CN117399191A

CN117399191A - Electrostatic atomizing system

Info

Publication number: CN117399191A
Application number: CN202210801653.4A
Authority: CN
Inventors: 李卫华; 杨俊�; 王开元
Original assignee: Shenzhen Smoore Technology Ltd
Current assignee: Shenzhen Smoore Technology Ltd
Priority date: 2022-07-08
Filing date: 2022-07-08
Publication date: 2024-01-16

Abstract

The invention relates to an electrostatic atomization system, which comprises a first liquid storage tank for storing a first solution, a first spray head module connected with the first liquid storage tank, a first high-voltage generation module for applying a first high-voltage to the first solution, a second liquid storage tank for storing a second solution, a second spray head module connected with the second liquid storage tank, and a second high-voltage generation module for applying a second high-voltage with polarity opposite to that of the first high-voltage to the second solution. The first spray sprayed by the first spray head module can be opposite-impact mixed with the second spray sprayed by the second spray head module. The electrostatic atomization system can greatly improve the atomization amount in a positive and negative spray opposite impact mode, so that the requirements of aerosol particle size adjustment and high flow rate can be met at the same time, and atomized spray can be electrified or uncharged as required.

Description

Electrostatic atomizing system

Technical Field

The present invention relates to the field of atomization, and more particularly, to an electrostatic atomization system.

Background

The existing electronic atomization device mainly uses a heating component to atomize a solution at the temperature of about 300 ℃. The solution in this atomizing mode may undergo a series of chemical reactions at high temperature, possibly resulting in the generation of harmful substances such as aldehyde ketone and the like. In addition, the particle size of aerosol atomized by the conventional electronic atomizing device is about 1 micrometer, and the particle size of aerosol cannot be controlled in a large range.

The electrostatic atomization technique can solve the above problems well. The existing mature electrostatic atomization technology is mainly applied to mass spectrum, pesticide spraying and environment disinfection. In the application of mass spectrometry, although the particle size after atomization reaches the standard (< 2 um), the flow is very small, which is one tenth of the target flow of an electronic atomization device (such as an electronic cigarette), and the requirement for large atomization amount cannot be met. In pesticide spraying and environmental disinfection applications, the aerosol particle size is too large (tens of microns) despite the large flow rate, and too large an aerosol particle size can cause most of the aerosol particles to deposit in the oro-laryngeal area and not enter the lungs. In summary, in the conventional electrostatic atomization technology, the atomization flow rate is not enough, or the particle size of aerosol generated by atomization is too large.

Disclosure of Invention

The present invention has been made to solve the above-mentioned problems occurring in the prior art, and it is an object of the present invention to provide an improved electrostatic atomizing system.

The technical scheme adopted for solving the technical problems is as follows: an electrostatically atomizing system is constructed comprising:

a first reservoir for storing a first solution,

a first spray head module connected with the first liquid storage tank,

a first high voltage generating module for applying a first high voltage to the first solution,

a second reservoir for storing a second solution,

a second spray head module connected with the second liquid storage tank, and

a second high voltage generation module for applying a second high voltage having a polarity opposite to that of the first high voltage to the second solution;

the first spray sprayed by the first spray head module can be opposite-impact mixed with the second spray sprayed by the second spray head module.

In some embodiments, the electrostatically atomizing system further comprises a counter electrode disposed between the first showerhead module and the second showerhead module.

In some embodiments, the opposing electrode is a ground electrode.

In some embodiments, the first spray head module includes a plurality of first spray heads arranged in an array, and the second spray head module includes a plurality of second spray heads arranged in an array.

In some embodiments, the first plurality of spray heads and the second plurality of spray heads are respectively arranged in a circular array.

In some embodiments, the counter electrode is annular in shape.

In some embodiments, the first spray heads and the second spray heads are respectively arranged in a linear array.

In some embodiments, the counter electrode is sheet-like with at least one channel formed thereon for the passage of the first spray and the second spray.

In some embodiments, the at least one channel comprises one channel configured to pass a first spray from the first plurality of spray heads and a second spray from the second plurality of spray heads.

