Atomizing device

Abstract

The present disclosure provides an atomization device, which relates to the technical field of atomization. The atomization device comprises an atomizer body, an operating assembly arranged on the atomizer body, and at least a first atomization chamber and a second atomization chamber. The first atomization chamber is used for storing a first aerosol substrate, and the second atomization chamber is used for storing a second aerosol substrate. The boiling points of the first aerosol substrate and the second aerosol substrate are different. The atomizer body is configured to atomize at least one of the first aerosol substrate and the second aerosol substrate in response to a suction action. The atomization device has at least two of a first temperature mode, a second temperature mode and a third temperature mode of aerosol. The atomization device provided by the present disclosure can provide at least two different temperature aerosols.

Description

Technical Field

[0001] This disclosure relates to the field of atomization technology, and more particularly to an atomization device. Background Technology

[0002] As an alternative to traditional nicotine products, the user experience provided by electronic atomizing devices is crucial, and the aerosol temperature at the atomizer's outlet is one of the key factors affecting the user's sensation and taste. Currently, the aerosol temperature produced by atomizing devices is usually fixed or fluctuates within a very narrow range, making it difficult to meet users' personalized needs. Utility Model Content

[0003] In view of the above problems, this disclosure provides an atomizing device capable of providing at least two different temperatures of aerosol.

[0004] Firstly, the following technical solution is provided through an embodiment:

[0005] An atomizing device includes an atomizer body, an operating component disposed on the atomizer body, and at least a first atomizing chamber and a second atomizing chamber. The first atomizing chamber stores a first aerosol matrix, and the second atomizing chamber stores a second aerosol matrix. The first aerosol matrix and the second aerosol matrix have different boiling points. The atomizer body is configured to atomize at least one of the first aerosol matrix and the second aerosol matrix in response to a suction action. The atomizing device has at least two of a first temperature mode, a second temperature mode, and a third temperature mode for aerosols. The operating component is operated by a user to generate a first instruction to cause the atomizing device to enter the first temperature mode, a second instruction to enter the second temperature mode, or a third instruction to enter the third temperature mode. In the first temperature mode: the atomizer body atomizes the first aerosol matrix to generate a first aerosol at a first temperature; in the second temperature mode: the atomizer body atomizes the second aerosol matrix to generate a second aerosol at a second temperature; in the third temperature mode: the atomizer body atomizes both the first and second aerosol matrices to generate both the first aerosol at a first temperature and the second aerosol at a second temperature.

[0006] In some embodiments, the operating component includes a trigger capable of bidirectional movement along a set direction, and at least two regions, a first region, a second region, and a third region, are sequentially distributed along the positive direction of the set direction; the trigger can be operated by a user to be moved to the first region, the second region, or the third region along the set direction, and can generate a first instruction when the trigger is moved to the first region, a second instruction when the trigger is moved to the second region, and a third instruction when the trigger is moved to the third region.

[0007] In some embodiments, the operating component includes a touchscreen that allows a user to perform touch operations to generate at least two of a first instruction, a second instruction, and a third instruction.

[0008] In some embodiments, the atomizing device further includes a mouthpiece disposed on the atomizer body; a first atomizing chamber has a first atomizing channel communicating with the mouthpiece, a first atomizing core is disposed in the first atomizing channel, the first atomizing chamber is used to hold a first aerosol matrix, the first aerosol matrix includes a first solvent having a first boiling point; the first atomizing core is used to atomize the first aerosol matrix to generate a first aerosol at a first temperature; a second atomizing chamber has a second atomizing channel communicating with the mouthpiece, a second atomizing core is disposed in the second atomizing channel, the second atomizing chamber is used to hold a second aerosol matrix, the second ... the second atomizing chamber has a second atomizing channel communicating with the mouthpiece, a second atomizing core is disposed in the second atomizing channel, the second atomizing chamber is used to hold a second aerosol matrix, the second aerosol matrix includes a first solvent having a first boiling point; the first atomizing core is used to atomize the first aerosol matrix to generate a first aerosol at a first boiling point; the first atomizing core is used to atomize the first aerosol matrix to generate a first aerosol at a first boiling point; the first atomizing core is used to atomize the first aerosol matrix to atomize the first aerosol matrix to atomize the first aerosol matrix to atomize the first aerosol matrix to atomize the first aerosol matrix to atomize the first a A second solvent having a second boiling point; a second atomizing core for atomizing a second aerosol matrix to generate a second aerosol at a second temperature; in a first temperature mode: the first atomizing core operates and the second atomizing core does not operate, to generate a first aerosol at the first temperature to flow to the mouthpiece; in a second temperature mode: the first atomizing core does not operate and the second atomizing core operates, to generate a second aerosol at the second temperature to flow to the mouthpiece; in a third temperature mode: the first atomizing core operates and the second atomizing core operates, to generate a first aerosol at the first temperature to flow to the mouthpiece, and to generate a second aerosol at the second temperature to flow to the mouthpiece.

