Ultrasonic humidification, purification and disinfection system and method

Abstract

An ultrasonic humidification, purification and disinfection system and method, wherein the ultrasonic humidification, purification and disinfection system comprises an ultrasonic atomization device, a mist guide pipe and a jet pressurization device; the ultrasonic atomization device is used for atomizing water and conveying the generated water mist to the mist guide pipe; one end of the mist guide pipe is communicated with the ultrasonic atomization device, and the generated water mist is guided out to the outside space through the other end of the mist guide pipe; the other end of the mist guide pipe is arranged in the jet pressurization device, and the jet pressurization device is used for generating airflow to pressurize and speed up the water mist guided out by the mist guide pipe. The water mist generated by the ultrasonic atomization device is guided out through the mist guide pipe, and the jet pressurization device generates airflow to pressurize and speed up the water mist guided out by the mist guide pipe, so as to increase the range of water mist spraying, improve the flow rate of the water mist, increase the evaporation speed of the water mist, avoid secondary air pollution, and also avoid the phenomenon that the water mist is condensed into small water droplets and then the humidification or disinfection is uneven, so that the user demand can be met and the user experience is high.

Description

Technical Field

[0001] This invention relates to the field of air treatment, and in particular to an ultrasonic humidification, purification and disinfection system and method. Background Technology

[0002] Ultrasonic atomization technology is a relatively mature technology that has been widely used in many fields. However, existing air handling equipment is too simple in its implementation and has limited functionality. The water mist spray has a short range, cannot evaporate quickly and fully, and easily condenses into small water droplets. This results in uneven humidification or disinfection, low efficiency, high energy consumption, and a drastic drop in effectiveness, leading to a poor user experience that cannot meet the needs of specific applications. Summary of the Invention

[0003] (I) Purpose of the Invention

[0004] The purpose of this invention is to provide an ultrasonic humidification, purification and disinfection system and method with a long water mist spray range, which facilitates rapid and complete evaporation and improves humidification and purification efficiency.

[0005] (II) Technical Solution

[0006] To address the aforementioned problems, the first aspect of this invention provides an ultrasonic humidification, purification, and disinfection system, comprising: an ultrasonic atomizing device, a mist guide tube, and a jet pressurizing device; the ultrasonic atomizing device is used to atomize water and deliver the generated water mist to the mist guide tube; one end of the mist guide tube is connected to the ultrasonic atomizing device, and the generated water mist is discharged to the external space through the other end of the mist guide tube; the jet pressurizing device is provided with the other end of the mist guide tube, and is used to generate airflow to pressurize and accelerate the water mist discharged from the mist guide tube.

[0007] Optionally, the jet booster device includes a fan chamber, a jet fan, and a jet booster chamber; the fan chamber is connected to the jet booster chamber; the jet fan is installed in the fan chamber; the fan is used to draw in air and cause the drawn-in air to flow into the jet booster chamber; the other end of the mist guide pipe is installed in the jet booster chamber, which is used to pressurize and accelerate the water mist discharged from the mist guide pipe by the airflow entering the jet booster chamber.

[0008] Optionally, the above-mentioned ultrasonic humidification, purification, and disinfection system further includes a water supply device; the water supply device is connected to the ultrasonic atomizing device and is used to supply water to the ultrasonic atomizing device; the ultrasonic atomizing device includes an atomizing box, an atomizing module, an axial flow fan, and a water mist separation wet membrane; the bottom plate of the atomizing box is provided with a water inlet connected to the water supply device for water intake; the atomizing module is disposed on the inner bottom plate plane of the atomizing box for atomizing water; the water mist separation wet membrane is disposed at the opening of the atomizing box; the upper part of the atomizing box is provided with a mist guide pipe interface for communication with the mist guide pipe; the axial flow fan is fixedly connected to the atomizing box and is used to generate a positive pressure airflow that intercepts and filters the water mist in the atomizing box through the water mist separation wet membrane and then delivers it to one end of the mist guide pipe through the mist guide pipe interface.

[0009] Optionally, the atomizing box is provided with a constant water level return port; the return port is set at a preset height in the atomizing box so that when the water level in the atomizing box is higher than the preset height, water flows out from the return port;

[0010] And / or,

[0011] A set of liquid level detection sensors is installed on the inner wall of the atomizing box to detect the water level inside the atomizing box.

