Atomization electrolysis device
By installing a raw liquid container and a concentration detector in the atomizing electrolysis device, the chlorine content of the electrolyzed water is increased, solving the problem of low residual chlorine concentration in existing devices and achieving a highly efficient sterilization effect on the toilet inner wall.
Patent Information
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-04-08
- Publication Date
- 2026-04-07
AI Technical Summary
Existing atomizing electrolysis devices suffer from poor sterilization effects due to the low chlorine content of tap water, resulting in low residual chlorine concentration in the disinfectant solution produced by atomizing tiny water particles.
By adding the substance to be electrolyzed or the original solution to the atomizing electrolysis device through a stock solution container, the chlorine content of the electrolyzed water is increased. The concentration of the original solution is controlled by a concentration detector to ensure a stable residual chlorine concentration in the disinfectant solution of the atomized micro water particles. The design of the atomizing module and the electrolysis module together achieves efficient spraying of the atomized disinfectant solution.
It increases the residual chlorine concentration of disinfectant solution by atomizing tiny water particles, enhancing the sterilization effect on the toilet bowl's inner wall. It has a simple structure and precise control.
Smart Images
Figure CN224091677U_ABST
Abstract
Description
Technical Field
[0001] This utility model relates to the field of smart toilet technology, and more specifically, to an atomizing electrolysis device. Background Technology
[0002] A common design for sterilizing toilets is to use electrolyzed water spraying. Water first enters the electrolysis module for electrolysis to produce an electrolyzed disinfectant solution, which is then sprayed onto the inner wall of the toilet to kill bacteria.
[0003] Currently, commercially available antibacterial toilets typically use electrolysis of tap water to obtain disinfectant, which is then sprayed onto the toilet bowl using a spray device. However, the spray range is generally limited and constrained by water pressure. Therefore, existing technology replaces the spray device with an atomizing device, which atomizes the disinfectant into tiny water particles that penetrate the inner wall of the toilet bowl for disinfection. However, existing atomizing electrolysis devices suffer from low chlorine content in tap water, resulting in low residual chlorine concentration in the atomized water particles and thus poor disinfection effectiveness.
[0004] In view of this, the inventors of this application have invented an atomizing electrolysis device, which increases the chlorine content of the electrolyzed water by adding the substance to be electrolyzed or the original solution to the atomizing electrolysis device through a container, thereby increasing the residual chlorine concentration of the disinfectant solution of atomized tiny water particles. Utility Model Content
[0005] To achieve the above objectives, the present invention adopts the following technical solution: an atomizing electrolysis device, comprising:
[0006] The stock solution container is equipped with a liquid chamber for storing the stock solution;
[0007] An atomizing electrolysis module is provided with an atomizing electrolysis chamber and a mist outlet communicating with the atomizing electrolysis chamber. An electrolysis module and an atomizing module are provided inside the atomizing electrolysis chamber.
[0008] A liquid outlet channel is provided, through which the liquid chamber and the atomizing electrolysis chamber are connected;
[0009] The controller delivers the original liquid in the liquid chamber to the atomizing electrolysis chamber through the liquid outlet channel. During atomizing electrolysis, the liquid to be electrolyzed in the atomizing electrolysis chamber can be atomized and electrolyzed into water under the action of the electrolysis module and the atomization module and sprayed out from the mist outlet.
[0010] Furthermore, a concentration detector is provided in the liquid chamber, and the opening and closing of the controller is controlled according to the concentration of the original liquid detected by the concentration detector.
[0011] Furthermore, the atomizing electrolysis module is provided with a water inlet connected to the atomizing electrolysis chamber. The water inlet is connected to the toilet's water circuit, and the toilet's water circuit can supply water to the water inlet. The toilet's water circuit includes a flushing water circuit and / or a lid cleaning water circuit.
[0012] Furthermore, the stock solution container is provided with a feeding port for adding the substance to be electrolyzed or the stock solution, the feeding port being positioned higher than or equal to the mist outlet, or the feeding port being equipped with an automatic feeding device; the stock solution is brine or liquid salt.
