CN210935474U

CN210935474U - Atomizer

Info

Publication number: CN210935474U
Application number: CN201920751402.3U
Authority: CN
Inventors: 刘尊峰; 阮志远; 盛凯丽; 方平; 张芸婷
Original assignee: Xiaowei Shanghai Biotechnology Co ltd
Current assignee: Xiaowei Shanghai Biotechnology Co ltd
Priority date: 2019-04-09
Filing date: 2019-05-23
Publication date: 2020-07-07
Anticipated expiration: 2029-05-23
Also published as: CN111790559A; CN111790536A; CN210994989U; CN211051792U; CN111790536B; CN111790557A; CN111790559B; CN210935613U; CN111790558A; CN210994988U; CN111790560A; CN111790560B; CN111804497B; CN111790558B; CN111804497A; CN111790535A; WO2020244566A1

Abstract

The utility model provides an atomizer, the atomizer includes liquid bottle, power component and atomizing system, liquid bottle, power component and atomizing system pass through pipe connection and form circulation system, power component can with liquid in the liquid bottle with liquid or foam state carry extremely in the atomizing system, atomizing system can be with the liquid atomization who gets into it, atomizing system's discharge port with the liquid bottle is linked together, makes liquid in the atomizing system can flow back extremely in the liquid bottle, the atomizer have simple structure, be difficult for appearing changing color, peculiar smell, mix the advantage of flavor and weeping, in addition, the atomizer can also adjust out the size of fog volume through multiple mode, can satisfy the demand that the user more diversified.

Description

Atomizer

Technical Field

The utility model relates to an atomizing device technical field, in particular to atomizer.

Background

At present, in the field of atomizers, in order to achieve the purpose of atomizing liquid, the following two methods are mainly used: first, the method of using a cotton swab as a liquid absorption path and then atomizing the liquid absorbed by the cotton swab has major disadvantages in that the cotton swab, especially a cotton wick, is easily discolored, generates an offensive odor, and easily confuses different tastes; secondly, invert the liquid bottle above atomizing device, adopt the mode of liquid on, through effect such as gravity or pressure with liquid input atomizing device, this kind of liquid bottle has the weeping problem generally in the atomizer of upper, fuselage under. In addition, the existing atomizer also has the problems that the size of the mist output is inconvenient to adjust and the like, and the use experience of consumers is seriously influenced by the defects.

In view of the above, it is an urgent technical problem to be solved by those skilled in the art to provide an atomizer capable of preventing discoloration of a cotton swab, generation of an odor, mixing of odors, and leakage of the atomizer, and capable of adjusting the amount of mist generated.

SUMMERY OF THE UTILITY MODEL

In view of this, the utility model aims at providing an atomizer to solve present atomizer and appear that the cotton stick discolours, produces the peculiar smell, mixes flavor and atomizer weeping easily, and go out the inconvenient technical problem of fog volume regulation.

In order to achieve the above purpose, the technical scheme of the utility model is realized like this:

the utility model provides an atomizer, the atomizer includes liquid bottle, power component and atomizing system, liquid bottle, power component and atomizing system pass through the pipe connection and form circulation system, power component can with liquid in the liquid bottle is carried with liquid or foam state extremely in the atomizing system, atomizing system can be with the liquid atomization who gets into it, atomizing system's discharge port with the liquid bottle is linked together, makes liquid in the atomizing system can flow back extremely in the liquid bottle.

Furthermore, the liquid bottle is connected with the power assembly or the atomization system through a liquid inlet pipe, one end of the liquid inlet pipe is communicated with a liquid inlet of the power assembly or the atomization system, and the other end of the liquid inlet pipe extends into the position below the liquid level in the liquid bottle.

Furthermore, the liquid bottle is connected with the power assembly or the atomization system through a return pipe, one end of the return pipe is communicated with the liquid outlet of the power assembly or the discharge port of the atomization system, and the other end of the return pipe extends into the liquid bottle.

Further, the liquid bottle is communicated with the power assembly through a liquid inlet pipe, one end of the liquid inlet pipe is communicated with a liquid inlet of the power assembly, and the other end of the liquid inlet pipe extends into the liquid bottle below the liquid level; the liquid outlet of the power assembly is communicated with the liquid inlet of the atomization system through a connecting pipe; the outlet of the atomization system is communicated with the liquid bottle through a return pipe, one end of the return pipe is communicated with the outlet of the atomization system, and the other end of the return pipe extends into the liquid bottle.

Further, the liquid bottle is communicated with the atomization system through a liquid inlet pipe, one end of the liquid inlet pipe is connected with a liquid inlet of the atomization system, and the other end of the liquid inlet pipe extends into the liquid bottle below the liquid level; the discharge port of the atomization system is communicated with the liquid inlet of the power assembly through a connecting pipe; the liquid outlet of the power assembly is communicated with the liquid bottle through a return pipe, one end of the return pipe is communicated with the liquid outlet of the power assembly, and the other end of the return pipe extends into the liquid bottle.

Further, the liquid bottle is communicated with the power assembly through a liquid inlet pipe, and the power assembly and the liquid inlet pipe are positioned below the liquid level in the liquid bottle; the liquid outlet of the power assembly is communicated with the liquid inlet of the atomization system through a connecting pipe; the outlet of the atomization system is communicated with the liquid bottle through a return pipe, one end of the return pipe is communicated with the outlet of the atomization system, and the other end of the return pipe extends into the liquid bottle.

Further, the liquid bottle is communicated with the atomization system through a liquid inlet pipe, one end of the liquid inlet pipe is communicated with a liquid inlet of the atomization system, and the other end of the liquid inlet pipe extends into the liquid bottle below the liquid level; the discharge port of the atomization system is communicated with the liquid inlet of the power assembly through a connecting pipe; the liquid outlet of the power assembly is communicated with the liquid bottle through a return pipe, one end of the return pipe is communicated with the liquid outlet of the power assembly, and the other end of the return pipe extends into the liquid bottle.

Further, the liquid inlet pipe comprises one or more liquid inlet channels, and the return pipe comprises at least one liquid return channel and a gas phase channel.

Further, atomizing system includes atomizing piece and atomizer, the atomizing piece can with liquid atomization in the atomizer, be equipped with import, export and atomizing mouth on the atomizer, the atomizing piece sets up on the atomizing mouth, outside liquid and/or gas can be followed the import gets into in the atomizer, liquid and/or gas in the atomizer can be followed the export is discharged the atomizer, the atomizing piece is micropore piezoelectric vibrating piece.