In some embodiments, the at least one channel includes a plurality of channels disposed in one-to-one correspondence with the plurality of first nozzles and the plurality of second nozzles, respectively.

In some embodiments, the spray after mixing the first spray and the second spray is charged or uncharged.

In some embodiments, the electrostatically atomizing system further comprises a first booster pump connected to the first reservoir and a second booster pump connected to the second reservoir.

In some embodiments, the electrostatic atomization system further comprises a housing and a suction nozzle disposed at one side of the housing, wherein the first liquid storage tank and the second liquid storage tank are both accommodated in the housing.

In some embodiments, the housing is provided with at least one air inlet aperture for ambient air to enter the housing.

The implementation of the invention has at least the following beneficial effects: the electrostatic atomization system can greatly improve the atomization amount in a positive and negative spray opposite impact mode, so that the requirements of aerosol particle size adjustment and high flow rate can be met at the same time, and atomized spray can be electrified or uncharged as required.

Drawings

The invention will be further described with reference to the accompanying drawings and examples, in which:

fig. 1 is a schematic configuration diagram of an electrostatically atomizing system in a first embodiment of the present invention;

FIG. 2 is an array layout of the first spray head module of FIG. 1;

FIG. 3 is a top view of the first and second showerhead modules of FIG. 1;

FIG. 4 illustrates an alternative arrangement of the first and second spray head modules of FIG. 3;

fig. 5 is a schematic structural view of an electrostatically atomizing system in a second embodiment of the present invention;

FIG. 6 is an array layout of the first spray head module of FIG. 5;

fig. 7 is a schematic view showing a part of the structure of an electrostatically atomizing system in the third embodiment of the present invention;

FIG. 8 is a schematic view of the structure of the counter electrode of FIG. 7;

FIG. 9 is a schematic structural view of an alternative to the counter electrode shown in FIG. 8;

fig. 10 is a schematic view showing a part of the structure of an electrostatically atomizing system in the fourth embodiment of the present invention.

Detailed Description

For a clearer understanding of technical features, objects and effects of the present invention, a detailed description of embodiments of the present invention will be made with reference to the accompanying drawings. In the following description, numerous specific details are set forth in order to provide a thorough understanding of the present invention. The present invention may be embodied in many other forms than described herein and similarly modified by those skilled in the art without departing from the spirit of the invention, whereby the invention is not limited to the specific embodiments disclosed below.

Fig. 1 shows an electrostatically atomizing system 100 in a first embodiment of the present invention, which electrostatically atomizing system 100 may comprise a first spray head module 61, a first liquid reservoir 31 for storing a first solution 41 and supplying the first solution 41 to the first spray head module 61, a first high-pressure generating module 51 for applying a first high-pressure electric power to the first solution 41, a second spray head module 62, a second liquid reservoir 32 for storing a second solution 42 and supplying the second solution 42 to the second spray head module 62, and a second high-pressure generating module 52 for applying a second high-pressure electric power to the second solution 42.

The electrostatic atomization system 100 may be applied to medical, cosmetic, electronic cigarette fields, and the like. The first solution 41 and the second solution 42 are electrostatically nebulizable solutions, and the solution components of the first solution 41 and the second solution 42 may be the same or different. In order to facilitate electrostatic atomization of the first solution 41 and the second solution 42, the first solution 41 and the second solution 42 should have certain physical properties, such as a relatively high viscosity (e.g., a viscosity of less than 400 cp), a certain resistivity, a certain dielectric constant, a certain surface tension, and the like. In some embodiments, the resistivity of the first solution 41, the second solution 42 is greater than 200ohm-m, and further, greater than 250ohm-m. The dielectric constants of the first solution 41 and the second solution 42 are less than 65, and further less than 45. The viscosity of the first solution 41 and the second solution 42 is less than 100cp, and further, less than 50cp. The surface tension of the first solution 41 and the second solution 42 may be 15 to 50dynes/cm, and further, 20 to 35dynes/cm.

