the first sensing part 22, the first sensing part 22 sends a seventh signal, the first control part outputs a seventh control signal according to the seventh signal to close the liquid drainage channels correspondingly controlled by the first sensing part 22 to block the circulation, and under the condition that the liquid storage tank 1 normally discharges water, the reaction part 3 falls back to the starting point, and the sensing part can be arranged at the starting point to control the reaction part 3 to close all the liquid drainage channels to block the circulation when the reaction part 3 falls back to the starting point. In the second case, if the liquid inlet speed is less than the liquid discharge speed, the reaction member 3 falls back to the starting point, and similarly, a sensing member may be disposed at the starting point to control the reaction member 3 to stop the flow of all the liquid discharge channels from being closed when the reaction member falls back to the starting point.
In addition to the above embodiment, the overflow prevention may be performed by using a motor sheet set to detect the height of the liquid level, and in this case, the overflow prevention system of the base station includes:
a second control unit;
the reaction piece 3 comprises at least two groups of electrode plates, the two groups of electrode plates are electrically connected to the second control part respectively, the two groups of electrode plates are located at different heights of the liquid storage tank 1 in the vertical direction, the second control part can receive conduction signals sent by the electrode plates of different groups, and different control signals are output according to different conduction signals to control one of the anti-overflow mechanisms 2 to work. The two anti-overflow mechanisms 2 can be overlapped to control the anti-overflow by arranging two groups of electrode plates with different heights.
Two spill-proof mechanisms 2 in the above embodiment, when the reaction member 3 is in the first state that the liquid level is at the first height d1, the reaction member triggers one of the spill-proof mechanisms 2 to operate; when the reaction member 3 is in the second state that the liquid level is at the second height d2, the reaction member 3 may trigger another overflow prevention mechanism 2 to operate alone, or the reaction member 3 may trigger another overflow prevention mechanism 2 to operate simultaneously with the overflow prevention mechanism 2 triggered by the first state of the reaction member 3.
Compared with the prior art, the anti-overflow system of the base station has the advantages that the reaction piece 3 capable of making at least two reactions along with the difference of the liquid level of the liquid storage tank 1 and the anti-overflow mechanism 2 at least used for preventing the liquid in the liquid storage tank 1 from overflowing are arranged, when the reaction piece 3 is in the first state that the liquid level is at the first height d1, the reaction piece 3 triggers one anti-overflow mechanism 2 to work to realize first-stage anti-overflow, when the reaction piece 3 is in the second state that the liquid level is at the second height d2, the reaction piece 3 triggers the other anti-overflow mechanism 2 to work to realize the joint work of second-stage anti-overflow and first-overflow, the two anti-overflow mechanisms 2 are respectively triggered at different liquid level heights, the two anti-overflow mechanisms 2 can perform anti-overflow in a hierarchical mode, double anti-overflow is realized, the anti-overflow effect is better, and the liquid in the liquid storage tank 1 can be processed, solves the problem of anti-overflow and can also carry out double anti-overflow. The anti-overflow system of the base station has the characteristic of double anti-overflow.
Example two
As shown in fig. 12, fig. 12 is a schematic structural diagram of a base station of the present invention.
The utility model further provides a base station for cleaning the mopping piece of the cleaning robot 4, which comprises the anti-overflow system of the base station in the embodiment, wherein the liquid storage tank 1 is the sewage collection tank in the embodiment.
The base station of the utility model may be adapted to the cleaning robot 4, which may be used for charging the cleaning robot 4 or/and cleaning a mop of the cleaning robot 4, as follows:
the cleaning method of the cleaning robot 4 by the base station may be water washing, specifically, mechanical friction type water washing, or ultrasonic water washing.
The cleaning robot 4 may be a commercial cleaning robot or a household cleaning robot according to the classification of use, and may be an automatic cleaning robot such as a sweeper, a sweeping and mopping all-in-one machine, a mopping machine, a floor wiping machine or a floor washing machine according to the classification of use. Cleaning machines people 4 can be oval, circular, D font class shape to optionally be provided with cleaning module and be used for the water tank for cleaning module water supply, and be used for the walking subassembly of walking, cleaning module is including dragging the piece of wiping, and the walking subassembly includes middle part walking wheel, left walking wheel and right walking wheel.
The mop can be a flat mop, such as a flat mop, or a roller mop, such as a sponge roller brush or other roller wrapped with mop materials such as cloth strips. The mop may be provided at a front half or a rear half of the bottom of the main body of the cleaning robot 4.
The cleaning robot 4 may further optionally include various components such as a control unit, a distance sensing unit, a cliff sensor, and a front impact unit, as required.
Through the anti-overflow system who uses this basic station on the basic station, the sewage that cleaning robot 4 drags the clean process production of wiping the piece can be stored in the sewage collection box, and cleaning robot 4's cleanness is safer, has solved the liquid level and has risen and soak cleaning robot 4 and the excessive problem of sewage.
Compared with the prior art, the base station disclosed by the utility model has the advantages that by applying the anti-overflow system of the base station on the base station, sewage generated in the cleaning process of the mopping piece of the cleaning robot 4 can be stored in the sewage collecting box, the cleaning of the cleaning robot 4 is safer, and the problems that the cleaning robot 4 is soaked and sewage overflows due to the rise of the liquid level are solved. The base station has the characteristic of preventing sewage from overflowing.
The above-mentioned embodiments only express several embodiments of the present invention, and the description thereof is more specific and detailed, but not construed as limiting the scope of the utility model. It should be noted that, for a person skilled in the art, several variations and modifications can be made without departing from the inventive concept, which falls within the scope of the present invention.

