High-efficiency blue oxygen washing and protecting instrument

Abstract

The utility model relates to high -efficient blue oxygen washes and protects appearance, including ultrasonic atomization jar, oxygen generating device, ozone generator, water inlet mechanism, liquid discharge mechanism and output mechanism. Ultrasonic atomization jar includes jar body. Oxygen generating device provides oxygen for ozone generator through pipeline A, and ozone generator provides ozone for the input of jar body through pipeline B, and water inlet mechanism includes the infusion tube who links with jar body bottom and filter, water inlet valve and pressure reducing valve who are connected in series on infusion tube, and pressure reducing valve is located between jar body and water inlet valve. Output mechanism includes the output pipe who links with the output of jar body, and the exhaust pipe who links with filter, and water outlet valve and venturi who are connected in series on exhaust pipe, and the output pipe communicates with the suction port of venturi. Ozone and water form ozone water mist rich in ozone through ultrasonic atomization jar, and ozone water mist and the water flow of exhaust pipe form ozone water rich in ozone through venturi high -efficient mixing. It is favorable to the mixing efficiency of low high ozone in water.

Description

Technical Field

[0001] This utility model relates to the field of blue oxygen shampoo and conditioner technology, and in particular to a high-efficiency blue oxygen shampoo and conditioner. Background Technology

[0002] Blue oxygen cleaning and care device is a household appliance that uses the properties of active oxygen to clean and disinfect. By generating a high concentration of active oxygen gas, it can effectively remove bacteria, viruses, odors and other pollutants from fabrics such as clothes and bedding. This technology is generally considered to be environmentally friendly and efficient because it does not require the use of chemical detergents, reducing the burden on the environment, and is a better choice for those who are allergic or sensitive to traditional detergents.

[0003] The controller in a blue oxygen shampoo and shower device is electrically connected to an air compressor, oxygen generator, ozone generator, ultrasonic generator, liquid level sensor, and valves. However, traditional blue oxygen shampoo and shower devices have the following problems during operation: When the oxygen concentrator stops, there is a high pressure at its air inlet. It takes a long time for the pressure at the oxygen concentrator's air inlet to return to the ambient air pressure level. The air compressor cannot start under load. In other words, when there is a high pressure at the air compressor's output port, the air compressor cannot start directly. If the air compressor is directly connected to the oxygen generator, once the air compressor stops, it needs to wait for the pressure at the oxygen generator's air inlet to be released before the air compressor can start normally. Therefore, it takes a long time to restart the air compressor. If the air compressor starts frequently, it can easily shorten the life of the air compressor. The molecular sieves inside an oxygen concentrator also have a limited lifespan. If the air compressor is constantly in operation, the molecular sieves in the oxygen concentrator will remain in operation, wasting their lifespan.

[0004] Existing technology uses a single liquid level sensor to measure the liquid level. When the water level is too high, manual drainage is required, which is cumbersome.

[0005] Existing blue oxygen shampoo and conditioner devices require a dedicated drain pipe for the ultrasonic atomizing tank, resulting in a complex piping system.

[0006] In existing technologies, ozone gas is directly mixed with the flowing water in the outlet pipe to prepare ozone water, but the ozone dissolution is small and the mixing efficiency is low. Utility Model Content

[0007] The purpose of this invention is to provide a high-efficiency blue oxygen shampoo and conditioner with high mixing efficiency.

[0008] To achieve the above objectives, the present invention provides the following technical solution.

[0009] This high-efficiency blue oxygen shampoo and wash device includes an ultrasonic atomizing tank, an oxygen generator, an ozone generator, a water inlet mechanism, a drain mechanism, and an output mechanism. The ultrasonic atomizing tank consists of a tank body. The oxygen generator supplies oxygen to the ozone generator via pipe A, and the ozone generator supplies ozone to the tank's inlet via pipe B. The water inlet mechanism includes a delivery pipe connected to the bottom of the tank body and a filter, an inlet valve, and a pressure reducing valve connected in series on the delivery pipe. The pressure reducing valve is located between the tank body and the inlet valve. The output mechanism includes an output pipe connected to the tank body's output port, a discharge pipe connected to the filter, an outlet valve, and a venturi tube connected in series on the discharge pipe. The output pipe is connected to the venturi tube's inlet.

[0010] Therefore, ozone and water are atomized in an ultrasonic atomizing chamber to form ozone-rich water mist. The ozone water mist and water from the discharge pipe are then efficiently mixed in a venturi tube to form ozone-rich water. This process is beneficial for the mixing efficiency of low and high ozone in water.