[0013] Furthermore, a liquid level sensor is provided in the atomizing electrolysis chamber.
[0014] Furthermore, the atomizing electrolysis module is provided with an overflow port connected to the atomizing electrolysis chamber, and the overflow port and the mist outlet are different outlets or the same outlet.
[0015] Furthermore, the atomizing electrolysis module is equipped with a gas source connected to the atomizing electrolysis chamber. The gas source is used to supply air to the atomizing electrolysis chamber and drive the mist to be ejected from the mist outlet.
[0016] Furthermore, the raw liquid container is also connected to a liquid inlet channel, and the liquid chamber is connected to the atomizing electrolysis chamber or an external water source through the liquid inlet channel.
[0017] Furthermore, the controller includes a liquid supply device located in the liquid inlet channel. The liquid supply device delivers liquid to the liquid chamber, thereby squeezing the liquid in the liquid chamber to overflow through the liquid outlet channel to the atomizing electrolysis chamber. The liquid supply device is one or more of a pump, a solenoid valve, and a switching valve.
[0018] Furthermore, the controller includes a liquid outlet device located in the liquid outlet channel, which delivers the liquid in the liquid chamber to the atomizing electrolysis chamber through the liquid outlet channel; wherein the liquid outlet device is one or more of a pump, a solenoid valve, and a switching valve.
[0019] By adopting the above technical solution, this utility model has the following advantages compared with the prior art:
[0020] 1. This utility model, by setting up the original liquid container and the controller, controls the liquid in the original liquid container to stably supply liquid to the atomizing electrolysis chamber, thereby stably increasing the residual chlorine concentration of the disinfectant solution for atomizing tiny water particles.
[0021] 2. By setting the concentration detector, this utility model can effectively control the opening and closing of the controller according to the concentration of the original solution detected by the concentration detector, thereby effectively controlling the salt content delivered to the atomizing electrolysis chamber and stabilizing and improving the residual chlorine concentration of the disinfectant solution for atomizing tiny water particles.
[0022] 3. By setting the material inlet at a position higher than or equal to the mist outlet, this utility model can prevent the solution from overflowing from the material inlet.
[0023] 4. This utility model provides a liquid supply device in the liquid inlet channel, which delivers liquid to the liquid chamber and then squeezes the liquid in the liquid chamber to overflow into the atomizing electrolysis chamber through the liquid outlet channel; the liquid in the liquid chamber is delivered to the atomizing electrolysis chamber by squeezing, and the structure is simple.
[0024] 5. This utility model has a simple structure by setting a liquid outlet device in the liquid outlet channel, which uses components such as a liquid pump to pump the liquid in the liquid chamber to the atomizing electrolysis chamber. Attached Figure Description
[0025] Figure 1 This is a schematic diagram of the atomizing electrolysis device according to an embodiment of the present utility model. The connection method of the liquid pump, the raw liquid container, and the atomizing electrolysis module is the first design.
[0026] Figure 2 This is another schematic diagram of the atomizing electrolysis device according to an embodiment of the present invention;
[0027] Figure 3 This is a schematic diagram of the atomizing electrolysis module according to an embodiment of the present invention;
[0028] Figure 4 This is a schematic diagram of the atomizing electrolysis device according to an embodiment of the present utility model. The connection method of the liquid pump, the raw liquid container, and the atomizing electrolysis module is the second design.
[0029] Figure 5 This is a schematic diagram of the atomizing electrolysis device according to an embodiment of the present utility model. The connection method of the liquid pump, the raw liquid container, and the atomizing electrolysis module is the third design.
[0030] Figure 6 This is a schematic diagram of the atomizing electrolysis device according to an embodiment of the present utility model. The connection method of the liquid pump, the raw liquid container, and the atomizing electrolysis module is the fourth design.
[0031] Figure 7 This is a schematic diagram of the atomizing electrolysis device according to an embodiment of the present utility model. The connection method of the liquid pump, the raw liquid container, and the atomizing electrolysis module is the fifth design.