The polarity of the first high voltage applied by the first high voltage generating module 51 is opposite to the polarity of the second high voltage applied by the second high voltage generating module 52. Taking the first high-voltage electricity as a positive high-voltage electricity and the second high-voltage electricity as a negative high-voltage electricity as an example, the first high-voltage generation module 51 applies the positive high-voltage electricity to the first solution 41 so that the first solution 41 is positively charged, and the first spray head module 61 electrostatically atomizes the positively charged first solution 41 and sprays the positively charged first solution in the form of positive spray; the second high voltage generation module 52 applies negative high voltage to the second solution 42 to negatively charge the second solution 42, and the second spray head module 62 electrostatically atomizes and sprays the negatively charged second solution 42 in the form of a negative spray. The positively charged positive spray and the negatively charged negative spray are mixed by opposite impact at a certain angle and then neutralized to form uncharged mixed spray, so as to be beneficial to entering the lung of a person and avoid a large amount of charged aerosol from depositing on the mouth and throat; or, according to the application scenario, the mixed spray generated after the opposite flushing of the positively charged positive spray and the negatively charged negative spray is charged, so as to achieve the effect of improving the adsorption rate. It will be appreciated that in other embodiments, the first high voltage may be a negative high voltage and the second high voltage may be a positive high voltage.

The electrostatic atomization system 100 can greatly improve the atomization amount by adopting a positive and negative spray opposite flushing mode, solves the problem that under the condition of high flow (for example, ten times higher than the prior art), the solution can still be electrostatically atomized, and the aerosol particle size is adjustable. Specifically, the particle size (e.g., several micrometers to several tens micrometers) of the aerosol generated after atomization can be regulated by adjusting control parameters (e.g., parameters such as voltage, polar distance, pore diameter and number of spray heads, flow rate, and the like, and parameters such as conductivity, surface tension, and the like of the solution). In addition, the electrostatic atomization is normal-temperature atomization, so that the generation of harmful substances can be greatly reduced. Finally, compared with the traditional electronic atomization technology (ceramic, cotton core and the like), the electrostatic atomization technology is used for atomizing the solution with the same quality, the power used is 50% of that of the traditional technology, and the energy consumption is greatly reduced.

The first high pressure generating module 51 may be directly connected with the first solution 41; alternatively, the first high-pressure generating module 51 may be indirectly connected to the first solution 41, for example, the first high-pressure generating module 51 may be electrically connected to the first liquid tank 31 and/or the first head module 61, so that the first solution 41 in the first liquid tank 31 and/or the first head module 61 is charged. Similarly, the second high pressure generation module 52 may be directly connected to the second solution 42; alternatively, the second high pressure generation module 52 may be indirectly connected to the second solution 42, for example, the second high pressure generation module 52 may be electrically connected to the second reservoir 32 and/or the second spray head module 62, thereby electrically charging the second solution 42 within the second reservoir 32 and/or the second spray head module 62.

The electrostatically atomizing system 100 further comprises a suction nozzle 70 for outputting the aerosol. The aerosol generated after the atomization of the electrostatic atomization system 100 may be actively carried out by an air flow, for example, the air flow may be provided by providing an air supply device to blow out the aerosol. Alternatively, the aerosol generated after the atomization of the electrostatic atomization system 100 may be drawn by the user, specifically, in this embodiment, the electrostatic atomization system 100 includes at least one air inlet 81, and when the user sucks the suction nozzle 70, the external air enters through the at least one air inlet 81 and flows through the first nozzle module 61 and the second nozzle module 62 to draw the aerosol out of the suction nozzle 70. It will be appreciated that the electrostatically atomizing system 100 may also be in a mode in which it is actively entrained in part by the air flow and is actively entrained in part by the suction of the user, for example, while the air supply means is actively providing the air flow, the user is simultaneously sucking in the suction nozzle 70.

In some embodiments, the electrostatically atomizing system 100 may further comprise a first booster pump 21 and a second booster pump 22. The first booster pump 21 is connected to the first liquid tank 31, and is configured to apply pressure to the first liquid tank 31 to force the first solution 41 in the first liquid tank 31 to be ejected from the first head module 61. The second booster pump 22 is connected to the second reservoir 32 for applying pressure to the second reservoir 32 to force the second solution 42 in the second reservoir 32 to be sprayed from the second spray head module 62. The first booster pump 21 and the second booster pump 22 are usually micro booster pumps, which is advantageous in terms of the miniaturization of the structure of the electrostatic atomizing system 100.