[0011] Furthermore, the ultrasonic atomizing tank also includes an ultrasonic generator arranged on the bottom wall of the tank body and a liquid level sensor arranged inside the tank body. The drainage mechanism includes a drainage pipe, a drainage pump connected in series with the drainage pipe, and a drainage valve, and the drainage pipe is connected to the infusion pipe.

[0012] This solution uses a shared pipeline for both water supply and drainage, saving materials and eliminating the need for a separate drainage pipe, thus saving manufacturing time and costs. In addition, the infusion pipe is connected to the bottom of the tank, which facilitates the emptying of the liquid inside the tank, ensuring that there is not too much liquid left in the tank, achieving a good self-cleaning function, which facilitates improved maintenance efficiency and quality, and is convenient to use.

[0013] Furthermore, the connection point between the drain pipe and the infusion pipe is located between the inlet valve and the tank body.

[0014] Furthermore, the liquid level sensor is a dual liquid level sensor, with an upper liquid level float at the top and a lower liquid level float at the bottom.

[0015] Furthermore, the oxygen generating device includes an air compressor and a molecular sieve oxygen generator connected in series on pipe A, as well as a two-position three-way valve connected in series on pipe A between the air compressor and the molecular sieve oxygen generator.

[0016] Furthermore, a liquid level sensor to prevent dry burning is arranged on the top of the ultrasonic generator.

[0017] Furthermore, the output mechanism also includes an output valve connected in series with the output pipe, which can reduce the probability of ozone water mist accidentally overflowing from the end of the discharge pipe.

[0018] Compared with the prior art, the beneficial effects of this utility model are as follows.

[0019] Ozone and water are atomized in an ultrasonic atomizing chamber to form ozone-rich water mist. The ozone water mist and water from the discharge pipe are then efficiently mixed in a venturi tube to form ozone-rich water. This process improves the mixing efficiency of low and high ozone concentrations in water.

[0020] By employing dual liquid level sensors, the lower and upper limits of the liquid level in the tank can be effectively regulated. When the liquid level in the tank is higher than the upper limit, the ultrasonic generator cannot atomize the liquid due to the excessive water depth. The controller closes the inlet valve, opens the drain valve, and starts the drain pump to drain the water, actively lowering the liquid level to below the upper limit. When the liquid level in the tank is lower than the lower limit, the tank is in a water shortage state. The controller closes the drain valve and opens the inlet valve, allowing tap water to automatically enter the tank and replenish the liquid.

[0021] By installing a two-position three-way valve between the air compressor and the molecular sieve oxygen generator, when the ozone bathing device does not need to generate ozone, the air inlet of the molecular sieve oxygen generator is cut off because it does not need to be connected to high pressure. The air compressor outlet is connected to the atmosphere through the two-position three-way valve and a silencer, thus the air compressor operates under no-load conditions, which has the following advantages: When the molecular sieve is not in use, it is in a standby state, which helps to extend the service life of the molecular sieve. The air compressor does not need to be started frequently, thus extending its service life; Even if the air compressor stops, it can be started under no-load, further extending the life of the air compressor, and there is no need to wait for the molecular sieve to depressurize, resulting in high starting efficiency. Attached Figure Description

[0022] Figure 1 This is a schematic diagram of the overall structure of this utility model; Figure 2 This is a detailed structural diagram of the two-position three-way valve in this utility model. Detailed Implementation

[0023] 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.

[0024] Please see Figures 1-2The high-efficiency blue oxygen bathing device provided by this utility model includes an ultrasonic atomizing tank 1, an oxygen generating device 2, an ozone generator 3, a water inlet mechanism 5, a drain mechanism 6, and an output mechanism 7. The ultrasonic atomizing tank 1 includes a tank body 11. The oxygen generating device 2 supplies oxygen to the ozone generator 3 through pipe A4, and the ozone generator 3 supplies ozone to the inlet 1101 of the tank body 11 through pipe B41; the water inlet mechanism 5 includes a liquid delivery pipe 51 connected to the bottom of the tank body 11 and a filter 52, a water inlet valve 53, and a pressure reducing valve 54 connected in series on the liquid delivery pipe 51. The pressure reducing valve 54 is located between the tank body 11 and the water inlet valve 53.

[0025] The output mechanism 7 includes an output pipe 71 connected to the output port 1102 of the tank 11, a discharge pipe 57 connected to the filter 52, a water outlet valve 55 and a venturi tube 56 connected in series on the discharge pipe 57, and the output pipe 71 is connected to the suction port 561 of the venturi tube 56.