[0012] Optionally, the water supply device includes a water tank, a water inlet pipe, a water pump, a drain valve, an inlet valve, a water purification filter assembly, and a mechanical float; the water tank is used for water storage; one end of the water inlet pipe is connected to the water pump, and the other end is connected to the atomizing box through a water inlet interface; the water pump is used to pump water from the water tank into the atomizing box through the water inlet pipe; the drain valve is fixedly connected to the water tank for draining water; the mechanical float is located on the upper part of the side wall of the water tank; the inlet valve is installed at the water inlet of the casing and connected to the inlet end of the water purification filter assembly; the outlet end of the water purification filter assembly is connected to the mechanical float.

[0013] Optionally, the ultrasonic humidification, purification, and disinfection system further includes a front door panel and a chassis that are movably connected to each other; a first housing is formed inside the chassis; an upward-opening panel that is movably connected to the chassis and the first housing together constitute the jet pressurization chamber; the upward-opening panel is located above the front door panel; the upward-opening panel is provided with a jet nozzle corresponding to the position of the mist guide pipe, so that water mist and airflow in the jet pressurization chamber are ejected; a jet guide ring is axially embedded on the circumference of the jet nozzle aperture to guide the water mist and airflow in the jet pressurization chamber to be ejected in a specified direction.

[0014] Optionally, the ultrasonic humidification, purification, and disinfection system described above also includes an air filter; the front door panel and the chassis together constitute an air purification chamber; the front door panel is provided with an air inlet; the air filter is located after the air inlet to filter the air entering the air purification chamber.

[0015] Optionally, the ultrasonic humidification, purification, and disinfection system described above also includes an electrical installation panel; the electrical installation panel is located in the air purification chamber and in the middle of the rear wall of the chassis, serving to provide physical support for the installation of electrical components with the required functions.

[0016] Optionally, the ultrasonic humidification, purification, and disinfection system described above also includes a micro-electrostatic purification and disinfection module, which consists of a field electric module that generates high-voltage static electricity and a micro-electrostatic dust accumulation module. The micro-electrostatic purification and disinfection module is located at the upper end of the air purification chamber and is used to collect bacteria, microorganisms, etc. attached to particulate matter when the airflow passes through and kill them in a strong electric field.

[0017] The second aspect of the present invention provides an ultrasonic humidification, purification and disinfection method, which uses an ultrasonic humidification, purification and disinfection system as provided in the first aspect of the present invention to humidify, purify and disinfect the air.

[0018] (III) Beneficial Effects

[0019] The above-described technical solution of the present invention has the following beneficial technical effects:

[0020] The ultrasonic humidification, purification, and disinfection system provided by this invention delivers water mist generated by the ultrasonic atomizing device through a mist guide tube, and pressurizes and accelerates the water mist delivered through the mist guide tube by generating airflow through a jet pressurization device. This increases the spray range of the water mist, improves the flow rate of the water mist, and increases the evaporation rate of the water mist, avoiding secondary air pollution and preventing the water mist from condensing into small water droplets, thus avoiding uneven humidification or disinfection. This system can meet user needs and provides a high-quality user experience.

[0021] The ultrasonic humidification, purification and disinfection system provided by this invention is a multi-functional integrated machine that humidifies, purifies and disinfects the air, which can solve the user's air needs in one machine and provide a high user experience.

[0022] The ultrasonic humidification, purification, and disinfection system provided by this invention has a return water inlet in the atomizing box, which allows excess water to flow away from the return water inlet, ensuring a constant atomization water level. This allows the atomizing module to atomize stably at the optimal water level, significantly improving atomization efficiency.

[0023] The electrical installation panel of the ultrasonic humidification, purification and disinfection system provided by this invention is located in the air purification chamber. The airflow flowing through the purification chamber can carry away the heat generated by the electrical components, reducing the probability of malfunctions caused by heat during operation. Attached Figure Description

[0024] Figure 1 This is a schematic diagram of the overall orthographic structure of the ultrasonic humidification, purification and disinfection system provided in the first embodiment of the present invention;

[0025] Figure 2 This is an exploded structural diagram of the ultrasonic humidification, purification, and disinfection system provided in the first embodiment of the present invention;

[0026] Figure 3 This is a perspective view of the ultrasonic humidification, purification, and disinfection system provided in the first embodiment of the present invention.