Further, the electrostatically atomizing system 100 further comprises a first voltage controller 11 and a second voltage controller 12. The first and second voltage controllers 11 and 12 are connected to the first and second booster pumps 21 and 22, respectively, to control operations of the first and second booster pumps 21 and 22. The first voltage controller 11 and the second voltage controller 12 can control the compression volumes of the first liquid storage tank 31 and the second liquid storage tank 32 by controlling the first booster pump 21 and the second booster pump 22, thereby controlling the pushed-out quality of the first solution 41 and the second solution 42 and realizing quantitative atomization. In addition, after the single atomization is completed, a part of the solution may remain in the first spray head module 61 and the second spray head module 62, and as the solvent in the solution volatilizes, the spray head may be blocked by the solute. Therefore, after atomization is completed, the first booster pump 21 and the second booster pump 22 can be controlled to move reversely through the first voltage controller 11 and the second voltage controller 12, so that negative pressure is formed in the first liquid storage tank 31 and the second liquid storage tank 32, and the solution in the spray nozzle is sucked back.

In some embodiments, the electrostatically atomizing system 100 further comprises a housing 80 which is configured to house the first liquid storage tank 31, the second liquid storage tank 32, the first booster pump 21, the second booster pump 22, the first showerhead module 61, the second showerhead module 62, the first high pressure generating module 51, the second high pressure generating module 52, the air blowing device, and the like. The suction nozzle 70 is disposed at one side of the housing 80, and at least one air inlet 81 is disposed on at least one sidewall of the housing 80. In this embodiment, there are a plurality of air intake holes 81, and the plurality of air intake holes 81 are disposed on one side wall of the housing 80 opposite to the suction nozzle 70. It will be appreciated that the arrangement of the air inlet holes 81 is not limited to the above, and for example, there may be only one air inlet hole 81, and for example, a plurality of air inlet holes 81 may be distributed on different sides of the housing 80, so long as the air flow entering from the air inlet holes 81 can better carry the aerosol out of the mouthpiece 70.

In addition, in some embodiments, the electrostatically atomizing system 100 may further comprise other auxiliary devices as needed, such as a stirrer for stirring the solution in the first liquid storage tank 31 and/or the second liquid storage tank 32, a gas pressure sensor for detecting the gas pressure in the first liquid storage tank 31 and/or the second liquid storage tank 32, a refrigerator for refrigerating the solution in the first liquid storage tank 31 and/or the second liquid storage tank 32, and the like.

As shown in fig. 2-3, the first spray head module 61 includes a plurality of first spray heads 610 and the second spray head module 62 includes a plurality of second spray heads 620. In this embodiment, the first nozzles 610 and the second nozzles 620 are arranged in a linear shape, and the first nozzles 610 and the second nozzles 620 are arranged in a staggered manner, so that the arrangement mode can maximally utilize the space, and the effects of meeting the requirement of atomization amount and saving space are achieved. Further, the axial direction of the first spray heads 610 and the axial direction of the second spray heads 620 are disposed at a certain angle, so that the spray ejected from the first spray heads 610 can be opposite-impact mixed with the spray ejected from the second spray heads 620.

Specifically, in the present embodiment, the plurality of first spray nozzles 610 are uniformly spaced along a straight line in the middle of the sidewall of the first liquid storage tank 31, the plurality of second spray nozzles 620 are uniformly spaced along a straight line in the middle of the sidewall of the second liquid storage tank 32, and the plurality of first spray nozzles 610 and the plurality of second spray nozzles 620 are alternately arranged one by one. In other embodiments, the first nozzles 610 and the second nozzles 620 may be alternately arranged in other manners, such as two-by-two alternating arrangement.