Compared with the prior art, the atomizer have simple structure, be difficult for appearing the advantage that discolours, peculiar smell, thoughtlessly smell and weeping, in addition, the atomizer can also adjust out the size of fog volume through multiple mode, can satisfy the demand that the user is more diversified.

Drawings

The accompanying drawings, which form a part hereof, are included to provide a further understanding of the invention, and are incorporated in and constitute a part of this specification, illustrate embodiments of the invention and together with the description serve to explain the invention without undue limitation. In the drawings:

fig. 1 is a schematic view of a first structure of an atomizer according to an embodiment of the present invention;

fig. 2 is a second schematic structural diagram of the atomizer according to the embodiment of the present invention;

fig. 3 is a schematic diagram of a third structure of the atomizer according to the embodiment of the present invention;

fig. 4 is a fourth schematic structural diagram of the atomizer according to the embodiment of the present invention;

fig. 5 is a schematic view of a first structure of an atomization system according to an embodiment of the present invention;

fig. 6 is a second schematic structural diagram of an atomization system according to an embodiment of the present invention;

fig. 7 is a schematic diagram of a third structure of an atomization system according to an embodiment of the present invention;

fig. 8 is a flowchart of a control method of the atomization system according to an embodiment of the present invention;

fig. 9 is another flowchart of a control method of an atomization system according to an embodiment of the present invention.

Description of reference numerals:

1-an atomization system, 11-an atomization sheet, 12-an atomization pool, 13-an inlet, 14-an outlet, 15-a sensor in the pool, 16-a sensor outside the pool, 2-a power assembly, 3-a liquid bottle, 4-a liquid inlet pipe, 5-a connecting pipe and 6-a return pipe.

Detailed Description

In order to make the technical means, purpose and efficacy of the present invention easy to understand, the following embodiments of the present invention are described in detail with reference to the specific drawings.

It should be noted that all terms used in the present invention for directional and positional indication, such as: "upper", "lower", "left", "right", "front", "rear", "vertical", "horizontal", "inner", "outer", "top", "lower", "lateral", "longitudinal", "center", etc., are used only for explaining the relative positional relationship, connection conditions, etc., between the respective members in a certain specific state, and are only for convenience of description of the present invention, but do not require the present invention to be constructed and operated in a specific orientation, and therefore, should not be construed as limiting the present invention. In addition, the descriptions related to "first", "second", etc. in the present invention are for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicit ly indicating the number of technical features indicated.

In the description herein, references to the description of the term "one embodiment," "some embodiments," "an illustrative embodiment," "an example," "a specific example," or "some examples" or the like mean that a particular feature, structure, material, or characteristic described in connection with the embodiment or example is included in at least one embodiment or example of the present invention. In this specification, the schematic representations of the terms used above do not necessarily refer to the same embodiment or example. Furthermore, the particular features, structures, materials, or characteristics described may be combined in any suitable manner in any one or more embodiments or examples.

Example 1

Specifically, as shown in fig. 1 ~ 9, an atomizer, the atomizer includes liquid bottle 3, power component 2 and atomizing system 1, liquid bottle 3, power component 2 and atomizing system 2 pass through the pipe connection and form circulation system, power component 2 can with liquid in the liquid bottle 3 is carried extremely with liquid or foam state in the atomizing system 1, atomizing system 1 can be with the liquid atomization who gets into it, atomizing system 1's discharge port with liquid bottle 3 is linked together, makes liquid in the atomizing system 1 can flow back to in the liquid bottle 3, just gaseous phase in the atomizing system 1 with gaseous phase in the liquid bottle 3 can communicate each other.

Preferably, the atomization system 2 is located above the liquid bottle 3.

Further, the liquid bottle 3 is connected with the power assembly 2 or the atomization system 1 through a liquid inlet pipe 4, one end of the liquid inlet pipe 4 is communicated with a liquid inlet of the power assembly 2 or the atomization system 1, and the other end of the liquid inlet pipe extends into the liquid level in the liquid bottle 3.

Furthermore, the liquid bottle 3 is connected with the power assembly 2 or the atomization system 1 through a return pipe 6. One end of the return pipe 6 is communicated with the liquid outlet of the power assembly 2 or the discharge port of the atomization system 1, and the other end of the return pipe extends into the liquid bottle 3. Preferably, one end of the return pipe 6 is communicated with the liquid outlet of the power assembly 2 or the discharge port of the atomization system 1, and the other end of the return pipe extends into the liquid level of the liquid bottle 3.

Preferably, the power assembly 2 is a pump.

As some embodiments of the present application, the atomizing system 1 includes at least an atomizing plate 11.

Further, the atomization system 1 further comprises an atomization pool 12, and one or more atomization pieces 11 are arranged on the atomization pool 12.

In the using process, the liquid in the liquid bottle 3 is conveyed into the atomizing system 1 under the action of the power assembly 2, most of the liquid in the atomizing system 1 is atomized and emitted into the air, and a small part of the liquid, such as the residual liquid after the atomization is finished, can flow back into the liquid bottle 3 through the return pipe 6 to be recycled, so that the recycling of the liquid is realized; on the other hand, the arrangement of the return pipe 6 either directly communicates the liquid bottle 3 with the inside of the atomization system 1, or indirectly communicates the liquid bottle 3 with the inside of the atomization system 1 through the power assembly 2, so that the air pressure in the liquid bottle 3 and the inside of the atomization system 1 can be kept balanced, and the power assembly 2 can continuously convey the liquid in the liquid bottle 3 to the atomization system 1 for atomization.

The atomizer conveys liquid to be atomized through the power assembly 2, the liquid bottle 3 is communicated with the inner space of the atomization system 1 through the return pipe 6, so that the atomizer can atomize continuously, and the atomizer does not adopt a cotton swab as a liquid suction channel, so that the defects that the cotton swab changes color, generates peculiar smell or is easy to confuse different tastes can be avoided; in addition, the liquid bottle 3 does not need to be inverted above the atomization system 1, and therefore, the risk of liquid leakage caused by inversion of the liquid bottle 3 does not exist.