[0027] Figure label:

[0028] 100: Mist guide tube;

[0029] 210: Fan room; 220: Jet fan; 230: Jet pressurization chamber;

[0030] 310: Atomizing box; 311: Water return port; 312: Liquid level sensor; 320: Atomizing module; 330: Axial flow fan; 340: Water mist separation wet film; 350: Tray; 360: Mist guide tube interface

[0031] 410: Water tank; 420: Water inlet pipe; 430: Water pump; 440: Drain valve; 450: Inlet valve; 460: Water filter cartridge assembly; 470: Mechanical float; 480: Return water pipe; 490: Water inlet;

[0032] 500: Front door panel; 510: Air intake; 520: Air filter;

[0033] 600: Chassis; 610: Electrical installation panel; 620: Air purification chamber; 630: Rear cover; 640: Fresh air chamber; 650: Fresh air inlet;

[0034] 700: Upward-opening panel; 710: Jet nozzle;

[0035] 800: Micro-electrostatic purification and disinfection module;

[0036] 900: Controller. Detailed Implementation

[0037] To make the objectives, technical solutions, and advantages of this invention clearer, the invention will be further described in detail below with reference to specific embodiments and the accompanying drawings. It should be understood that these descriptions are merely exemplary and not intended to limit the scope of the invention. Furthermore, descriptions of well-known structures and techniques are omitted in the following description to avoid unnecessarily obscuring the concept of the invention.

[0038] The accompanying drawings illustrate a layer structure according to an embodiment of the present invention. These drawings are not to scale, and some details have been enlarged for clarity, and some details may have been omitted. The shapes of the various regions and layers shown in the drawings, as well as their relative sizes and positional relationships, are merely exemplary and may deviate from reality due to manufacturing tolerances or technical limitations. Furthermore, those skilled in the art can design regions / layers with different shapes, sizes, and relative positions as needed.

[0039] Obviously, the described embodiments are only some, not all, of the embodiments of the present invention. All other embodiments obtained by those skilled in the art based on the embodiments of the present invention without inventive effort are within the scope of protection of the present invention.

[0040] In the description of this invention, it should be noted that the terms "first," "second," and "third" are used for descriptive purposes only and should not be construed as indicating or implying relative importance.

[0041] Furthermore, the technical features involved in the different embodiments of the present invention described below can be combined with each other as long as they do not conflict with each other.

[0042] Ultrasonic atomization technology is a relatively mature technology that has been widely used in many fields. In the field of air treatment technology, there are many types of air treatment equipment designed using the principles of ultrasonic atomization, with ultrasonic humidifiers, ultrasonic sterilizers, and integrated ultrasonic humidification and purification machines being typical examples on the market.

[0043] The existing air handling equipment designed using the aforementioned technical principles is too simplistic and lacks functionality. Its main shortcomings can be summarized as follows: First, due to limitations imposed by structural principles and other factors, the effective atomization rate of ultrasonic water mist is low, resulting in high energy loss and increased power consumption. Second, the water mist spray range is short, preventing rapid and complete evaporation, and easily condensing into small water droplets. This leads to uneven humidification or disinfection, resulting in a drastically reduced effectiveness and a poor user experience, failing to meet the needs of specific locations. Third, the lack of effective air purification means that while spraying water mist, harmful substances such as dust are drawn into the equipment and mixed with the water mist before being expelled, causing invisible secondary pollution.

[0044] First Implementation Method

[0045] See Figures 1 to 3The first embodiment of the present invention provides an ultrasonic humidification, purification and disinfection system, including: an ultrasonic atomizing device, a mist guide tube 100 and a jet pressurizing device; the ultrasonic atomizing device is used to atomize water and deliver the generated water mist to the mist guide tube 100; one end of the mist guide tube 100 is connected to the ultrasonic atomizing device, and the generated water mist is discharged to the outside space through the other end of the mist guide tube 100; the jet pressurizing device is provided with the other end of the mist guide tube 100, and is used to generate airflow to pressurize and accelerate the water mist discharged from the mist guide tube 100.

[0046] The ultrasonic humidification, purification, and disinfection system provided in this embodiment delivers water mist generated by the ultrasonic atomizing device through the mist guide tube 100. An airflow is generated by the jet pressurization device to pressurize and accelerate the water mist delivered through the mist guide tube 100, thereby increasing the spray range, improving the flow rate of the water mist, and increasing the evaporation rate of the water mist. This avoids secondary air pollution and prevents the water mist from condensing into small droplets, which could lead to uneven humidification or disinfection. It meets user needs and provides a high-quality user experience.

[0047] In addition, the aforementioned ultrasonic humidification, purification and disinfection system may also include a water supply device; the water supply device is connected to the ultrasonic atomizing device and is used to supply water to the ultrasonic atomizing device.