[0026] Preferably, the ultrasonic atomizing tank 1 further includes an ultrasonic generator 12 disposed on the bottom wall of the tank body 11 and a liquid level sensor 13 disposed inside the tank body 11. The draining mechanism 6 includes a drain pipe 61, a drain pump 62 connected in series with the drain pipe 61 and a drain valve 63, and the drain pipe 61 is connected to the infusion pipe 51.

[0027] Oxygen generator 2 supplies the generated oxygen to ozone generator 3 via pipe A4. Ozone generator 3 then supplies the generated oxygen to tank 11 via pipe B41. Tap water is connected to pipe 51, filtered by filter 52, and then depressurized by pressure reducing valve 54 before being supplied to tank 11. Inside tank 11, ultrasonic generator 12 performs ultrasonic atomization to form active ozone water mist. If outlet valve 55 is closed and output valve 72 is opened, the ozone water mist is discharged through venturi tube 56 from the end 571 of discharge pipe 57, i.e., through output mechanism 7, for cleaning use.

[0028] The pressure reducing valve 54 is arranged on the infusion pipe 51 between the tank 11 and the water inlet valve 53. It can reduce the pressure of the tap water entering the tank 11 to avoid excessive water pressure causing excessive water flow inertia and control delay, thereby preventing the liquid level in the ultrasonic atomizing tank from exceeding the upper limit liquid level and affecting the normal atomization effect.

[0029] The upper limit of the liquid level in the tank 11 can be monitored by the liquid level sensor 13. When the liquid level in the tank 11 is too high, the water inlet valve 53 is closed, the drain valve 63 is opened, and the drain pump 62 works to discharge the water in the tank 11 through the inlet pipe 51 and the drain pipe 61 in sequence, so as to ensure that the liquid level in the tank 11 can be controlled at the required height.

[0030] Preferably, the connection point between the drain pipe 61 and the infusion pipe 51 is located between the inlet valve 53 and the tank body 11.

[0031] This design allows for the sharing of some pipelines for water supply and drainage, saving materials and eliminating the need for separate drainage pipes, thus saving manufacturing time and costs. In addition, the infusion pipe 51 is connected to the bottom of the tank 11, which facilitates the emptying of the liquid inside the tank 11, ensuring that there is not too much liquid remaining inside the tank 11, achieving a good self-cleaning function, which facilitates improved maintenance efficiency and quality, and is convenient to use.

[0032] Preferably, the liquid level sensor 13 is a dual liquid level sensor, with an upper liquid level float 131 at the top and a lower liquid level float 132 at the bottom.

[0033] The dual liquid level sensor is used to adjust the lower and upper limits of the liquid level in the tank 11. When the liquid level in the tank 11 is higher than the upper limit, the ultrasonic generator 12 cannot atomize the liquid due to the excessive water depth. The controller closes the inlet valve 53, opens the drain valve 63, and starts the drain pump 62 to drain the water, actively lowering the liquid level to below the upper limit. When the liquid level in the tank 11 is lower than the lower limit, the tank 11 is in a water shortage state. The controller closes the drain valve 63 and opens the inlet valve 53, allowing tap water to enter the tank 11 automatically, thus replenishing the liquid in the tank 11.

[0034] Preferably, the oxygen generating device 2 includes an air compressor 21 and a molecular sieve oxygen generator 22 connected in series on pipe A4, and a two-position three-way valve 23 connected in series on pipe A4 between the air compressor 21 and the molecular sieve oxygen generator 22. The air compressor 21 controls the supply of oxygen to the molecular sieve oxygen generator 22, which then supplies the generated oxygen to the ozone generator 3 for ozone production.

[0035] In the prior art, a two-position three-way valve 23 is used in a pneumatic control system to control the movement of a cylinder, including a P port for air intake, an A port for air exhaust, and an R port for air exhaust.

[0036] This solution uses a conventional normally closed two-position three-way valve 23, but the use of the inlet and outlet ports differs from existing technologies, such as... Figure 2 As shown, the P port, which was originally used for air intake, is now used as an exhaust port to supply air to the air intake port of the molecular sieve oxygen generator 22. The A port, which was originally used for air exhaust, is now used as an air intake port to obtain high-pressure gas from the output port of the air compressor 21. The R port, which was originally used for exhaust, is still used as an exhaust port and exhausts gas to the atmosphere through the silencer 231.

[0037] When the ozone-generating bathing device does not need to generate ozone, the air inlet of the molecular sieve oxygen generator 22 is cut off because it does not need to be connected to high pressure. The output port of the air compressor 21 is connected to the atmosphere through the two-position three-way valve 23 and the silencer 231. Therefore, the air compressor 21 is in an unloaded operating state, which has the following advantages: When molecular sieves are not in use, they are kept in standby mode, which helps to extend their service life.