As some examples of the present application, the atomizer adjusts the amount of mist by adjusting the vibration frequency of the atomizing plate 11. When the mist output quantity needs to be increased, the vibration frequency of the atomizing plate 11 is increased; when the mist amount needs to be reduced, the vibration frequency of the atomizing plate 11 is lowered. Generally, the vibration frequency of the atomizing plate 11 can be adjusted by changing voltage, current and power, thereby achieving the purpose of adjusting the atomizing amount.

As some embodiments of the present application, the atomizer adjusts the amount of mist by adjusting the height difference between the liquid inlet of the atomizing system 1 and the atomizing plate 11. Under the action of the power assembly 2, the liquid in the liquid bottle 3 is sprayed out in a trumpet shape from the liquid inlet of the atomization system 1, and when the mist outlet amount needs to be increased, the height difference between the liquid inlet of the atomization system 1 and the atomization sheet 11 is reduced, so that the contact area between the liquid sprayed out from the liquid inlet of the atomization system 1 and the atomization sheet 11 is increased; when the mist outlet amount needs to be reduced, the height difference between the liquid inlet of the atomizing system 1 and the atomizing sheet 11 is increased, so that the contact area between the liquid sprayed from the liquid inlet of the atomizing system 1 and the atomizing sheet 11 is reduced. The research finds that: when the power assembly 2, such as a pump, has a fixed head, the larger the height difference between the liquid entering from the liquid inlet of the atomization system 1 and the atomization sheet 11 is, the smaller the effective contact area between the liquid at the discharge port of the atomization system 1 and the atomization sheet 11 is, and thus the smaller the mist discharge amount is; the smaller the height difference between the liquid entering from the liquid inlet of the atomization system 1 and the atomization sheet 11 is, the larger the effective contact area between the liquid at the discharge port of the atomization system 1 and the atomization sheet 11 is, the larger the mist discharge amount will be, and then the height difference between the liquid inlet of the atomization system 1 and the atomization sheet 11 can be adjusted to adjust the mist discharge amount.

As some embodiments of the present application, the atomizer adjusts the amount of mist by adjusting the opening area of the atomizing holes on the atomizing plate 11. The opening area is the area of each atomizing opening on the atomizing plate 11. When the mist output quantity needs to be increased, the opening area of the atomizing holes on the atomizing plate 11 is increased; when the mist amount needs to be reduced, the opening area of the atomizing holes in the atomizing plate 11 is reduced. Generally, the larger the opening area of the atomizing holes on the atomizing plate 11, the larger the amount of mist generated by the atomizer; conversely, the smaller the opening area of the atomizing holes in the atomizing plate 11, the smaller the amount of mist generated by the atomizer.

As some examples of the present application, the atomizer adjusts the amount of mist generated by adjusting the volume of the atomization pool 12 in the atomization system 1. When the mist outlet quantity needs to be increased, the volume of the atomizing pool 12 in the atomizing system 1 is increased, and when the mist outlet quantity needs to be decreased, the volume of the atomizing pool 12 in the atomizing system 1 is decreased. When the volume of the atomization pool 12 is large, the liquid at the outlet of the atomization system 1 is not accumulated, and the liquid can freely fall down, at this time, the pressure of the liquid between the outlet of the atomization system 1 and the atomization sheet 11 is different from the pressure when the volume of the atomization pool 12 is small, and the different pressures result in different mist output.

Example 2

As shown in fig. 1, an atomizer comprises a liquid bottle 3, a power assembly 2 and an atomization system 1, wherein the liquid bottle 3, the power assembly 2 and the atomization system 2 are connected through a pipeline to form a circulation system, the power assembly 2 can convey liquid in the liquid bottle 3 into the atomization system 1, and the atomization system 1 can atomize the liquid entering the atomization system.

Further, the liquid bottle 3 is communicated with the power assembly 2 through a liquid inlet pipe 4, one end of the liquid inlet pipe 4 is communicated with a liquid inlet of the power assembly 2, and the other end of the liquid inlet pipe 4 extends below the liquid level in the liquid bottle 3; the liquid outlet of the power assembly 2 is communicated with the liquid inlet of the atomization system 1 through a connecting pipe 5; the discharge port of the atomization system 1 is communicated with the liquid bottle 3 through a return pipe 6, one end of the return pipe 6 is communicated with the discharge port of the atomization system 1, and the other end of the return pipe extends into the liquid bottle 3. Preferably, one end of the return pipe 6 is communicated with the discharge port of the atomization system 1, and the other end thereof extends above the liquid level in the liquid bottle 3.

Preferably, the power assembly 2 is located above the liquid bottle 3, and the atomization system 1 is located above the liquid bottle 3.

When the atomizer works, the power assembly 2 is started firstly, the power assembly 2 pumps the liquid in the liquid bottle 3 into the power assembly 2 through the liquid inlet pipe 4, then the liquid is discharged into the connecting pipe 5 through the liquid outlet of the power assembly 2, and then the liquid in the connecting pipe 5 flows into the atomization system 1 and is atomized in the atomization system 1; after the liquid in the liquid bottle 3 is pumped away, the pressure in the liquid bottle 3 is reduced, and at the moment, because the upper part of the liquid level of the liquid bottle 3 is communicated with the inside of the atomization system 1 through the return pipe 6, the gas in the atomization system 1 and the gas in the liquid bottle 3 can be communicated with each other, so that the pressure generated in the liquid bottle 3 is rapidly kept balanced with the pressure in the atomization system 1, and the atomizer can continuously work. In addition, when the atomizer finishes working or the amount of liquid in the atomization system 1 is excessive, the liquid in the atomization system 1 can also flow back to the liquid bottle 3 through the return pipe 6.

Example 3

As shown in fig. 2, an atomizer comprises a liquid bottle 3, a power assembly 2 and an atomization system 1, wherein the liquid bottle 3, the power assembly 2 and the atomization system 2 are connected through a pipeline to form a circulation system, the power assembly 2 can convey liquid in the liquid bottle 3 into the atomization system 1, and the atomization system 1 can atomize the liquid entering the atomization system.