[0032] Explanation of reference numerals in the attached figures:
[0033] 10 - Original solution container,
[0034] 11-Liquid chamber, 12-Concentration detector, 13-Substance inlet, 14-Top cover
[0035] 20-Atomizing Electrolysis Module
[0036] 21-Atomizing electrolysis chamber, 211-Electrolysis module, 212-Atomizing module, 213-Liquid level sensor.
[0037] 22-Mist outlet, 23-Air inlet, 24-Overflow outlet, 25-Water inlet
[0038] 30 - Liquid outlet channel
[0039] 40-Liquid Pump
[0040] 50 - Liquid inlet channel
[0041] 60 - Flushing waterways. Detailed Implementation
[0042] To make the objectives, technical solutions, and advantages of this utility model clearer, the present utility model will be further described in detail below with reference to the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are merely illustrative of the present utility model and are not intended to limit the present utility model.
[0043] It should be noted that in this utility model, the terms "upper", "lower", "left", "right", "vertical", "horizontal", "inner", and "outer" are based on the orientation or positional relationship shown in the accompanying drawings, and are only for the convenience of describing this utility model and simplifying the description, and are not intended to indicate or imply that the device or element of this utility model must have a specific orientation, and therefore should not be construed as a limitation of this utility model. Example
[0044] Cooperate Figures 1 to 7 As shown, this utility model discloses an atomizing electrolysis device for use in smart toilets, which electrolyzes and atomizes the original liquid, and the atomized disinfectant liquid disinfects the inner wall of the toilet.
[0045] An atomizing electrolysis device, comprising:
[0046] The stock solution container 10 is provided with a liquid chamber 11 for storing the stock solution, wherein the stock solution is brine or liquid salt;
[0047] The atomizing electrolysis module 20 is provided with an atomizing electrolysis chamber 21 and a mist outlet 22 communicating with the atomizing electrolysis chamber 21. The atomizing electrolysis chamber 21 is provided with an electrolysis module 211 and an atomizing module 212.
[0048] The liquid outlet channel 30 connects the liquid chamber 11 and the atomizing electrolysis chamber 21.
[0049] The controller delivers the original liquid in the liquid chamber 11 to the atomizing electrolysis chamber 21 through the liquid outlet channel 30. During atomizing electrolysis, the liquid to be electrolyzed in the atomizing electrolysis chamber 21 can be atomized and electrolyzed into water under the action of the electrolysis module 211 and the atomization module 212 and sprayed out from the mist outlet 22.
[0050] Cooperate Figures 1 to 3 As shown, the first design uses brine as the original solution. The atomizing electrolysis chamber 21 and the liquid chamber 11 are connected via the outlet channel 30. The controller provides the driving force for the flow of liquid throughout the device. Under this driving force, the brine in the liquid chamber 11 enters the atomizing electrolysis chamber 21 through the outlet channel 30. The brine delivered by the outlet channel 30 continuously mixes with the original solution in the atomizing electrolysis chamber 21, causing the salt content of the solution in the atomizing electrolysis chamber 21 to increase. When the salt content of the solution in the atomizing electrolysis chamber 21 reaches a predetermined range, the controller stops working. The operating time of the controller can be controlled in various other ways, such as by setting a concentration detector 12 in the atomizing electrolysis chamber 21 or other suitable methods. In this embodiment, a concentration detector 12 is set in the liquid chamber 11. Preferably, the concentration detector 12 is located at the bottom of the liquid chamber 11. The operating time of the controller is controlled based on the brine concentration detected by the concentration detector 12. Specifically, the salt content of the solution in the atomizing electrolysis chamber 21 increases continuously with the injection and mixing of brine according to a certain pattern. In addition, when the concentration detector 12 detects that the saline concentration in the liquid chamber 11 is lower than a certain value, the smart toilet control system reminds the user to add salt to the liquid chamber 11.
[0051] Electrolysis module 211 electrolyzes the salt solution in atomizing electrolysis chamber 21, and atomizing module 212 atomizes the electrolyzed disinfectant. The mist outlet 22 corresponds to the inner wall of the toilet. Specifically, the position of the mist outlet 22 is basically the same as the position of the toilet brush nozzle. The tiny particles atomized by atomizing module 212 are finally discharged to the inner wall of the toilet through mist outlet 22, thereby disinfecting the inner wall of the toilet.