Further, the two first spray heads 610 located at the two ends of the straight line of the plurality of first spray heads 610 are blocked from discharging liquid, and the two second spray heads 620 located at the two ends of the straight line of the plurality of second spray heads 620 are blocked from discharging liquid. In addition, the lengths of the plurality of first spray heads 610 are different, and in particular, the lengths of the plurality of first spray heads 610 gradually decrease from the center to the both ends, i.e., the lengths of the first spray heads 610 positioned in the middle of the straight line are longer and the lengths of the first spray heads 610 positioned at the both ends of the straight line are shorter. Similarly, the lengths of the plurality of second spray heads 620 are different, and in particular, the lengths of the plurality of second spray heads 620 gradually decrease from the center to the both ends, i.e., the lengths of the second spray heads 620 positioned in the middle of the straight line are longer and the lengths of the second spray heads 620 positioned at the both ends of the straight line are shorter. This arrangement ensures that the electric field is uniform and that the first and second head modules 61, 62 can spray stably. In other embodiments, the plurality of first nozzles 610 and the plurality of second nozzles 620 may have the same length.

In some embodiments, first nozzle 610 and second nozzle 620 may each be a metallic needle cannula. In other embodiments, the materials of the first nozzle 610 and the second nozzle 620 may also be non-metallic materials, such as insulating hydrophobic oleophobic materials.

Fig. 4 shows a schematic layout of a first nozzle module 61 and a second nozzle module 62 in an alternative embodiment of the invention. In this embodiment, the first nozzles 610 and the second nozzles 620 are also staggered. Unlike the embodiment shown in fig. 3, the plurality of first nozzles 610 and the plurality of second nozzles 620 in the present embodiment are arranged in a two-by-two alternating manner. Specifically, every two first spray heads 610 form a group of first spray heads 610, every two second spray heads 620 form a group of second spray heads 620, and every group of first spray heads 610 and every group of second spray heads 620 are alternately arranged one by one. Further, in the present embodiment, two first ejection heads 610 of each set of first ejection heads 610 have the same length, and the lengths of the plurality of sets of first ejection heads 610 gradually decrease from the center to both ends; two second ejection heads 620 of each set of second ejection heads 620 have the same length, and the lengths of the plurality of sets of second ejection heads 620 gradually decrease from the center to both ends.

It will be appreciated that in other embodiments, the configuration of the first showerhead module 61 and the second showerhead module 62 includes, but is not limited to, the structural designs described above. For example, each set of first jets 610 and each set of second jets 620 may also have different lengths. For another example, each of the first and second spray heads 610 and 620 may be composed of three or more spray heads.

Fig. 5 to 6 show an electrostatic atomizing system 100 according to a second embodiment of the present invention, which is mainly different from the first embodiment described above in that the first head module 61 and the second head module 62 in this embodiment are arranged in a circular array, and in addition, the electrostatic atomizing system 100 according to this embodiment further includes a counter electrode 90 disposed between the first head module 61 and the second head module 62.

Specifically, the first spray heads 610 of the first spray head module 61 are uniformly arranged in a circular array on a side wall of the first liquid storage tank 31, the second spray heads 620 of the second spray head module 62 are uniformly arranged in a circular array on a side wall of the second liquid storage tank 32, and the first spray heads 610 and the second spray heads 620 are disposed in a one-to-one opposite manner. In addition, the lengths of the plurality of first nozzles 610 are uniform, and the lengths of the plurality of second nozzles 620 are uniform. The spray heads distributed in the circular array can ensure that each spray head on the circumference can stably spray mist, and the interference between the spray heads due to the action of an electric field is reduced.

The counter electrode 90 is disposed in the middle of the first head module 61 and the second head module 62, and the center line of the counter electrode 90, the center line of the first head module 61, and the center line of the second head module 62 are aligned. The counter electrode 90 is typically a grounded electrode and serves to ensure a uniform and stable electric field, resulting in a more stable spray. The first high voltage generation module 51 is configured to apply a high voltage between the first showerhead module 61 and the counter electrode 90, thereby forming a high voltage electric field between the first showerhead module 61 and the counter electrode 90, which pulls the solution of the first showerhead module 61 toward the counter electrode 90. The second high voltage generation module 52 is configured to apply a high voltage between the second showerhead module 62 and the counter electrode 90, thereby forming a high voltage electric field between the second showerhead module 62 and the counter electrode 90, which pulls the solution of the second showerhead module 62 toward the counter electrode 90. The counter electrode 90 has a passage 91 through which the spray of the first head module 61 and the second head module 62 can pass. In the present embodiment, the counter electrode 90 has a circular ring shape, and the inner diameter of the counter electrode 90 is larger than the ejection diameters of the first head module 61 and the second head module 62, so that the spray ejected from the first head module 61 and the spray ejected from the second head module 62 can enter the counter electrode 90 for counter-impact mixing.