Further, the liquid bottle 3 is communicated with the atomization system 1 through a liquid inlet pipe 4, one end of the liquid inlet pipe 4 is connected with a liquid inlet of the atomization system 1, and the other end of the liquid inlet pipe 4 extends into the liquid level in the liquid bottle 3; the discharge port of the atomization system 1 is communicated with the liquid inlet of the power assembly 2 through a connecting pipe 5; the liquid outlet of the power component 2 is communicated with the liquid bottle 3 through a return pipe 6, one end of the return pipe 6 is communicated with the liquid outlet of the power component 2, and the other end of the return pipe extends into the liquid bottle 3. Preferably, one end of the return pipe 6 is communicated with the liquid outlet of the power assembly 2, and the other end of the return pipe extends into the liquid level in the liquid bottle 3.

When the atomizer works, the power assembly 2 is started firstly, the power assembly 2 pumps the gas in the connecting pipe 5 into the return pipe 6, so that the pressure in the liquid inlet pipe 4 is reduced, and the pressure in the return pipe 6 is increased. Although, generally, the atomization system 1 is provided with an atomization hole, and the atomization hole is communicated with the outside, compared with the power of the power assembly 2, the aperture of the atomization hole is very small, which cannot make the gas in the atomization system 1 and the outside gas flow rapidly and largely, and therefore, the change of the atomization hole to the internal pressure of the atomization system 1 can be ignored. With the continuous operation of the power assembly 2, the power assembly 2 will pump more gas in the connection pipe 5 into the return pipe 6, so that the pressure in the liquid inlet pipe 4 is continuously reduced, the pressure in the return pipe 6 is continuously increased, so that a pressure difference exists between the pressure in the liquid bottle 3 and the pressure in the liquid inlet pipe 4, and finally, under the action of the pressure difference, the liquid in the liquid bottle 3 will flow into the liquid inlet pipe 4, and then flow into the atomization system 1, and be atomized by the atomization system 1. Likewise, during operation of the nebulizer, the pressure in the nebulizing system 1 and the pressure in the liquid bottle 3 tend to equalize via the return tube 6. In addition, when the atomizer finishes working or the amount of liquid in the atomization system 1 is excessive, the liquid in the atomization system 1 can also flow back to the liquid bottle 3 through the power assembly 2 and the return pipe 6.

Example 4

As shown in fig. 3, an atomizer comprises a liquid bottle 3, a power assembly 2 and an atomization system 1, wherein the liquid bottle 3, the power assembly 2 and the atomization system 2 are connected through a pipeline to form a circulation system, the power assembly 2 can convey liquid in the liquid bottle 3 into the atomization system 1, and the atomization system 1 can atomize the liquid entering the atomization system.

Further, the liquid bottle 3 is communicated with the power assembly 2 through a liquid inlet pipe 4, and the power assembly 2 and the liquid inlet pipe 4 are positioned below the liquid level in the liquid bottle 3; the liquid outlet of the power assembly 2 is communicated with the liquid inlet of the atomization system 1 through a connecting pipe 5; the discharge port of the atomization system 1 is communicated with the liquid bottle 3 through a return pipe 6, one end of the return pipe 6 is communicated with the discharge port of the atomization system 1, and the other end of the return pipe extends into the upper part of the liquid level in the liquid bottle 3.

At this time, the working process of the atomizer described in this embodiment is the same as the working process of the atomizer described in embodiment 2, and is not described herein again.

Example 5

As shown in fig. 4, an atomizer comprises a liquid bottle 3, a power assembly 2 and an atomization system 1, wherein the liquid bottle 3, the power assembly 2 and the atomization system 2 are connected through a pipeline to form a circulation system, the power assembly 2 can convey liquid in the liquid bottle 3 into the atomization system 1, and the atomization system 1 can atomize the liquid entering the atomization system.

Further, the liquid bottle 3 is communicated with the atomization system 1 through a liquid inlet pipe 4, one end of the liquid inlet pipe 4 is communicated with a liquid inlet of the atomization system 1, and the other end of the liquid inlet pipe 4 extends into the liquid level in the liquid bottle 3; the discharge port of the atomization system 1 is communicated with the liquid inlet of the power assembly 2 through a connecting pipe 5; the liquid outlet of the power component 2 is communicated with the liquid bottle 3 through a return pipe 6, one end of the return pipe 6 is communicated with the liquid outlet of the power component 2, and the other end of the return pipe extends into the liquid bottle 3. Preferably, one end of the return pipe 6 is communicated with the liquid outlet of the power assembly 2, and the other end of the return pipe extends into the liquid level in the liquid bottle 3.

Furthermore, the power assembly 2 may be located inside the liquid bottle 3 or outside the liquid bottle 3.

As some embodiments of the present application, the liquid inlet pipe 4 includes one or more liquid inlet channels, and the return pipe 6 includes at least one liquid return channel and at least one gas phase channel, the liquid return channel is used to return the liquid in the atomization system 1 to the liquid bottle 3, and the gas phase channel is used to communicate the gas phase in the atomization system 1 and the gas phase in the liquid bottle 3, so that they can be communicated with each other.

As some embodiments of the present application, the atomizer adjusts the amount of mist by adjusting the height difference between the atomizing system 1 and the liquid bottle 3. When the mist outlet quantity needs to be increased, the height difference between the atomizing system 1 and the liquid bottle 3 is reduced; when the mist output amount needs to be reduced, the height difference between the atomizing system 1 and the liquid bottle 3 is increased. When the power assembly 2, such as a pump, has a fixed lift, and the height difference between the atomization system 1 and the liquid bottle 3 is increased, the liquid amount at the liquid outlet of the power assembly 2 is reduced, the mist outlet amount is reduced, and conversely, the mist outlet amount is increased.

As some examples of the present application, the atomizer adjusts the amount of mist generated by adjusting the flow rate of the fluid delivered by the power assembly 2. When the mist outlet quantity needs to be increased, the flow speed of the fluid conveyed by the power assembly 2 is increased; when the mist quantity needs to be reduced, the flow speed of the fluid conveyed by the power assembly 2 is reduced. The flow rate of the fluid conveyed by the power assembly 2 is adjusted, so that the pressure of the liquid at the atomizing plate 11 is adjusted, and the mist outlet quantity is adjusted.

As some embodiments of the present application, the atomizer adjusts the amount of mist generated by adjusting the ratio of the cross-sectional areas of the liquid inlet pipe 4 and the return pipe 6. When the mist outlet quantity needs to be increased, the cross-sectional area ratio of the liquid inlet pipe 4/the return pipe 6 is increased; when the mist outlet quantity needs to be reduced, the cross-sectional area ratio of the liquid inlet pipe 4/the return pipe 6 is reduced. The cross-sectional area ratio of the liquid inlet pipe 4 to the return pipe 6 is adjusted, so that the flow rate of liquid and the pressure of the liquid are changed, and the mist quantity is finally changed.