[0048] See Figure 2 and Figure 3 In an optional embodiment, the jet booster device includes a fan chamber 210, a fan, and a jet booster chamber 230; the fan chamber 210 is connected to the jet booster chamber 230; a jet fan 220 is provided in the fan chamber 210; the jet fan 220 is used to draw in air and make the drawn-in air flow into the jet booster chamber 230; the other end of the mist guide pipe 100 is provided in the jet booster chamber 230, which is used to pressurize and accelerate the water mist discharged by the mist guide pipe 100 by the airflow entering the jet booster chamber 230.

[0049] See Figure 2 and Figure 3In one optional embodiment, the ultrasonic atomizing device includes an atomizing box 310, an atomizing module 320, an axial flow fan 330, and a water mist separation wet membrane 340. The bottom plate of the atomizing box 310 is provided with a water inlet connected to a water supply device for water intake. The atomizing module 320 is disposed on the inner bottom plate plane of the atomizing box 310 for atomizing water. The water mist separation wet membrane 340 is disposed at the opening of the atomizing box 310. The upper part of the atomizing box 310 is provided with a mist guide pipe interface 360 ​​for communication with the mist guide pipe 100. The axial flow fan 330 is fixedly connected to the atomizing box 310, and the positive pressure airflow generated by it intercepts and filters the water mist in the atomizing box 310 through the water mist separation wet membrane 340, and then transports it to one end of the mist guide pipe 100 through the mist guide pipe interface 360. The function of the water mist separation wet membrane 340 is to intercept water droplets, allowing the water mist to enter the mist guide pipe 100 and be further transported to the outside space.

[0050] In a further optional embodiment, a constant water level return port 311 is provided inside the atomizing box 310. The return port 311 is set at a preset height inside the atomizing box 310 so that when the water level inside the atomizing box 310 exceeds the preset height, water flows out from the return port 311. A set of liquid level detection sensors 312 is provided on the inner side wall of the atomizing box 310 to detect the water level inside the atomizing box 310. Specifically, the system also provides a return water pipe 480, which is connected to the return water port 311, to discharge water exceeding the predetermined water level under the action of gravity, for example, into the water tank 410 for secondary use. This water supply method ensures a constant atomization water level, so that the atomizing module 320 can stably atomize at the optimal water level, significantly improving atomization efficiency. In addition, the liquid level detection sensors 312 also play a role in forcibly limiting the maximum water level, providing secondary safety protection.

[0051] See Figure 2 and Figure 3 In one optional embodiment, the water supply device includes a water tank 410, a water inlet pipe 420, a water pump 430, a drain valve 440, an inlet valve 450, a water purification filter assembly 460, and a mechanical float 470. The water tank 410 is used for water storage. One end of the water inlet pipe 420 is connected to the water pump 430, and the other end is connected to the atomizing box 310 through a water inlet interface. The water pump 430 is used to pump water from the water tank 410 into the atomizing box 310 through the water inlet pipe 420. The drain valve 440 is fixedly connected to the water tank 410 for draining water. The mechanical float 470 is located on the upper side wall of the water tank 410. The inlet valve 450 is installed at the water inlet 490 of the casing and connected to the inlet end of the water purification filter assembly 460. The outlet end of the water purification filter assembly 460 is connected to the mechanical float 470, and the water supply stops when the water is full, thus forming a fully functional water supply guarantee system. The water pump 430 is preferably a silent water pump 430 to reduce noise during machine operation. The inlet valve 450 is generally an inlet solenoid valve.

[0052] In an optional embodiment, the ultrasonic humidification, purification, and disinfection system further includes a front door panel 500 and a chassis 600 that are movably connected to each other; a first housing is formed inside the chassis 600; an upper-flip panel 700 that is movably connected to the chassis 600 and the first housing together constitute a jet pressurization chamber 230; the upper-flip panel 700 is located above the front door panel 500; a jet port 710 corresponding to the position of the mist guide pipe 100 is provided on the upper-flip panel 700 so that water mist and airflow in the jet pressurization chamber 230 are ejected; a jet port guide ring is axially embedded on the circumference of the jet port 710 to guide the water mist and airflow in the jet pressurization chamber 230 to be ejected in a specified direction.

[0053] In an optional embodiment, the ultrasonic humidification, purification and disinfection system further includes an air filter 520; the front door panel 500 and the chassis 600 together constitute an air purification chamber 620; the front door panel 500 is provided with an air inlet 510; the air filter 520 is disposed after the air inlet 510 to filter the air entering the air purification chamber 620.

[0054] In an optional embodiment, the ultrasonic humidification, purification and disinfection system further includes an electrical installation panel 610; the electrical installation panel 610 is disposed inside the air purification chamber 620 and is located in the middle of the rear wall of the chassis 600, for providing physical support for the installation of electrical components with the required functions.

