A superoxygenated water generating device

Abstract

The utility model discloses a kind of superoxygen water generating devices, belong to water treatment equipment.Its chassis bottom is equipped with water tank, top bearing platform is fixed overpressure generator, water pump, air pump, output pump and gas-liquid mixing device;Gas-liquid mixing device is composed of motor, stirring barrel, storage barrel, motor drives stirring paddle, stirring barrel is connected storage barrel through electromagnetic valve;Water tank is connected stirring barrel through water pump, overpressure generator is connected stirring barrel through air pump, storage barrel is connected chassis liquid outlet through output pump, water inlet is connected water tank through water adding pipe.Water pump is pumped into stirring barrel, overpressure generator generates ozone, air pump is sent, motor is stirred into superoxygen water, electromagnetic valve controls inflow storage barrel, and output pump is pumped as required.Structure is compact, small in size, suitable for space limited environment, convenient to operate, efficient and safe.

Description

Technical Field

[0001] This utility model belongs to the field of ozone application technology, specifically relating to a superoxide water generating device. Background Technology

[0002] Ozone, commonly known as superoxide, is a highly efficient and strong oxidant with excellent bactericidal capabilities. Therefore, ozone water is widely used for disinfection and sterilization in industries such as environmental protection, medicine, water treatment, pharmaceuticals, food, and cosmetics. However, some existing ozone water generators still require an external pure water tank, resulting in a bulky and cumbersome structure that demands significant installation space, making them unsuitable for applications in space-constrained environments such as homes.

[0003] Chinese utility model patent CN222159913U discloses a household-use ozone water generator, comprising a main body with a cylindrical filter mounting slot inside. The filter mounting slot has a downward-facing opening and is threadedly connected to a filter. A water inlet pipe is located on the top side of the main body, with a T-joint connected to its inner end. One end of the T-joint is connected to the filter, and the bottom end of the filter is connected to an ozone generator located on one side of the filter via a U-shaped tube. The other end of the T-joint is connected to a Venturi gas-liquid mixer via a branch pipe. The ozone generator is connected to the Venturi gas-liquid mixer, and the Venturi gas-liquid mixer is connected to an ozone water output pipe. This utility model has a filter installed in the water inlet pipe, eliminating the need for a pure water tank and resulting in a compact size. However, the ozone water it produces is unstable. Utility Model Content

[0004] The purpose of this invention is to provide a superoxide water generating device to solve the problems mentioned in the background art.

[0005] To achieve the above objectives, this utility model provides the following technical solution: a superoxide water generating device, comprising a chassis, a water tank fixedly installed in the chassis, a support platform fixedly installed on the end face of the water tank, an overpressure generator, a water pump, an air pump, an output pump, and a gas-liquid mixing device fixedly installed on the support platform, the gas-liquid mixing device comprising a motor, a stirring tank, and a storage tank, the motor being fixedly equipped with a stirring paddle, the stirring tank being fixedly connected to the storage tank via a solenoid valve, the water tank being connected to the stirring tank via the water pump, the overpressure generator being connected to the stirring tank via the air pump, a water inlet and a liquid outlet fixedly installed on the side of the chassis, the storage tank being connected to the liquid outlet via the output pump, and the water inlet being connected to the water tank via a water inlet pipe.

[0006] Preferably, the chassis is fixedly equipped with casters and a handle.

[0007] Preferably, the chassis is fixedly equipped with a display and a control keyboard.

[0008] Preferably, the chassis is fixedly installed with a safety door via hinges.

[0009] Compared with the prior art, the beneficial effects of this utility model are:

[0010] This invention uses a water pump to pump water from a tank into the mixing tank of a gas-liquid mixing device. Simultaneously, an overpressure generator produces ozone, which is then pumped into the mixing tank by an air pump. A motor drives the mixing paddle to rotate, thoroughly mixing the ozone and water in the mixing tank to obtain superoxide water. A solenoid valve is then opened to allow the superoxide water to flow into a storage tank, and subsequently, the solenoid valve closes. When superoxide water is needed, an output pump is activated to pump the superoxide water to the outlet. This invention installs the water tank at the bottom of the chassis, with a support platform installed on top of the water tank. The remaining components are then mounted on the support platform, reducing the overall size and meeting the needs of small-space applications. Attached Figure Description

[0011] Figure 1 This is the first perspective structural view of this utility model.