Example 6

Specifically, as shown in fig. 5-7, an atomizing system, atomizing system 1 includes atomizing piece 11 and atomizing pond 12, atomizing piece 11 can with the liquid in atomizing pond 12 atomizes, be equipped with import 13, export 14 and atomizing mouth on atomizing pond 12, atomizing piece 11 sets up on the atomizing mouth, promptly atomizing piece 11 does not set up on the export 14.

Preferably, the atomization sheet 11 is a piezoelectric microporous atomization sheet.

Further, external liquid and/or gas can enter the atomization pool 12 from the inlet 13, and the liquid and/or gas in the atomization pool 12 can exit the atomization pool 12 from the outlet 14.

Further, an inlet 13 of the atomization pool 12 is connected with a liquid bottle 3, and the liquid in the liquid bottle 3 can be delivered into the atomization pool 12 in a liquid state or a foam state through the inlet 13; the outlet 14 of the atomization pool 12 is connected with the liquid bottle 3, the liquid or foam in the atomization pool 12 can flow back into the liquid bottle 3 through the outlet 14, and the gas pressure in the atomization pool 12 can be kept equal to the gas pressure in the liquid bottle 3 through the outlet 14.

Further, the liquid inlet speed at the inlet 13 is greater than the liquid discharge speed at the outlet 14. The liquid inlet rate is equal to the amount of liquid passing through the inlet 13 per unit time, and the liquid discharge rate is equal to the amount of liquid passing through the outlet 14 per unit time.

Furthermore, the liquid level in the atomization pool 12 should be high enough to enable the back surface of the atomization sheet 11 to contact with the liquid in the atomization pool 12 and atomize the liquid in the atomization pool 12 by vibration. In the present application, the surface of the atomizing sheet 11 on which the mist is generated is referred to as a front surface, and the surface disposed opposite to the front surface is referred to as a rear surface of the atomizing sheet 11.

Preferably, the cross-sectional area of the inlet 13 is larger than that of the outlet 14, so that the liquid amount entering the atomization pool through the inlet 13 is equal to the liquid amount discharged from the atomization pool through the outlet 14 plus the liquid amount atomized by the atomization sheet 11.

The atomization system 1 is provided with a liquid inlet and a discharge port, and the inlet 13 is the liquid inlet of the atomization system 1; the outlet 14 is an outlet of the atomization system 1.

Further, the discharge port comprises a liquid outlet and an air outlet. When the outlet 14 is communicated with the liquid bottle 3 and is used for balancing the air pressure in the atomization system 1 and the liquid bottle 3, the outlet 14 on the atomization pool 12 is the air outlet of the atomization system 1; when the outlet 14 is communicated with the external atmosphere and is used to make the air pressure in the atomization system 1 equal to the atmospheric pressure, the outlet 14 on the atomization pool 12 is also the air outlet of the atomization system 1; when the outlet 14 is used to discharge liquid, the outlet 14 is a liquid outlet of the atomization system 1. The gas outlet and the liquid outlet may be different outlets 14, or may be the same outlet 14.

In the using process of the atomization system 1, liquid to be atomized enters the atomization pool 12 through the inlet 13, is atomized by the atomization sheet 11, and then is emitted into the air; air and/or liquid in the atomization tank 12 can be discharged through the outlet 14, or air can enter the atomization tank 12 through the outlet 14.

The traditional atomization pool is generally only provided with a liquid inlet, and liquid can only flow into the atomization pool in a one-way mode and is discharged through atomization. According to the liquid recycling device, the atomizing pool 12 is provided with the inlet 13 and the outlet 14, so that on one hand, the liquid in the atomizing pool 12, especially the residual liquid in the atomizing pool 12 after each atomization is finished can be recycled after being discharged through the outlet 14, and the recycling of the liquid is realized; on the other hand, the air in the atomization pool 12 and the air in the components connected to the outlet 14, such as the liquid bottle 3, the external environment, etc., can flow in two directions, so that the pressures of the atomization pool 12 and the air in the liquid bottle or the external environment, etc., are always kept equal, and the atomization system 1 can work continuously for a long time.

The atomization system 1 of the application is provided with a special inlet 13 on the atomization pool 12 for inputting liquid, and because a cotton swab is not used as a liquid suction channel, the defects that the cotton swab changes color, generates peculiar smell or is easy to mix different tastes can be avoided; in addition, this application after atomizing pond 12 in the atomizing system 1 sets up alone, owing to set up special import 13 on the atomizing pond 12, consequently, can transmit the liquid in the liquid bottle 3 to atomizing pond 12 in through pipeline etc. need not invert the liquid bottle 3 in atomizing system 1 top, consequently, also do not have the risk of the weeping that the liquid bottle inversion brought.

As some embodiments of the present application, the inlet 13 of the atomization pool 12 is connected with the liquid bottle 3 through the power assembly 2, and the power assembly 2 can deliver the liquid in the liquid bottle 3 into the atomization pool 12 through the inlet 13; the outlet 14 is connected with the liquid bottle 3 through a pipeline, one end of the pipeline is communicated with the outlet 14, and the other end of the pipeline is inserted above the liquid level of the liquid bottle 3. During the use, when the power assembly 2 is just started, the gas pre-stored between the power assembly 2 and the inlet 13 enters the atomization pool 12 through the inlet 13 and flows out of the atomization pool 12 through the outlet 14 under the action of the power assembly 2, so that the pressure in the atomization pool 12 can be equal to the pressure in the liquid bottle 3. Then, the liquid in the liquid bottle 3 is delivered into the atomization pool 12 through the power assembly 2 and the inlet 13 for atomization, and the atomization pool 12 is communicated with the liquid bottle 3 through the pipeline arranged on the outlet 14, so that the pressures in the atomization pool 12 and the liquid bottle 3 can be always kept consistent, the atomization system 1 can continuously work for a long time, and the liquid bottle 3 does not need to be provided with air holes. In addition, the liquid in the atomization pool 12 can flow back to the liquid bottle 3 through the pipeline on the outlet 14.