[0055] In an optional embodiment, the ultrasonic humidification, purification and disinfection system further includes a micro-electrostatic purification and disinfection module 800, which consists of a field electric module that generates high-voltage static electricity and a micro-electrostatic dust accumulation module. The micro-electrostatic purification and disinfection module 800 is disposed at the upper end of the air purification chamber 620 and is used to collect bacteria, microorganisms and other particles attached to particulate matter and kill them in a strong electric field when the airflow passes through it.

[0056] In an optional embodiment, the ultrasonic humidification, purification and disinfection system further includes a fresh air chamber 640, which is located on the rear wall of the housing 600 adjacent to the water tank 410. The fresh air chamber 640 has a fresh air inlet 650 at its inlet to facilitate the introduction of external fresh air into the system. The fresh air chamber 640 has an air purification filter at its outlet to effectively ensure the cleanliness of the introduced fresh air.

[0057] In an optional embodiment, the ultrasonic humidification and disinfection system further includes a controller 900, which includes an MCU microprocessor, a touch screen, and a data storage unit. The controller 900 is connected to a temperature and humidity sensor (not shown), a particulate matter concentration sensor (not shown), a leak detection sensor (not shown), and a set of 312 liquid level sensors. These input sensors send the collected signals to the controller 900 in real time. Based on this, the controller 900 outputs corresponding control logic signals to the relay output control unit according to the set logic program. The controlled objects, such as the jet fan 220, the inlet valve 450, the water pump 430, the micro-electrostatic purification and disinfection module 800, the atomizer, and the fan, are connected to their respective interfaces on the relay output unit. Under the unified control of the controller 900, the machine operates safely, reliably, and automatically. The touch screen interface also allows for real-time viewing or adjustment of the operating status.

[0058] The following section uses an ultrasonic humidification, purification, and disinfection system, specifically a jet-type ultrasonic humidification, purification, and disinfection cabinet-style integrated machine, as an example to explain in detail the relationship between the components and the operating principle.

[0059] See Figures 1 to 3 The jet-type ultrasonic humidification, purification, and disinfection cabinet-style integrated machine is arranged from bottom to top as follows: water tank 410, fresh air chamber 640, electrical installation panel 610, micro-electrostatic purification and disinfection module 800, atomization box 310, fan chamber 210, jet fan 220, and jet pressurization chamber 230 formed by the sealed assembly of upper flip panel 700 and chassis 600. The air purification chamber 620 is formed by the sealed assembly of front door panel 500 and chassis 600.

[0060] The front door panel 500 has louvered air inlets 510 arranged in an equal-spaced array from bottom to top on its lower front area to ensure smooth airflow through the air filter 520; a controller 900 is located in the upper front area; slots are provided on the inner side of the louvered air inlets 510 arranged in an equal-spaced array on the lower front area for installing the air filter 520, and the extra-large area air filter 520 effectively ensures the purification capacity of the air; three sets of detachable plate hinges are provided on one side of the front door panel 500, and the front door panel 500 is assembled and connected to the chassis 600 through the three sets of detachable plate hinges to achieve a large-angle left and right opening and closing movement, which facilitates daily cleaning and maintenance, and also facilitates the periodic manual replenishment of water tank 410 during use.

[0061] The upper panel 700 has two sets of detachable hinges on its upper end face. The upper panel 700 is assembled and connected to the chassis 600 through the two sets of detachable hinges to achieve a large-angle up-and-down flipping movement, which facilitates maintenance. The front area is provided with 15 jet ports 710 with a specific aperture equidistant array. A jet port guide ring is axially embedded on the circumference of the aperture of each jet port 710 to guide the high-speed airflow generated in the jet pressurization chamber 230 out in a specific direction.

[0062] During operation, a silent water pump 430 installed in the water tank 410 draws water from the tank 410 into the atomizing box 310 via the water inlet pipe 420. Once the water in the atomizing box 310 has submerged the sensing bulb of the atomizing module 320, the atomizing module 320 begins to emit mist. The positive pressure airflow generated by the axial flow fan 330 continuously delivers the water mist emitted by the atomizing module 320 into the mist guide pipe 100 through the mist guide pipe interface 360. Simultaneously, the jet fan 220 starts working, further... Air from outside the jet-type ultrasonic humidification, purification, and disinfection cabinet is drawn into the machine through the air inlet 510 on the front door panel 500. It then flows through the air filter 520 and the micro-electrostatic purification and disinfection module 800. At this point, all the clean air is gathered in the jet pressurization chamber 230. Since the mist guide pipe 100 is located in the jet pressurization chamber 230, the high-speed airflow generated by the jet fan 220 can push the water mist output by the mist guide pipe 100 out of the jet port 710.