[0012] Figure 2 This is the second perspective structural view of this utility model.

[0013] Figure 3 This is the first perspective structural view of the interior of this utility model.

[0014] Figure 4 This is the second perspective structural view of the interior of this utility model.

[0015] Figure 5 This is an exploded structural view of the gas-liquid mixing device of this utility model.

[0016] The diagram is labeled as follows: 1. Chassis; 2. Water tank; 3. Support platform; 4. Overpressure generator; 5. Water pump; 6. Air pump; 7. Output pump; 8. Gas-liquid mixing device; 9. Motor; 10. Stirring tank; 11. Storage tank; 12. Stirring paddle; 13. Solenoid valve; 14. Water inlet; 15. Liquid outlet; 16. Water inlet pipe; 17. Roller; 18. Handle; 19. Display; 20. Control keyboard; 21. Hinge; 22. Safety door. Detailed Implementation

[0017] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0018] Example 1:

[0019] This utility model provides a superoxide water generating device, comprising a casing 1, a water tank 2 fixedly mounted on the casing 1, a support platform 3 fixedly mounted on the end face of the water tank 2, an overpressure generator 4, a water pump 5, an air pump 6, an output pump 7, and a gas-liquid mixing device 8 fixedly mounted on the support platform 3, the gas-liquid mixing device 8 including a motor 9, a stirring tank 10, and a storage tank 11, the motor 9 being fixedly mounted with a stirring paddle 12, the stirring tank 10 being fixedly connected to the storage tank 11 via a solenoid valve 13, the water tank 2 being connected to the stirring tank 10 via the water pump 5, the overpressure generator 4 being connected to the stirring tank 10 via the air pump 6, a water inlet 14 and a liquid outlet 15 fixedly mounted on the side of the casing 1, the storage tank 11 being connected to the liquid outlet 15 via the output pump 7, and the water inlet 14 being connected to the water tank 2 via a water inlet pipe 16. The casing 1 is fixedly mounted with casters 17 and a handle 18. The casing 1 is also fixedly mounted with a display 19 and a control keyboard 20. The chassis 1 is fixedly installed with a safety door 22 via a hinge 21.

[0020] Through the above technical solution, this utility model uses a water pump 5 to pump water from the water tank 2 into the mixing tank 10 of the gas-liquid mixing device 8. At the same time, the overpressure generator 4 generates ozone, which is then pumped into the mixing tank 10 by the air pump 6. The motor 9 starts to drive the stirring paddle 12 to rotate, fully mixing the ozone and water in the mixing tank 10 to obtain superoxygenated water. The solenoid valve 13 is opened to allow the superoxygenated water to flow into the storage tank 11. Subsequently, the solenoid valve 13 is closed. When superoxygenated water is needed, the output pump 7 is started to pump the superoxygenated water to the outlet 15. This utility model installs the water tank 2 at the bottom of the casing 1 and a support platform 3 on the top of the water tank 2. The remaining components are then installed on the support platform 3, reducing the overall volume and meeting the needs of small space use.

[0021] Example 2:

[0022] In this embodiment, a water tank 2 is fixedly installed inside the casing 1. A support platform 3 is fixedly installed on the end face of the water tank 2. An overpressure generator 4, a water pump 5, an air pump 6, an output pump 7, and a gas-liquid mixing device 8 are fixedly installed on the support platform 3. The gas-liquid mixing device 8 includes a motor 9, a stirring tank 10, and a storage tank 11. A stirring paddle 12 is fixedly installed on the motor 9. The stirring tank 10 is fixedly connected to the storage tank 11 via a solenoid valve 13. The water tank 2 is connected to the stirring tank 10 via the water pump 5, and the overpressure generator 4 is connected to the stirring tank 10 via the air pump 6. A water inlet 14 and a liquid outlet 15 are fixedly installed on the side of the casing 1. The storage tank 11 is connected to the liquid outlet 15 via the output pump 7, and the water inlet 14 is connected to the water tank 2 via a water inlet pipe 16.