As some embodiments of the present application, the atomization pool 12 is provided with a plurality of inlets 13 and a plurality of outlets 14, the inlets 13 are respectively connected with the liquid bottles 3 through the power assemblies 2, and the outlets 14 are respectively connected with the liquid bottles 3.

As some embodiments of the present application, the number of the outlets 14 is two, wherein one outlet 14 is located at the top of the atomization pool 12, and the other outlet 14 is located at the side or the bottom of the atomization pool 12, and the liquid in the atomization pool 12 can flow back into the liquid bottle 3 through the outlet 14 located at the side or the bottom of the atomization pool 12; the air in the atomization pool 12 and the liquid bottle 3 are communicated with each other through an outlet 14 at the top of the atomization pool 12.

As some embodiments of this application, be equipped with 2

imports

13 and 2 exports 14 on the atomizing pond 12, import 13 is connected with liquid bottle 3 through power component 2 respectively, export 14 is connected with liquid bottle 3's liquid level top respectively, liquid bottle 3 is located the below of atomizing

pond

12, 11 levels of atomizing piece set up the top of atomizing pond 12. The atomization pool 12 conveys liquid from the liquid bottle 3 into the atomization pool 12 by means of a power assembly 2, such as a pump, and the like, and the inlets 13 can be respectively arranged at any position on the atomization pool 12; the 2 outlets 14 are respectively marked as a first outlet and a second outlet, the first outlet is positioned at the bottom of the atomization pool 12, a control valve is arranged on the first outlet, and the liquid in the atomization pool 12 can flow back into the liquid bottle 3 through the first outlet under the action of gravity and the like; when the liquid in the atomization pool 12 needs to flow back to the liquid bottle 3, the control valve is opened; when the liquid in the atomization pool 12 does not need to be returned to the liquid bottle 3, the control valve is closed. Preferably, the control valve is a solenoid valve. The second outlet is positioned at the top of the atomization pool 12, and the air in the atomization pool 12 and the liquid bottle 3 mutually circulates through the second outlet. At this time, the first outlet is the liquid outlet of the atomization system 1, and the second outlet is the gas outlet of the atomization system 1.

As some embodiments of this application, be equipped with 1

import

13 and 2 exports 14 on the atomizing pond 12, import 13 is connected with liquid bottle 3 through power component 2, export 14 is connected with liquid bottle 3's liquid level top respectively, liquid bottle 3 is located the below of atomizing pond 12, the vertical setting of atomizing piece 11 is in on the side of atomizing pond 12. The atomization pool 12 conveys liquid from the liquid bottle 3 into the atomization pool 12 by means of a power assembly 2, such as a pump, and the like, and the inlet 13 can be arranged at any position on the atomization pool 12; the 2 outlets 14 are respectively marked as a first outlet and a third outlet, the first outlet is arranged at the bottom of the atomization pool 12, a control valve is arranged on the first outlet, the third outlet is positioned on the side surface of the atomization pool 12, the side surface of the atomization pool 12 is marked with a highest liquid level line, in the use process, the liquid level in the atomization pool 12 is lower than or equal to the highest liquid level line, the position of the third outlet is higher than or equal to the highest liquid level line, and preferably, the position of the third outlet is equal to the highest liquid level line. On one hand, when the liquid level in the atomization pool 12 is higher than the highest liquid level line, the liquid in the atomization pool 12 can flow back into the liquid bottle 3 through the third outlet, so that the liquid level in the atomization pool 12 is prevented from being too high; on the other hand, when the liquid in the atomization pool 12 is lower than the third outlet, the gas in the atomization pool 12 can be communicated with the gas in the liquid bottle 3 through the third outlet, so that the pressures of the gas in the atomization pool 12 and the gas in the liquid bottle 3 are equal, and the atomization system 1 can continuously and stably work. At this time, the first outlet is the liquid outlet of the atomization system 1, and the third outlet is the gas outlet and the liquid outlet of the atomization system 1 at the same time.

As some embodiments of this application, be equipped with 1

import

13 and 3 exports 14 on the atomizing pond 12, import 13 is connected or directly is connected with liquid bottle 3 through subassembly such as valves, export 14 is connected with liquid bottle 3's liquid level top respectively, liquid bottle 3 is located the top of atomizing pond 12, the vertical setting of atomizing piece 11 is in on the side of atomizing pond 12. The liquid in the liquid bottle 3 spontaneously flows into the atomization pool 12 under the action of gravity or pressure and the like. The inlet 13 can be arranged at any position on the atomization pool 12; 3 export 14 be regarded as first export, second export and third export respectively, first export is located the bottom of atomizing pond 12, be equipped with the control valve on the first export, liquid in the atomizing pond 12 can pass through first export outflow atomizing pond 12 is retrieved through outside recovery unit. Or the first outlet is provided with a power component such as a pump, and the liquid in the atomization pool 12 can flow back to the liquid bottle 3 through the first outlet; the second outlet is positioned at the top of the atomization pool 12, and the air in the atomization pool 12 and the liquid bottle 3 mutually circulates through the second outlet. The third outlet is located on the side surface of the atomization pool 12, the highest liquid level line is carved on the side surface of the atomization pool 12, the third outlet is located on the highest liquid level line, and the third outlet is used for controlling the liquid level in the atomization pool 12 not to be higher than the highest liquid level line. At this time, the first outlet is the liquid outlet of the atomization system 1, the second outlet is the gas outlet of the atomization system 1, and the third outlet is the gas outlet and the liquid outlet of the atomization system 1.

As some embodiments of this application, be equipped with 1

import

13 and 2 exports 14 on the atomizing pond 12, import 13 is connected with liquid bottle 3 through power component 2, atomizing piece 11 is vertical to be set up on the side of atomizing pond 12. The 2 outlets 14 are respectively marked as a first outlet and a second outlet, the second outlet is located on the side surface of the atomization pool 12, a highest liquid level line is marked on the side surface of the atomization pool 12, in the use process, the liquid level in the atomization pool 12 should be lower than or equal to the highest liquid level line, the position of the second outlet is higher than the highest liquid level line, the second outlet is communicated with the lower part of the liquid level of the liquid bottle 3 through a pipeline, when the gas pressure in the atomization pool 12 is higher than the gas pressure in the liquid bottle 3, the liquid level in the pipeline connecting the second outlet and the liquid bottle 3 is reduced under the action of the gas pressure until the gas pressure in the atomization pool 12 is equal to the gas pressure in the liquid bottle 3; when the gas pressure in the atomization pool 12 is lower than the gas pressure in the liquid bottle 3, the liquid level in the pipeline connecting the second outlet and the liquid bottle 3 rises under the action of the gas pressure until the gas pressure in the atomization pool 12 is equal to the gas pressure in the liquid bottle 3, so that the effect of balancing the gas pressures in the atomization pool 12 and the liquid bottle 3 is achieved through the rising and falling of the liquid level in the pipeline connecting the second outlet and the liquid bottle 3. The first outlet is positioned at the bottom of the atomization pool 12 and is communicated with the liquid bottle 3 through a control valve and a pipeline. At this time, the first outlet is the liquid outlet of the atomization system 1, and the second outlet is the gas outlet of the atomization system 1.