[0063] Furthermore, the water tank 410 is located at the lowest position inside the casing 600: the casing of the water tank 410 is welded from stainless steel; the silent water pump 430 is located on the inner bottom plate of the water tank 410; a set of liquid level detection sensors 312 are installed on one inner side wall of the water tank 410, arranged in order from low to high to form a water level monitoring device for low water level detection, full water level detection, and high water level detection; a drain valve 440 is located at the lower end of the front side wall of the water tank 410, which is used for draining water after periodic cleaning of the water tank 410; the water purification filter cartridge 460 is located at the drain valve 440. Above the 40, the internal space is utilized efficiently. The water filter cartridge 460 is connected in series in the water supply pipeline to intercept and filter potentially harmful substances in the water source, ensuring the cleanliness of the atomized water mist. A mechanical float 470 is positioned on the upper side wall of the water tank 410. The inlet solenoid valve is located on the lower side wall of the casing 600. The outlet of the inlet solenoid valve is connected to the inlet of the water filter cartridge 460 via a pipeline, and the outlet of the water filter cartridge 460 is connected to the mechanical float 470. Water intake stops when the tank is full. This constitutes a complete water supply guarantee system. Full water level represents the normal water level, and high water level represents an abnormal water level.

[0064] The fresh air chamber 640 is located on the rear wall of the chassis 600, close to the upper opening of the water tank 410. The inlet of the fresh air chamber 640 is equipped with a Φ75 interface for easy external piping. The outlet of the fresh air chamber 640 is equipped with an air purification filter (not shown in the figure) to effectively ensure the cleanliness of the introduced fresh air.

[0065] Furthermore, the electrical mounting panel 610 is located in the middle of the rear wall of the chassis 600. The function of the electrical mounting panel 610 is to provide physical support for the installation of electrical components with the required functions. The electrical mounting panel 610 and the rear wall of the chassis 600 are installed in a detachable manner, which is reasonable and convenient for installation and maintenance. From the overall structural layout, the electrical mounting panel 610 is located in the air purification chamber 620. The airflow through the purification chamber can carry away the heat generated by the electrical components, reducing the probability of failure due to heat during operation.

[0066] Furthermore, the micro-electrostatic purification and disinfection module 800 is located in the upper middle part of the chassis 600. The micro-electrostatic purification and disinfection module 800 consists of two parts: a field electric module that generates high-voltage static electricity and a micro-electrostatic dust accumulation module (not shown separately in the figure). The micro-electrostatic purification and disinfection module 800 is located at the upper end of the air purification chamber 620. When the airflow passes through, it can collect bacteria, microorganisms, etc. attached to particulate matter and kill them in a strong electric field, thereby achieving the purpose of purification and disinfection.

[0067] Furthermore, the atomizing box 310 is located in the upper middle part of the casing: the body of the atomizing box 310 is welded from stainless steel; two sets of atomizing modules 320 are arranged on the inner bottom plate of the atomizing box 310; a constant water level return port 311 and a water inlet interface (not shown in the figure) for connecting the water inlet pipe 420 are provided on the bottom plate of the atomizing box 310; one end of the return pipe 480 is connected to the constant water level return port 311, and the other end of the return pipe 480... One end is placed in the water tank 410. One end of the water inlet pipe 420 is connected to the water inlet interface (not shown in the figure), and the other end of the water inlet pipe 420 is connected to the outlet of the water pump 430 in the water tank 410. During operation, when the water level in the atomizing box 310 is higher than the constant water level return port 311, the water in the atomizing box 310 will flow back to the water tank 410 through the return pipe 480 under the action of gravity. This water supply method ensures a constant atomizing water level, enabling atomization... Module 320 maintains stable atomization at the optimal water level, significantly improving atomization efficiency. A set of liquid level detection sensors 312 is also installed on the inner wall of the atomization box 310, which serves to forcibly limit the maximum water level and provides secondary safety assurance. The axial flow fan 330 is installed on the inclined wall of the atomization box 310, and the water mist separation wet membrane 340 is installed at the opening of the atomization box 310. Five sets of mist guide pipe interfaces 360 are equidistantly distributed on the top cover of the atomization box 310. The top cover of the atomization box 310 (not shown separately in the figure) and the atomization box 310 are assembled in a detachable manner. Five sets of mist guide pipes 100 are installed at the positions of the mist guide pipe interfaces 360 on the top of the atomization box 310. During operation, the positive pressure airflow generated by the axial flow fan 330 intercepts and filters the water mist in the atomization box 310 through the water mist separation wet membrane 340 and then sends it out of the atomization box 310 along the mist guide pipe interfaces 360 and the mist guide pipes 100.