The electrostatic atomizing system 100 according to the present embodiment can atomize a solution having a relatively high viscosity by electrostatic atomization even at a normal temperature (e.g., 25 ℃) and a high flow rate (e.g., 0.15 ml/min) by means of the positive and negative spray opposite flushing.

Fig. 7 is a schematic view showing a part of the structure of an electrostatic atomizing system 100 in a third embodiment of the present invention. Unlike the second embodiment described above, the first head modules 61 and the second head modules 62 in this embodiment are arranged in a linear array. The axial direction of the first head module 61 may be parallel to the axial direction of the second head module 62, or may be at an angle to the axial direction of the second head module 62.

Specifically, the plurality of first spray heads 610 of the first spray head module 61 are arranged at intervals along a straight line on one side wall of the first liquid storage tank 31, and the plurality of second spray heads 620 of the second spray head module 62 are arranged at intervals along a straight line on one side wall of the second liquid storage tank 32. The plurality of first nozzles 610 are disposed in one-to-one opposition to the plurality of second nozzles 620, respectively. Specifically, when the axial direction of the first head module 61 is parallel to the axial direction of the second head module 62, the central axis of one first head 610 is aligned with the central axis of the corresponding one second head 620; when the axial direction of the first head module 61 and the axial direction of the second head module 62 form an angle, an extension line of the central axis of one first head 610 intersects with an extension line of the central axis of a corresponding one second head 620.

Further, in the present embodiment, the lengths of the plurality of first spray heads 610 gradually decrease from the center to the both ends, that is, the lengths of the first spray heads 610 positioned in the middle of the straight line are longer and the lengths of the first spray heads 610 positioned at the both ends of the straight line are shorter. The lengths of the plurality of second spray heads 620 gradually decrease from the center to both ends, i.e., the lengths of the second spray heads 620 located in the middle of the straight line are longer, and the lengths of the second spray heads 620 located at both ends of the straight line are shorter. This arrangement is advantageous in improving the uniformity of the electric field and ensures stable spraying of the first and second head modules 61, 62. Further, the two first nozzles 610 located at the two ends of the straight line of the first nozzles 610 are blocked and do not discharge liquid, and the two second nozzles 620 located at the two ends of the straight line of the second nozzles 620 are blocked and do not discharge liquid, so that other nozzles can spray stably.

The opposite electrode 90 is disposed between the first and second spray head modules 61 and 62, for ensuring uniformity and stability of the electric field, so that the spray is more stable. The counter electrode 90 in the present embodiment may adopt, but is not limited to, a sheet-like structure shown in fig. 8 or 9. In fig. 8, there are a plurality of channels 91, and the number of channels 91 is the same as the number of first nozzles 610 and the number of second nozzles 620, and the plurality of channels 91 are respectively arranged in one-to-one correspondence with the plurality of first nozzles 610 and the plurality of second nozzles 620. In fig. 9, the passage 91 has one elongated slit shape, and the length direction thereof is parallel to the arrangement direction of the plurality of first nozzles 610 and the plurality of second nozzles 620, so that the spray from the plurality of first nozzles 610 and the spray from the plurality of second nozzles 620 can pass through the one passage 91. It is to be understood that, in other embodiments, the number of the channels 91 is not limited to the two embodiments described above, and for example, one channel 91 may be provided corresponding to two or more first nozzles 610 (or second nozzles 620).