As some embodiments of this application, the atomizing pond 12 is the tubulose, the feed liquor end of atomizing pond 12 is promptly import 13, the play liquid end of atomizing pond 12 is promptly export 14, atomizing piece 11 sets up on the tubulose surface of atomizing pond 12.

Preferably, the atomization pool 12 is tubular, and the cross-sectional area of the inlet end, i.e. the inlet 13, of the atomization pool 12 is larger than the cross-sectional area of the outlet end, i.e. the outlet 14, of the atomization pool 12.

As some embodiments of the present application, the atomization system 1 includes a plurality of atomization plates 11, and the atomization plates 11 may be disposed at any position of the atomization pool 12.

Preferably, the atomizing plate 11 is disposed on the top of the atomizing chamber 12.

Example 7

Specifically, as shown in fig. 5 to 7, an atomization system 1 includes an atomization plate 11 and an atomization tank 12, where the atomization tank 12 is provided with an inlet 13 and an outlet 14.

Further, the atomization system 1 further includes a sensor including an in-tank sensor 15 located within the atomization tank 12, the in-tank sensor 15 configured to detect liquid within the atomization tank 12.

Still further, the sensor further includes an off-tank sensor 16 located outside the nebulization tank 12, the off-tank sensor 16 being configured to detect air outside the nebulization tank 12.

Preferably, the in-tank sensor 15 is capable of detecting the level and properties of the liquid in the nebulization tank 12, including but not limited to viscosity, temperature, surface tension, etc. of the liquid; the in-tank sensor 15 includes, but is not limited to, a viscosity sensor, a temperature sensor, a surface tension sensor, and the like. The off-tank sensor 16 is capable of detecting air parameters outside the atomization tank 12, including but not limited to temperature, humidity, PM2.5, formaldehyde content, TVOC content, etc.; the off-tank sensor 16 includes, but is not limited to, a temperature sensor, a humidity sensor, a PM2.5 content detection sensor, a formaldehyde content detection sensor, a TVOC content detection sensor, and the like.

Example 8

As shown in fig. 8, the present invention further provides a control method of an atomization system, where the atomization system is used in the atomization system 1, and the control method includes:

step S1: the in-tank sensor 15 detects the liquid level in the atomization tank 12;

step S2: judging whether the liquid level in the atomization pool 12 is less than a set value; if yes, judging that the liquid amount in the atomization pool 12 is too low, conveying the liquid into the atomization pool 12, and continuing to execute the step S1; if not, the liquid amount in the atomization pool 12 is judged to be sufficient, the atomization sheet 11 starts to work, and the step S3 is continuously executed;

step S3: the in-tank sensor 15 detects the property of the liquid in the atomization tank 12;

step S4: the vibration frequency of the atomizing plate 11 is controlled according to the properties of the liquid in the tank.

Specifically, when the atomization system 1 works, the in-tank sensor 15 is started to detect the liquid level height in the atomization tank 12, and then whether the liquid level in the atomization tank 12 is less than a set value is judged according to the liquid level height value detected by the in-tank sensor 15; if yes, determining that the liquid amount in the atomization pool 12 is too low, starting the power assembly 2 to convey liquid into the atomization pool 12, executing step S1 again, detecting the liquid level height in the atomization pool 12 until the liquid level height in the atomization pool 12 is larger than or equal to a set value, determining that the liquid amount in the atomization pool 12 is sufficient, starting the atomization sheet 11 to start working, starting the in-pool sensor 15 to detect the liquid attribute in the atomization pool 12, and finally controlling the vibration frequency of the atomization sheet 11 according to the liquid attribute detection result in the atomization pool 12 to achieve a better atomization effect or adjust the size of the mist output.

When no liquid exists in the atomization pool 12, the liquid level height value detected by the sensor 15 in the pool is zero. The liquid properties include, but are not limited to, viscosity, temperature, surface tension, etc. of the liquid, and according to the detection data of the liquid properties, the atomization system 1 can adjust the vibration frequency of the atomization sheet 11 to obtain the optimal atomization effect and adjust the amount of the atomized mist.

Example 9

As shown in fig. 9, the present invention further provides a control method of an atomization system, where the atomization system is used in the atomization system 1, and the control method includes:

step S3: an in-tank sensor 15 detects the property of the liquid in the atomization tank 12, and an out-tank sensor 16 detects the air parameter outside the tank;

step S4: and controlling the vibration frequency of the atomizing plate 11 according to the property of the liquid in the tank and the air parameter outside the tank.

Preferably, the air outside the pool is the air of the environment where the atomization system 1 is located. More preferably, the air outside the pool is air of an indoor environment where the atomization system 1 is located.

As some embodiments of the present application, the atomization system 1 further includes a control portion, which is capable of receiving detection data of the in-tank sensor 15 and the out-tank sensor 16, and controlling the vibration frequency of the atomization sheet 11 according to the received detection data.

As some embodiments of the present application, the atomization system 1 includes a plurality of in-tank sensors 15 and a plurality of out-of-tank sensors 16, each of which can detect different detection items and different positions respectively.

As some examples of the present application, the atomization system 1 may also be set by the manufacturer or the user to operate in a certain mode. For example, a manufacturer may set the vibration frequency of the atomizing plate 11, so that the detection data of each set of the in-tank sensor 15 and the out-of-tank sensor 16 has the optimum vibration frequency of the atomizing plate 11 corresponding to one of the in-tank sensor and the out-of-tank sensor, and prestore the vibration frequency setting structure of the atomizing plate 11 in the atomizing system 1, at this time, if the atomizing system 1 is started, the atomizing plate 11 will operate according to the set vibration frequency, so that the atomizing system 1 can obtain the optimum mist outlet effect.