Claims (10)

1. The utility model provides an anti-overflow system of basic station, uses on the liquid reserve tank which characterized in that includes:
at least two anti-overflow mechanisms;
the reaction part can make at least two reactions along with the difference of the liquid level of the liquid storage tank, and when the reaction part is in a first state that the liquid level is at a first height, the reaction part triggers one of the anti-overflow mechanisms to work; when the reaction member is in a second state that the liquid level is at a second height, the reaction member triggers another overflow prevention mechanism to work.
2. The base station overfill prevention system of claim 1, wherein at least one of said overfill prevention mechanism is configured to drain said tank or stop the flow of liquid into said tank.
3. The base station overfill prevention system of claim 1, wherein one of said overfill prevention mechanisms is configured to drain said tank and the other of said overfill prevention mechanisms is configured to stop the flow of liquid into said tank.
4. The base station overfill prevention system of claim 1, wherein said overfill prevention mechanism activated by said reaction member being in a first state is configured to drain said tank, said overfill prevention mechanism activated by said reaction member being in a second state is configured to stop the flow of liquid into said tank, and said first height is lower than said second height.
5. The base station overfill prevention system of claim 2, wherein said reaction member comprises:
the anti-overflow device comprises a floating piece, wherein when the floating piece is suspended to a first height, one of the anti-overflow mechanisms is triggered to work, and when the floating piece is suspended to a second height, the other anti-overflow mechanism is triggered to work.
6. The base station overfill prevention system of claim 5, wherein said overfill prevention mechanism for draining said tank comprises:
the baffle plate is connected with a liquid outlet of the liquid storage tank, and the floating piece is connected with the baffle plate so as to open the liquid outlet to different degrees when the height of the floating piece is changed.
7. The base station overflow prevention system of claim 6 wherein the flap is pivotally connected to the drain port, the flap being capable of opening the drain port to varying degrees upon pivoting;
the floating piece is arranged at the free end of the baffle and is positioned at one side of the baffle, which faces the liquid storage tank.
8. The base station overfill prevention system of claim 2, wherein said overfill prevention mechanism that stops liquid from entering said tank comprises:
the sensing range of the first sensing piece covers the partial range of the length, the width or the height in the liquid storage tank;
a sensed member capable of being sensed by the first sensing member, the sensed member being disposed on the reaction member,
the electromagnetic valve is connected with a liquid inlet channel connected with the liquid storage tank and used for controlling the on-off of the liquid inlet channel;
the first control part is respectively electrically connected with the first sensing part and the electromagnetic valve and is used for receiving a first signal sent by the first sensing part and outputting a first control signal according to the first signal so as to control the on-off of the electromagnetic valve.
9. The base station overfill prevention system of claim 8, wherein said overfill prevention mechanism that stops liquid from entering said tank further comprises:
the second sensing piece is electrically connected with the first control part, and the first control part can receive a second signal sent by the second sensing piece and output a second control signal according to the second signal so as to control the on-off of the electromagnetic valve;
the sensing range of the second sensing piece covers the partial range of the length, the width or the height in the liquid storage tank, and the sensing range of the second sensing piece and the sensing range of the first sensing piece form different sensing areas in the length direction, the width direction or the height direction.
10. A base station for cleaning a mop of a cleaning robot, comprising: an overfill prevention system comprising the base station of any of claims 1-9, said reservoir being a sewage collection tank.
CN202120590033.1U 2021-03-23 2021-03-23 Anti-overflow system of base station and base station Active CN215457713U (en)

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Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US11465274B2 (en) * 2017-02-20 2022-10-11 Lg Electronics Inc. Module type home robot

Cited By (1)

* Cited by examiner, † Cited by third party
Publication number Priority date Publication date Assignee Title
US11465274B2 (en) * 2017-02-20 2022-10-11 Lg Electronics Inc. Module type home robot

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