[0052] The atomizing electrolysis module 20 is provided with an air inlet 23 that is connected to the atomizing electrolysis chamber 21. Preferably, the air inlet 23 is connected to an external air pump, which supplies air to the atomizing electrolysis chamber 21 through the air inlet 23, so that the atomized microparticles in the atomizing electrolysis chamber 21 can be quickly discharged through the mist outlet 22 with the airflow.
[0053] The atomizing electrolysis module 20 is provided with an overflow port 24 connected to the atomizing electrolysis chamber 21. The overflow port 24 and the mist outlet 22 may be different outlets or the same outlet. When the water level in the atomizing electrolysis chamber 21 reaches the overflow port 24, excess solution is discharged through the overflow port 24. Since the volume of the atomizing electrolysis chamber 21 is fixed, when the liquid outlet channel 30 delivers brine to the atomizing electrolysis chamber 21, the chamber may be full of solution, but the controller continues to operate. In this case, the liquid outlet channel 30 continues to output brine, and the excess solution in the atomizing electrolysis chamber 21 can be discharged through the overflow port 24. The overflow port 24 can be provided separately or shared with the mist outlet 22. In this embodiment, the mist outlet 22 and the overflow port 24 are the same outlet, and excess solution is discharged through the mist outlet 22.
[0054] The atomizing electrolysis module 20 is provided with a water inlet 25 communicating with the atomizing electrolysis chamber 21. The water inlet 25 is connected to the toilet's water circuit, which supplies water to the water inlet 25. The toilet's water circuit includes a flushing water circuit 60 and / or a lid cleaning water circuit. Specifically, the flushing water circuit 60 is the toilet's brush ring water circuit. When the toilet's brush ring water circuit flushes, it can automatically replenish water to the atomizing electrolysis chamber 21 through the water inlet 25, ensuring that there is always water in the atomizing electrolysis chamber 21. It also separately activates the toilet's brush ring function to replenish water to the atomizing electrolysis chamber 21. Of course, the flushing water circuit 60 can also be the toilet's main flushing water circuit. In other embodiments, the water inlet 25 can also be connected to an external water circuit of the toilet.
[0055] Cooperate Figure 2 As shown, the stock solution container 10 is provided with a filling port 13, which is positioned higher than or equal to the position of the mist outlet 22 (the value of h in the figure is greater than or equal to 0). The filling port 13 extends to the toilet surface, facilitating the user to add solid salt or salt solution to the brine bottle through the filling port 13. Preferably, the filling port 13 is provided with a matching top cover 14, which can be designed to be sealed or unsealed as needed. Because the liquid chamber 11 is connected to the atomizing electrolysis chamber 21, the filling port 13 is higher than the overflow port 24 to prevent the brine in the liquid chamber 11 from overflowing through the filling port 13 during the salt addition process.
[0056] The atomizing electrolysis chamber 21 is equipped with a liquid level sensor 213. The liquid level sensor 213 is used to detect whether there is solution in the atomizing electrolysis chamber 21, ensuring that the electrolysis module 211 and the atomizing module 212 will only be turned on when there is solution in the atomizing electrolysis chamber 21.
[0057] The connection methods of the controller, the raw liquid container 10, and the atomizing electrolysis module 20 are varied, and the working process of the atomizing electrolysis device will also differ depending on the design:
[0058] Cooperate Figure 1 As shown, in one design, in addition to the liquid outlet channel 30, the raw liquid container 10 is also connected to a liquid inlet channel 50. The controller includes a liquid supply device, which is located in the liquid inlet channel 50. Specifically, the liquid supply device is a liquid pump 40. The liquid chamber 11 is connected to the atomizing electrolysis chamber 21 or an external water source through the liquid pump 40 and the liquid inlet channel 50. The liquid supply device can also be a solenoid valve, a switching valve, etc. Alternatively, a height difference can be designed between the liquid chamber 11 and the atomizing electrolysis chamber 21, using the water level difference to provide a power source. With the help of a solenoid valve, a switching valve, etc., a pump effect can be achieved to realize the liquid flow between the liquid chamber 11 and the atomizing electrolysis chamber 21.