Example 10

The utility model also provides a control method of atomizing system, atomizing system is used for foretell atomizing system 1, control method includes:

step p 1: the outside-pool sensor 16 detects the outside-pool air parameters and judges whether the outside-pool air parameters meet set conditions; if yes, go on to step p 2; if not, after the interval time t, executing the step p1 again;

step p 2: the in-tank sensor 15 detects the liquid level in the atomization tank 12 and judges whether the liquid level in the atomization tank 12 is less than a set value; if yes, judging that the liquid amount in the atomization pool 12 is too low, conveying the liquid into the atomization pool 12, and continuing to execute the step p 2; if not, judging that the liquid amount in the atomization pool 12 is sufficient, and continuing to execute the step p 3;

step P3: the in-tank sensor 15 detects the property of the liquid in the atomization tank 12, and the out-tank sensor 16 detects the out-tank air parameter again;

step P4: and controlling the vibration frequency of the atomizing plate 11 according to the property of the liquid in the tank and the air parameter outside the tank.

In step p1 of this embodiment, the set conditions may be the outside air temperature, humidity, formaldehyde content, PM2.5 content, and the like. If the outside-tank sensor 16 detects the outside-tank air humidity, judging whether the outside-tank air humidity is less than a set value; if yes, go on to step p 2; if not, after the interval time t, step p1 is executed again. The outdoor air can be monitored by the step P1, so that the atomization system 1 can be turned on intelligently.

The above description is only a preferred embodiment of the present invention, and should not be taken as limiting the invention, and any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention should be included in the protection scope of the present invention.

Claims

1. The utility model provides an atomizer, its characterized in that, the atomizer includes liquid bottle (3), power component (2) and atomizing system (1), liquid bottle (3), power component (2) and atomizing system (1) form circulation system through the pipe connection, power component (2) can with liquid in the liquid bottle (3) is carried extremely with liquid or foam state in atomizing system (1), atomizing system (1) can be with the liquid atomization who gets into it, the discharge port of atomizing system (1) with liquid bottle (3) are linked together, make liquid in atomizing system (1) can flow back extremely in liquid bottle (3).

2. The atomizer according to claim 1, wherein the liquid bottle (3) is connected to the power assembly (2) or the atomization system (1) through a liquid inlet pipe (4), one end of the liquid inlet pipe (4) is connected to the liquid inlet of the power assembly (2) or the atomization system (1), and the other end extends below the liquid level in the liquid bottle (3).

3. The atomizer according to claim 2, characterized in that the liquid bottle (3) is connected to the power assembly (2) or the atomizing system (1) through a return pipe (6), one end of the return pipe (6) is connected to the liquid outlet of the power assembly (2) or the discharge port of the atomizing system (1), and the other end extends into the liquid bottle (3).

4. The atomizer according to claim 1, wherein the liquid bottle (3) is communicated with the power assembly (2) through a liquid inlet pipe (4), one end of the liquid inlet pipe (4) is communicated with the liquid inlet of the power assembly (2), and the other end of the liquid inlet pipe (4) extends into the liquid bottle (3) below the liquid level; the liquid outlet of the power assembly (2) is communicated with the liquid inlet of the atomization system (1) through a connecting pipe (5); the discharge port of the atomization system (1) is communicated with the liquid bottle (3) through a return pipe (6), one end of the return pipe (6) is communicated with the discharge port of the atomization system (1), and the other end of the return pipe extends into the liquid bottle (3).

5. The atomizer according to claim 1, wherein the liquid bottle (3) is communicated with the atomization system (1) through a liquid inlet pipe (4), one end of the liquid inlet pipe (4) is connected with a liquid inlet of the atomization system (1), and the other end of the liquid inlet pipe (4) extends into the liquid bottle (3) below the liquid level; the discharge port of the atomization system (1) is communicated with the liquid inlet of the power assembly (2) through a connecting pipe (5); the liquid outlet of the power component (2) is communicated with the liquid bottle (3) through a return pipe (6), one end of the return pipe (6) is communicated with the liquid outlet of the power component (2), and the other end of the return pipe extends into the liquid bottle (3).

6. Atomiser according to claim 1, characterised in that the liquid bottle (3) and the power assembly (2) are connected by a liquid inlet pipe (4), the power assembly (2) and the liquid inlet pipe (4) being located below the liquid level in the liquid bottle (3); the liquid outlet of the power assembly (2) is communicated with the liquid inlet of the atomization system (1) through a connecting pipe (5); the discharge port of the atomization system (1) is communicated with the liquid bottle (3) through a return pipe (6), one end of the return pipe (6) is communicated with the discharge port of the atomization system (1), and the other end of the return pipe extends into the liquid bottle (3).

7. The atomizer according to claim 1, wherein the liquid bottle (3) is communicated with the atomization system (1) through a liquid inlet pipe (4), one end of the liquid inlet pipe (4) is communicated with the liquid inlet of the atomization system (1), and the other end of the liquid inlet pipe extends into the liquid bottle (3) below the liquid level; the discharge port of the atomization system (1) is communicated with the liquid inlet of the power assembly (2) through a connecting pipe (5); the liquid outlet of the power component (2) is communicated with the liquid bottle (3) through a return pipe (6), one end of the return pipe (6) is communicated with the liquid outlet of the power component (2), and the other end of the return pipe extends into the liquid bottle (3).

8. Atomiser according to one of claims 3 to 7, characterised in that the feed pipe (4) comprises one or more feed channels and the return pipe (6) comprises at least one return channel and at least one gas phase channel.

9. The atomizer according to claim 1, characterized in that said atomizing system (1) comprises an atomizing plate (11) and an atomizing chamber (12), said atomizing plate (11) can atomize the liquid in said atomizing chamber (12), said atomizing chamber (12) is provided with an inlet (13), an outlet (14) and an atomizing opening, said atomizing plate (11) is disposed on said atomizing opening, the external liquid and/or gas can enter said atomizing chamber (12) from said inlet (13), the liquid and/or gas in said atomizing chamber (12) can exit said atomizing chamber (12) from said outlet (14), said atomizing plate (11) is a microporous piezoelectric vibrating plate.