Fig. 10 shows a partial schematic structure of an electrostatically atomizing system 100 in a fourth embodiment of the present invention, which is mainly different from the above-described third embodiment in that the lengths of the plurality of first ejection heads 610 and the lengths of the plurality of second ejection heads 620 are the same in this embodiment. The counter electrode 90 in this embodiment may also have a structure shown in, but not limited to, fig. 8 or 9.

It will be appreciated that in the second, third and fourth embodiments described above, the arrangement of the first and second spray head modules 61 and 62 occupies a relatively large space inside the electrostatic atomizing system 100, and thus is suitable for a case where the space of the electrostatic atomizing system 100 is sufficient.

The structures of the first head module 61, the second head module 62, the counter electrode 90, and the like of the present invention include, but are not limited to, the above-described several structural designs. For example, the first and second head modules 61 and 62 may include only one head, and for example, the first and second head modules 61 and 62 may be arranged in other array shapes.

It will be appreciated that the above technical features may be used in any combination without limitation.

The foregoing examples merely illustrate specific embodiments of the invention, which are described in greater detail and are not to be construed as limiting the scope of the invention; it should be noted that, for a person skilled in the art, the above technical features can be freely combined, and several variations and modifications can be made without departing from the scope of the invention; therefore, all changes and modifications that come within the meaning and range of equivalency of the claims are to be embraced within their scope.

Claims

1. An electrostatically atomizing system which is characterized by comprising:

a first liquid storage tank (31) for storing a first solution (41),

a first head module (61) connected to the first liquid storage tank (31),

a first high-voltage generating module (51) for applying a first high-voltage to the first solution (41),

a second reservoir (32) for storing a second solution (42),

a second spray head module (62) connected to the second reservoir (32), and

a second high voltage generation module (52) for applying a second high voltage of opposite polarity to the first high voltage to the second solution (42);

the first spray sprayed by the first spray head module (61) can be opposite-impact mixed with the second spray sprayed by the second spray head module (62).

2. An electrostatic atomizing system according to claim 1, further comprising a counter electrode (90) disposed between the first spray head module (61) and the second spray head module (62).

3. An electrostatically atomizing system as set forth in claim 2, wherein said counter electrode (90) is a ground electrode.

4. The electrostatically atomizing system of claim 2, wherein said first nozzle module (61) comprises a plurality of first nozzles (610) arranged in an array, and said second nozzle module (62) comprises a plurality of second nozzles (620) arranged in an array.

5. An electrospray system according to claim 4, wherein the plurality of first spray heads (610) and the plurality of second spray heads (620) are each arranged in a circular array.

6. An electrostatic atomizing system according to claim 5, characterized in that the counter electrode (90) is annular.

7. An electrostatic atomizing system according to claim 4, wherein the plurality of first nozzles (610) and the plurality of second nozzles (620) are arranged in a linear array, respectively.

8. An electrostatic atomizing system according to claim 7, wherein said counter electrode (90) is in the form of a sheet, and at least one passage (91) through which said first spray and said second spray pass is formed in said counter electrode (90).

9. The electrostatic atomizing system of claim 8, wherein the at least one channel (91) includes one channel (91), the one channel (91) being configured to pass a first spray from the plurality of first spray heads (610) and a second spray from the plurality of second spray heads (620).

10. An electrostatic atomizing system according to claim 8, wherein said at least one passage (91) includes a plurality of passages (91), said plurality of passages (91) being disposed in one-to-one correspondence with said plurality of first spray heads (610) and said plurality of second spray heads (620), respectively.

11. An electrostatic atomizing system according to claim 1, wherein the first spray and the second spray are charged or uncharged after mixing.

12. An electrostatic atomizing system according to claim 1, characterized in that it further comprises a first booster pump (21) connected to the first reservoir (31) and a second booster pump (22) connected to the second reservoir (32).

13. An electrostatic atomizing system according to any one of claims 1 to 12, further comprising a housing (80) and a suction nozzle (70) provided on one side of the housing (80), wherein the first liquid storage tank (31) and the second liquid storage tank (32) are both accommodated in the housing (80).

14. An electrostatically atomizing system as set forth in claim 13, wherein said housing (80) is provided with at least one air intake hole (80) for the entry of outside air into said housing (80).