[0059] When the atomizing electrolysis device is working, water enters through inlet 25. After the liquid level sensor 213 detects water in the atomizing electrolysis chamber 21, the liquid pump 40 starts. The solution in the atomizing electrolysis chamber 21 is drawn from the liquid inlet channel 50 into the liquid chamber 11. At the same time, the solution in the atomizing electrolysis chamber 21 squeezes the salt solution in the liquid chamber 11 into the atomizing electrolysis chamber 21 through the liquid outlet channel 30. The salt content of the solution in the atomizing electrolysis chamber 21 continuously increases until it reaches the preset range, at which point the liquid pump 40 stops working. Then, the electrolysis module 211 and the atomization module 212 are turned on synchronously or sequentially to electrolyze the solution in the atomizing electrolysis chamber 21 into a bactericidal liquid and atomize it. The air pump draws in air through the air inlet 23 and pushes the atomized bactericidal liquid out from the mist outlet 22 / overflow outlet 24 to sterilize the toilet.
[0060] Cooperate Figure 4 As shown, the difference between the second and first designs is that the liquid chamber 11 is connected to an external water source through the liquid pump 40 (liquid supply device) and the liquid inlet channel 50. The difference in operation of the atomizing electrolysis device is that after the liquid pump 40 is turned on, water from the external source is drawn into the liquid chamber 11 through the liquid inlet channel 50. Simultaneously, the solution in the atomizing electrolysis chamber 21 compresses the salt solution in the liquid chamber 11, causing it to enter the atomizing electrolysis chamber 21 through the liquid outlet channel 30. The salt content of the solution in the atomizing electrolysis chamber 21 continuously increases until it reaches a preset range, at which point the liquid pump 40 stops working.
[0061] Cooperate Figure 5 As shown, the difference between the third design and the first design is that the controller includes a liquid outlet device, which is located in the liquid outlet channel 30. The liquid outlet device delivers the liquid in the liquid chamber 11 to the atomizing electrolysis chamber 21 through the liquid outlet channel 30. Specifically, the liquid outlet device is a liquid pump 40, and the working process of the device is the same as that of the first design.
[0062] Cooperate Figure 6As shown, in the fourth design, the controller includes a liquid outlet device located in the liquid outlet channel 30. Specifically, the liquid outlet device is a liquid pump 40, but it can also be a solenoid valve, a switching valve, etc. The liquid pump 40, the raw material container 10, and the atomizing electrolysis module 20 are connected only through the liquid outlet channel 30. The top cover 14 and the feeding port 13 are designed to be non-sealed, ensuring that the liquid chamber 11 is a non-sealed space. During the operation of the atomizing electrolysis device, when the liquid pump 40 is turned on, the salt solution in the liquid chamber 11 enters the atomizing electrolysis chamber 21 from the liquid outlet channel 30. The salt content of the solution in the atomizing electrolysis chamber 21 continuously increases until it reaches a preset range, at which point the liquid pump 40 stops working. As the number of atomizing electrolysis cycles increases, the salt water in the liquid chamber 11 continuously decreases. When the concentration detection module detects that the salt water concentration is zero, the system reminds the user to add salt. The user adds the prepared salt water through the feeding port 13.
[0063] Cooperate Figure 7 As shown, the difference between the fifth design and the fourth design is that the original liquid container 10 is also connected to a liquid inlet channel 50, and the liquid chamber 11 is connected to an external water source through the liquid inlet channel 50.