[0023] During operation, the user injects water into the water tank 2 through the water inlet 14, and the water flows into the water tank 2 for storage through the water inlet pipe 16. When ozone water needs to be generated, the water pump 5 is started to pump the water in the water tank 2 into the mixing tank 10. At the same time, the overpressure generator 4 starts working to generate ozone, and the air pump 6 pumps the ozone into the mixing tank 10. The motor 9 starts, driving the stirring paddle 12 to rotate inside the mixing tank 10, thoroughly mixing the water and ozone to form ozone water. The stirring process ensures that the ozone is evenly dispersed in the water, improving the stability and concentration of the ozone water.

[0024] After mixing, solenoid valve 13 opens, allowing ozone-rich water to flow from mixing tank 10 into storage tank 11 for temporary storage. Solenoid valve 13 then closes to prevent ozone escape. When the user needs ozone-rich water, output pump 7 is activated to pump the ozone-rich water from storage tank 11 to outlet 15 for external use. The entire device achieves a compact structural design by mounting water tank 2 at the bottom of casing 1 and installing other components on a support platform 3 on top of water tank 2, reducing overall size and making it suitable for space-constrained environments such as homes.

[0025] This embodiment, through its integrated design, avoids the need for an external pure water tank, simplifies the equipment structure, and enhances the mixing effect of ozone and water through the mechanical stirring method in the gas-liquid mixing device 8, thereby improving the stability and practicality of the ozone-rich water. The coordinated operation of all components ensures the efficient generation and convenient output of ozone-rich water, meeting the application needs of daily disinfection and sterilization.

[0026] Example 3:

[0027] In this embodiment, a water tank 2 is fixedly installed in the chassis 1. A support platform 3 is fixedly installed on the end face of the water tank 2. An overpressure generator 4, a water pump 5, an air pump 6, an output pump 7, and a gas-liquid mixing device 8 are fixedly installed on the support platform 3. The gas-liquid mixing device 8 includes a motor 9, a stirring tank 10, and a storage tank 11. A stirring paddle 12 is fixedly installed in the motor 9. The stirring tank 10 is fixedly connected to the storage tank 11 through a solenoid valve 13. The water tank 2 is connected to the stirring tank 10 through the water pump 5. The overpressure generator 4 is connected to the stirring tank 10 through the air pump 6. A water inlet 14 and a liquid outlet 15 are fixedly installed on the side of the chassis 1. The storage tank 11 is connected to the liquid outlet 15 through the output pump 7. The water inlet 14 is connected to the water tank 2 through a water inlet pipe 16. A roller 17 and a handle 18 are fixedly installed in the chassis 1. The roller 17 is installed at the four corners of the bottom of the chassis 1. The user pushes the chassis 1 to move by pushing it with the handle 18.

[0028] The working principle of the superoxide water generating device is as follows: First, water is injected into the water tank 2 through the water inlet 14. The water pump 5 is started to pump the water in the water tank 2 into the mixing tank 10 of the gas-liquid mixing device 8. At the same time, the overpressure generator 4 generates ozone, and the air pump 6 pumps the ozone into the mixing tank 10. The motor 9 is started to drive the stirring paddle 12 to rotate, so that the ozone and water in the mixing tank 10 are fully mixed to form superoxide water. Then, the solenoid valve 13 is opened to allow the superoxide water to flow into the storage tank 11 for temporary storage. The solenoid valve 13 is closed to prevent the superoxide water from flowing back or evaporating. When superoxide water is needed, the output pump 7 is started to pump the superoxide water from the storage tank 11 to the outlet 15 for the user to use.

[0029] This device effectively reduces its overall size by mounting the water tank 2 at the bottom of the chassis 1 and setting a support 3 on top of the water tank 2 to fix other components, making it suitable for space-constrained scenarios such as homes or small office environments. The design of casters 17 and handles 18 mounted at the four corners of the chassis 1 allows users to easily move the device without strenuous handling, improving ease of use and flexibility. The casters 17 ensure the stability and smoothness of the chassis 1 during movement, while the handles 18 provide comfortable push-pull operation points, further optimizing the user experience.