[0068] Furthermore, the jet fan 220 is installed in the fan chamber 210 of the casing 600. The jet fan 220, located in the fan chamber 210, generates powerful airflow, drawing in outside air. The clean air inside the machine converges in the jet pressurization chamber 230 along a pre-designed airflow channel. This high-speed airflow further pressurizes and accelerates the water mist delivered by the mist guide pipe 100, propelling the water mist out of the jet outlet 710. This cleverly solves the technical defects of the existing technology, such as the limited spray range of the water mist. It increases the spray range, improves the flow rate of the water mist, and increases the evaporation rate of the water mist, avoiding secondary air pollution and preventing the water mist from condensing into small droplets, thus avoiding uneven humidification or disinfection. This meets user needs and provides a superior user experience. The rear of the casing 600 is equipped with a removable rear cover 630 for easy maintenance of the jet fan 220 and the axial flow fan 330. The atomizing box 310 is mounted on the tray 350.

[0069] Second Implementation Method

[0070] The second embodiment of the present invention provides an ultrasonic humidification, purification and disinfection method, which uses an ultrasonic humidification, purification and disinfection system as provided in the first embodiment of the present invention to humidify, purify and disinfect the air.

[0071] The similarities between this embodiment and the first embodiment will not be elaborated here.

[0072] This invention aims to protect an ultrasonic humidification, purification, and disinfection system and method. The ultrasonic humidification, purification, and disinfection system includes: an ultrasonic atomizing device, a mist guide tube 100, and a jet pressurizing device. The ultrasonic atomizing device atomizes water and delivers the generated water mist to the mist guide tube 100. One end of the mist guide tube 100 is connected to the ultrasonic atomizing device, and the generated water mist is discharged to the outside space through the other end of the mist guide tube 100. The jet pressurizing device contains the other end of the mist guide tube 100 and generates airflow to pressurize and accelerate the water mist discharged from the mist guide tube 100. By discharging the water mist generated by the ultrasonic atomizing device through the mist guide tube 100 and pressurizing and accelerating the water mist discharged from the mist guide tube 100 through the airflow generated by the jet pressurizing device, the spray range of the water mist is increased, the flow rate of the water mist is improved, and the evaporation rate of the water mist is increased. This avoids secondary air pollution and also prevents the water mist from condensing into small water droplets, thus preventing uneven humidification or disinfection. This meets user needs and provides a high-quality user experience.

[0073] Furthermore, the ultrasonic humidification, purification, and disinfection system of the present invention is a multi-functional integrated machine that humidifies, purifies, and disinfects air, which can meet the user's air needs in one machine and provides a high-quality user experience.

[0074] The ultrasonic humidification, purification and disinfection system provided by the present invention has a return water inlet 311 in the atomizing box 310, so that excess water flows away from the return water inlet 311, ensuring a constant atomization water level, and enabling the atomizing module 320 to atomize stably at the optimal water level, which significantly improves atomization efficiency.

[0075] The electrical installation panel 610 of the ultrasonic humidification, purification and disinfection system provided by the present invention is located in the air purification chamber 620. The airflow flowing through the air purification chamber 620 can carry away the heat generated by the electrical components, reducing the probability of failure due to heat during operation.

[0076] The ultrasonic humidification, purification, and disinfection method provided by this invention uses the above-mentioned ultrasonic humidification, purification, and disinfection to humidify and purify the air, and also has the above-mentioned advantages.

[0077] It should be understood that the specific embodiments described above are merely illustrative or explanatory of the principles of the invention and do not constitute a limitation thereof. Therefore, any modifications, equivalent substitutions, improvements, etc., made without departing from the spirit and scope of the invention should be included within the protection scope of the invention. Furthermore, the appended claims are intended to cover all variations and modifications falling within the scope and boundaries of the appended claims, or equivalent forms of such scope and boundaries.