[0064] During the operation of the atomizing electrolysis device, when the liquid pump 40 is turned on, the salt solution in the liquid chamber 11 enters the atomizing electrolysis chamber 21 from the liquid outlet channel 30. Water does not enter the liquid inlet channel 50. By detecting the salt concentration in the liquid chamber 11, the amount of raw liquid to be delivered to the atomizing electrolysis chamber 21 is calculated, and thus the operating time of the liquid pump 40 can be calculated (the volume of the atomizing electrolysis chamber 21 is fixed, and the delivery speed of the liquid outlet channel 30 is fixed when the liquid pump 40 is turned on). The liquid pump 40 stops operating after the operating time is reached. As the number of atomizing electrolysis cycles increases, the brine in the liquid chamber 11 continuously decreases. When the concentration detection module detects that the brine concentration is zero, the system reminds the user to add salt. The user adds solid salt through the material inlet 13, and then the system controls the liquid inlet to automatically adjust the brine by introducing water.
[0065] The above description is merely a preferred embodiment of this utility model, but the protection scope of this utility model is not limited thereto. Any variations or substitutions that can be easily conceived by those skilled in the art within the technical scope disclosed in this utility model should be included within the protection scope of this utility model. Therefore, the protection scope of this utility model should be determined by the scope of the claims.
Claims
1. An atomizing electrolysis device, characterized in that: include: The stock solution container is equipped with a liquid chamber for storing the stock solution; An atomizing electrolysis module is provided with an atomizing electrolysis chamber and a mist outlet communicating with the atomizing electrolysis chamber. An electrolysis module and an atomizing module are provided inside the atomizing electrolysis chamber. A liquid outlet channel is provided, through which the liquid chamber and the atomizing electrolysis chamber are connected; The controller delivers the original liquid in the liquid chamber to the atomizing electrolysis chamber through the liquid outlet channel. During atomizing electrolysis, the liquid to be electrolyzed in the atomizing electrolysis chamber can be atomized and electrolyzed into water under the action of the electrolysis module and the atomization module and sprayed out from the mist outlet.
2. The atomizing electrolysis device as described in claim 1, characterized in that: The liquid chamber is equipped with a concentration detector, and the opening and closing of the controller is controlled according to the concentration of the original liquid detected by the concentration detector.
3. The atomizing electrolysis device as described in claim 1, characterized in that: The atomizing electrolysis module is provided with a water inlet that is connected to the atomizing electrolysis chamber. The water inlet is connected to the toilet's water circuit, and the toilet's water circuit can supply water to the water inlet. The toilet's water circuit includes a flushing water circuit and / or a lid cleaning water circuit.
4. The atomizing electrolysis device as described in claim 1, characterized in that: The stock solution container is provided with a feeding port for adding the substance to be electrolyzed or the stock solution. The position of the feeding port is higher than or equal to the position of the mist outlet, or the feeding port is equipped with an automatic feeding device; the stock solution is brine or liquid salt.
5. The atomizing electrolysis device as described in claim 1, characterized in that: A liquid level sensor is installed in the atomizing electrolysis chamber.
6. The atomizing electrolysis device as described in claim 1, characterized in that: The atomizing electrolysis module is provided with an overflow port that is connected to the atomizing electrolysis chamber. The overflow port and the mist outlet are either different outlets or the same outlet.
7. The atomizing electrolysis device as described in claim 1, characterized in that: The atomizing electrolysis module is equipped with an air source connected to the atomizing electrolysis chamber. The air source is used to supply air to the atomizing electrolysis chamber and drive the mist to be ejected from the mist outlet.
8. An atomizing electrolysis device as described in any one of claims 1 to 7, characterized in that: The raw liquid container is also connected to a liquid inlet channel, and the liquid chamber is connected to the atomizing electrolysis chamber or an external water source through the liquid inlet channel.
9. The atomizing electrolysis device as described in claim 8, characterized in that: The controller includes a liquid supply device located in the liquid inlet channel. The liquid supply device delivers liquid to the liquid chamber, thereby squeezing the liquid in the liquid chamber to overflow into the atomizing electrolysis chamber through the liquid outlet channel. The liquid supply device is one or more of a pump, a solenoid valve, and a switching valve.
10. An atomizing electrolysis device as described in any one of claims 1 to 7, characterized in that: The controller includes a liquid outlet device located in the liquid outlet channel. The liquid outlet device delivers the liquid in the liquid chamber to the atomizing electrolysis chamber through the liquid outlet channel. The liquid outlet device is one or more of a pump, a solenoid valve, and a switching valve.