[0030] In this embodiment, the installation of the rollers 17 and handle 18 not only enhances the portability of the device but also allows it to adapt to various usage environments, such as moving between different rooms or repositioning after cleaning. This design is particularly suitable for applications requiring frequent adjustments to the device's position, while maintaining the device's compact structure and functionality. By integrating the moving components, this ozone generator improves practicality and user-friendliness while maintaining efficient ozone generation.

[0031] Example 4:

[0032] In this embodiment, a water tank 2 is fixedly installed in the chassis 1. A support platform 3 is fixedly installed on the end face of the water tank 2. An overpressure generator 4, a water pump 5, an air pump 6, an output pump 7, and a gas-liquid mixing device 8 are fixedly installed in the support platform 3. The gas-liquid mixing device 8 includes a motor 9, a stirring tank 10, and a storage tank 11. A stirring paddle 12 is fixedly installed in the motor 9. The stirring tank 10 is fixedly connected to the storage tank 11 via a solenoid valve 13. The water tank 2 is connected to the stirring tank 10 via the water pump 5. The overpressure generator 4 is connected to the stirring tank 10 via the air pump 6. A water inlet 14 and a liquid outlet 15 are fixedly installed on the side of the chassis 1. The storage tank 11 is connected to the liquid outlet 15 via the output pump 7. The water inlet 14 is connected to the water tank 2 via a water inlet pipe 16. In this device, a display 19 and a control keyboard 20 are fixedly installed in the chassis 1. The display 19 is used to display the device's operating status and parameters in real time. The control keyboard 20 is used for users to input operating commands and set parameters, realizing human-machine interaction. The display 19 typically uses an LCD screen and is installed on the front of the chassis 1 in a position that is easy to observe. The control keyboard 20 is integrated below or to the side of the display 19 and adopts a physical button or touch design. Users can set parameters such as the concentration of superoxide generated, working time, and output through the control keyboard 20. The display 19 simultaneously displays the set values ​​and actual operating data to ensure intuitive and convenient operation.

[0033] During the superoxide water generation process, the user inputs the required concentration and volume parameters of the superoxide water via the control keyboard 20. After starting the device, the water pump 5 pumps water from the water tank 2 into the mixing tank 10. Simultaneously, the overpressure generator 4 generates ozone, which is then pumped into the mixing tank 10 by the air pump 6. The motor 9 drives the stirring paddle 12 to rotate at high speed, ensuring thorough mixing of ozone and water within the mixing tank 10 to generate superoxide water. After mixing, the solenoid valve 13 opens, allowing the superoxide water to flow into the storage tank 11 for temporary storage. The solenoid valve 13 then closes to maintain the stability of the superoxide water. When the user needs to output superoxide water, the output pump 7 is activated via the control keyboard 20, pumping the superoxide water from the storage tank 11 to the outlet 15. During this process, the display 19 shows key parameters in real time, such as the water level in the water tank 2, ozone concentration, mixing time, and output flow rate. The user can adjust the operation based on the displayed information to ensure the quality and efficiency of superoxide water generation. The integrated design of the display 19 and the control keyboard 20 enhances the ease of operation and intelligence of the device, making it suitable for space-constrained environments such as homes and medical facilities.

[0034] In this embodiment, the display 19 and control keyboard 20 are fixedly installed in the chassis 1 using an embedded structure, ensuring a compact and aesthetically pleasing overall appearance while avoiding external protrusions that could occupy space or cause operational inconvenience. The display 19 is connected to the main control board via a data cable, receiving and displaying the operating data collected by the sensors. The control keyboard 20 transmits user commands to the main control board via a signal cable, controlling the coordinated operation of each component. This design allows users to monitor the superoxide water generation status in real time and flexibly adjust parameters as needed, meeting the personalized requirements of different application scenarios for superoxide water concentration and output. Furthermore, the addition of the display 19 and control keyboard 20 enhances the functionality and user experience of the device, enabling it not only to efficiently generate superoxide water but also to provide an intuitive operating interface and feedback mechanism, aligning with the trend of intelligent development in modern home appliances.