[0038] Air compressor 21 does not require frequent starts, thus extending its service life.

[0039] Even if the air compressor 21 is shut down, it can be started under no-load, which further improves the service life of the air compressor 21, and there is no need to wait for the molecular sieve to depressurize, resulting in high starting efficiency.

[0040] Preferably, an anti-dry-burning liquid level sensor 14 is arranged on the top of the ultrasonic generator 12. The anti-dry-burning liquid level sensor 14 monitors the liquid level in the tank 11. When the liquid level in the tank 11 is lower than that of the ultrasonic generator 12, tap water is added to the tank 11 in a timely manner to prevent dry burning.

[0041] Preferably, the output mechanism 7 includes an output pipe 71 connected to the output port 1102 of the tank 11, and an output valve 72 connected in series on the output pipe 71. The product obtained by the ultrasonic atomizing tank 1 flows into the output pipe 71 through the output port 1102. When the output valve 72 is opened, the product flows downstream through the output pipe 71 for cleaning purposes. The output valve 72 prevents foreign objects in the air from entering the tank 11 along the pipe when the atomizing process is not in progress, thus improving cleanliness and safety.

[0042] Obviously, the output valve 72 connected in series with the output pipe 71 is not necessary and can be omitted.

[0043] The above is a detailed description of the present invention in conjunction with specific embodiments, and it should not be construed that the specific embodiments of the present invention are limited to these descriptions. For those skilled in the art, any equivalent substitutions or obvious modifications made without departing from the concept of the present invention, and which have the same performance or use, should be considered as falling within the patent protection scope defined by the submitted claims.

Claims

1. A high-efficiency blue oxygen bathing and care device, comprising an ultrasonic atomizing tank (1), an oxygen generating device (2), an ozone generator (3), a water inlet mechanism (5), a draining mechanism (6), and an output mechanism (7), characterized in that: The ultrasonic atomizing tank (1) includes a tank body (11). The oxygen generating device (2) supplies oxygen to the ozone generator (3) through pipe A (4), and the ozone generator (3) supplies ozone to the inlet (1101) of the tank (11) through pipe B (41); The water inlet mechanism (5) includes an infusion pipe (51) connected to the bottom of the tank (11) and a filter (52), an inlet valve (53) and a pressure reducing valve (54) connected in series on the infusion pipe (51). The pressure reducing valve (54) is located between the tank (11) and the inlet valve (53). The output mechanism (7) includes an output pipe (71) connected to the output port (1102) of the tank (11), a discharge pipe (57) connected to the filter (52), a water outlet valve (55) and a venturi tube (56) connected in series on the discharge pipe (57), and the output pipe (71) is connected to the suction port (561) of the venturi tube (56).

2. The high-efficiency blue oxygen shampoo and conditioner according to claim 1, characterized in that: The ultrasonic atomizing tank (1) also includes an ultrasonic generator (12) arranged on the bottom wall of the tank body (11) and a liquid level sensor (13) arranged inside the tank body (11). The draining mechanism (6) includes a drain pipe (61), a drain pump (62) connected in series on the drain pipe (61), and a drain valve (63). The drain pipe (61) is connected to the infusion pipe (51).

3. The high-efficiency blue oxygen shampoo and conditioner according to claim 2, characterized in that: The connection point between the drain pipe (61) and the infusion pipe (51) is located between the inlet valve (53) and the tank (11).

4. The high-efficiency blue oxygen shampoo and conditioner according to claim 2, characterized in that: The liquid level sensor (13) is a dual liquid level sensor, with an upper liquid level float (131) at the top and a lower liquid level float (132) at the bottom.

5. The high-efficiency blue oxygen shampoo and conditioner according to claim 2, characterized in that: The oxygen generating device (2) includes an air compressor (21) and a molecular sieve oxygen generator (22) connected in series on the pipeline A (4), and a two-position three-way valve (23) connected in series on the pipeline A (4) between the air compressor (21) and the molecular sieve oxygen generator (22).

6. The high-efficiency blue oxygen shampoo and conditioner according to claim 2, characterized in that: The top of the ultrasonic generator (12) is equipped with an anti-dry-burning liquid level sensor (14).

7. The high-efficiency blue oxygen shampoo and conditioner according to any one of claims 1-6, characterized in that: The output mechanism (7) also includes an output valve (72) connected in series on the output pipe (71).

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