Claims

1. An ultrasonic humidification, purification, and disinfection system, characterized in that, include: The ultrasonic atomizing device, the mist guide tube (100), the jet booster and the water supply device, and also include a front door panel (500) and a chassis (600) that are movably connected to each other; The ultrasonic atomizing device is used to atomize water and deliver the generated water mist to the mist guide tube (100). One end of the mist guide tube (100) is connected to the ultrasonic atomizing device, and the generated water mist is discharged to the outside space through the other end of the mist guide tube (100). The jet booster device includes a fan chamber (210), a jet fan (220), and a jet booster chamber (230). The fan chamber (210) is connected to the jet booster chamber (230); The jet fan (220) is installed inside the fan room (210); The jet fan (220) is used to draw in air and cause the drawn-in air to flow into the jet pressurization chamber (230). The other end of the mist guide tube (100) is provided in the jet pressurization chamber (230) for pressurizing and accelerating the water mist discharged from the mist guide tube (100) by the airflow entering the jet pressurization chamber (230); The water supply device is connected to the ultrasonic atomizing device and is used to supply water to the ultrasonic atomizing device. The ultrasonic atomizing device includes an atomizing box (310), an atomizing module (320), an axial flow fan (330), and a water mist separation wet membrane (340). The bottom plate of the atomizing box (310) is provided with a water inlet that is connected to the water supply device for water intake; The atomizing module (320) is disposed on the inner bottom plate of the atomizing box (310) and is used to atomize water; The water mist separation wet membrane (340) is disposed at the opening of the atomizing box (310); The upper part of the atomizing box (310) is provided with a mist guide pipe interface (360) to communicate with the mist guide pipe (100); The axial flow fan (330) is fixedly connected to the atomizing box (310) to generate positive pressure airflow. The water mist in the atomizing box (310) is intercepted and filtered by the water mist separation wet membrane (340) and then transported to one end of the mist guide pipe (100) through the mist guide pipe interface (360). The water supply device includes a water tank (410), a water inlet pipe (420), a water pump (430), a drain valve (440), an inlet valve (450), a water purification filter cartridge (460), and a mechanical float (470). The water tank (410) is used for water storage; One end of the water supply pipe (420) is connected to the water pump (430), and the other end is connected to the atomizing box (310) through the water supply interface; The water pump (430) is used to pump water from the water tank (410) into the atomizing box (310) through the water inlet pipe (420); The drain valve (440) is fixedly connected to the water tank (410) and is used for draining water; The mechanical float (470) is located at the upper position on the side wall of the water tank (410); The inlet valve (450) is installed at the inlet (490) of the housing (600) and connected to the inlet end of the water purification filter cartridge (460); The outlet end of the water purification filter cartridge (460) is connected to the mechanical float (470).

2. The ultrasonic humidification, purification, and disinfection system according to claim 1, characterized in that, The atomizing box (310) is provided with a constant water level return port (311); the return port (311) is set at a preset height in the atomizing box (310) so that when the water level in the atomizing box (310) is higher than the preset height, water flows out from the return port (311); And / or, A set of liquid level detection sensors (312) is provided on the inner wall of the atomizing box (310) to detect the water level in the atomizing box (310).

3. The ultrasonic humidification, purification, and disinfection system according to claim 1, characterized in that, A first enclosure is formed inside the chassis (600); The flip-up panel (700) movably connected to the chassis (600) together with the first chassis constitutes the jet pressurization chamber (230). The flip-up panel (700) is located above the front door panel (500); The upturned panel (700) is provided with a jet port (710) corresponding to the position of the mist guide pipe (100) so that water mist and airflow in the jet pressurization chamber (230) can be ejected. A jet guide ring is axially embedded on the circumference of the jet port (710) to guide the water mist and the airflow in the jet pressurization chamber (230) out in a specified direction.

4. The ultrasonic humidification, purification, and disinfection system according to claim 3, characterized in that, It also includes an air filter (520); The front door panel (500) and the chassis (600) together constitute an air purification chamber; The front door panel (500) is provided with an air inlet (510); The air filter (520) is located after the air inlet (510) to filter the air entering the air purification chamber.

5. The ultrasonic humidification, purification, and disinfection system according to claim 4, characterized in that, It also includes an electrical installation panel (610); The electrical installation panel (610) is located in the air purification chamber and is located in the middle of the rear wall of the chassis (600) to provide physical support for the installation of electrical components.

6. The ultrasonic humidification, purification, and disinfection system according to claim 4, characterized in that, It also includes a micro-electrostatic purification and disinfection module (800), which consists of an electric field module that generates high-voltage static electricity and a micro-electrostatic dust accumulation module. The micro-electrostatic purification and disinfection module (800) is located at the upper end of the air purification chamber and is used to collect bacteria and microorganisms attached to particulate matter and kill them in a strong electric field when the airflow passes through.

7. An ultrasonic humidification, purification, and disinfection method, characterized in that, The ultrasonic humidification, purification, and disinfection system as described in any one of claims 1-6 is used to humidify, purify, and disinfect the air.

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