[0035] By integrating the display 19 and control keyboard 20, this ozone water generator achieves visualization and controllability of the operation process, allowing users to generate and use ozone water without relying on external equipment or complex operations. The display 19 can show error codes or maintenance prompts to help users handle abnormal situations promptly and extend the device's lifespan. The control keyboard 20 supports multiple mode selections, such as rapid disinfection mode, standard mode, and power-saving mode, which users can switch with a single key according to their actual needs, improving energy efficiency and applicability. Overall, this embodiment, while maintaining the advantages of device miniaturization, further solves the problems of inconvenient operation and insufficient feedback in existing technologies through enhanced human-machine interaction functions, thus broadening the application scope of ozone water generators.

[0036] Example 5:

[0037] In this embodiment, the chassis 1 is fixedly mounted with a safety door 22 via a hinge 21. The safety door 22 is designed to facilitate the inspection and maintenance of components inside the chassis 1, such as the water tank 2, support platform 3, overpressure generator 4, water pump 5, air pump 6, output pump 7, gas-liquid mixing device 8, motor 9, stirring tank 10, storage tank 11, solenoid valve 13, stirring paddle 12, water inlet 14, liquid outlet 15, and water inlet pipe 16. The safety door 22 is connected to one side of the chassis 1 via the hinge 21, allowing the door to be rotated open or closed, providing convenient access to the internal components. When maintenance or inspection of the device is required, the user only needs to open the safety door 22 to directly observe and operate the internal components without disassembling the entire chassis 1, thus simplifying the maintenance process and improving the usability and reliability of the device. This design is particularly suitable for home or small commercial environments where space is limited and users may not have the professional tools or skills for complex disassembly. The installation of the safety door 22 ensures the integrity of the chassis 1 while providing the necessary access, helping to extend the service life of the device and maintain its efficient operation.

[0038] During the superoxide water generation process, the device pumps water from the water tank 2 into the mixing tank 10 of the gas-liquid mixing device 8 via the water pump 5. Simultaneously, the overpressure generator 4 generates ozone, which is pumped into the mixing tank 10 by the air pump 6. After the motor 9 starts, it drives the stirring paddle 12 to rotate, thoroughly mixing the ozone and water in the mixing tank 10 to form stable superoxide water. Subsequently, the solenoid valve 13 opens, allowing the superoxide water to flow into the storage tank 11, and then closes to maintain the stability of the mixture. When superoxide water needs to be output, the output pump 7 is activated to pump the superoxide water to the outlet 15. The entire device has a compact structure; the water tank 2 is installed at the bottom of the casing 1, and a support platform 3 is provided on top to fix other components, thus optimizing space utilization and making it suitable for small-space scenarios. The presence of the safety door 22 further enhances the practicality of this compact design, allowing users to quickly make internal adjustments or troubleshoot when necessary without affecting the daily operation of the device.

[0039] It should be noted that, in this document, relational terms such as "first" and "second" are used only to distinguish one entity or operation from another, and do not necessarily require or imply any such actual relationship or order between these entities or operations. Furthermore, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes said element.

[0040] The above description is only used to illustrate the technical solution of this utility model and is not intended to limit it. Any other modifications or equivalent substitutions made by those skilled in the art to the technical solution of this utility model, as long as they do not depart from the spirit and scope of the technical solution of this utility model, should be covered within the scope of the claims of this utility model.

Claims

1. A superoxide water generating device, comprising a casing, characterized in that, A water tank is fixedly installed in the chassis. A support platform is fixedly installed on the end face of the water tank. An overpressure generator, a water pump, an air pump, an output pump, and a gas-liquid mixing device are fixedly installed on the support platform. The gas-liquid mixing device includes a motor, a stirring tank, and a storage tank. A stirring paddle is fixedly installed on the motor. The stirring tank is fixedly connected to the storage tank via a solenoid valve. The water tank is connected to the stirring tank via the water pump. The overpressure generator is connected to the stirring tank via the air pump. A water inlet and a liquid outlet are fixedly installed on the side of the chassis. The storage tank is connected to the liquid outlet via the output pump. The water inlet is connected to the water tank via a water inlet pipe.

2. The superoxide water generating device according to claim 1, characterized in that, The chassis is fixedly equipped with casters and handles.

3. The superoxide water generating device according to claim 1, characterized in that, The chassis is fixedly equipped with a monitor and a control keyboard.

4. The superoxide water generating device according to claim 1, characterized in that, The chassis is fixedly installed with a safety door via hinges.

Images