[0009] In some embodiments, the difference between the first boiling point and the second boiling point is greater than 50°C.

[0010] In some embodiments, the first atomizing chamber is provided with a first air inlet and a first adjusting mechanism. The first air inlet is connected to a first atomizing channel, and the first adjusting mechanism is used to adjust the opening volume of the first air inlet. The second atomizing chamber is provided with a second air inlet and a second adjusting mechanism. The second air inlet is connected to a second atomizing channel, and the second adjusting mechanism is used to adjust the opening volume of the second air inlet. In a first temperature mode, the opening volume of the first air inlet is greater than 0, and the opening volume of the second air inlet is equal to 0. In a second temperature mode, the opening volume of the first air inlet is equal to 0, and the opening volume of the second air inlet is greater than 0. In a third temperature mode, the opening volumes of both the first air inlet and the second air inlet are greater than 0.

[0011] In some embodiments, the third temperature mode further includes a first sub-mode and a second sub-mode, wherein in the first sub-mode the opening amount of the first air inlet is greater than the opening amount of the second air inlet, and in the second sub-mode the opening amount of the first air inlet is less than the opening amount of the second air inlet.

[0012] In some embodiments, the atomizer body further includes a mixing chamber disposed upstream of the mouthpiece, through which at least one of the first aerosol and the second aerosol flows to the mouthpiece.

[0013] In some embodiments, the atomizing device further includes a porous mesh plate disposed within the mixing chamber.

[0014] In some embodiments, the perforated mesh includes a plurality of mesh openings with an opening diameter of 1 mm to 4 mm.

[0015] In some embodiments, the first atomizing core includes a heating element, a liquid guiding element, and a liquid guiding tube, with the liquid guiding element disposed between the heating element and the liquid guiding tube; the first atomizing chamber has an opening, and the liquid guiding tube has multiple liquid inlet holes at the opening, the multiple liquid inlet holes being used to expose the liquid guiding element so that the liquid guiding element guides the first aerosol matrix to the heating element.

[0016] Secondly, based on the same inventive concept, the following technical solution is provided through an embodiment:

[0017] An atomizing device includes multiple atomizing chambers, each atomizing chamber storing an aerosol matrix and having an atomizing channel, wherein an atomizing core is provided in the atomizing channel, the atomizing core being in contact with the aerosol matrix for atomizing the aerosol matrix; the aerosol matrix includes a solvent, and in the multiple atomizing chambers, at least the boiling point difference between the solvents in the first atomizing chamber and the second atomizing chamber is not less than 50°C.

[0018] According to one of the technical solutions in the above embodiments, the following beneficial effects or advantages are achieved:

[0019] This disclosure provides an atomizing device, wherein the atomizer body is provided with at least a first atomizing chamber and a second atomizing chamber. The first atomizing chamber stores a first aerosol matrix, which has a different boiling point than the second aerosol matrix stored in the second atomizing chamber. The atomizer body also has at least two of a first temperature mode, a second temperature mode, and a third temperature mode for the aerosol. In the first temperature mode, the atomizer body atomizes the first aerosol matrix to generate a first aerosol at a first temperature. In the second temperature mode, the atomizer body atomizes the second aerosol matrix to generate a second aerosol at a second temperature. In the third temperature mode, the atomizer body atomizes the first aerosol matrix and the second aerosol matrix to generate a first aerosol at a first temperature and a second aerosol at a second temperature. An operating component can generate instructions to switch these temperature modes, thereby enabling the atomizing device to provide users with at least two different temperatures of aerosol to meet the user's personalized needs.

[0020] The above description is merely an overview of the technical solution disclosed herein. In order to better understand the technical means of this disclosure and to implement it in accordance with the contents of the specification, and to make the above and other objects, features and advantages of this disclosure more apparent and understandable, specific embodiments of this disclosure are described below. Attached Figure Description

[0021] Various other advantages and benefits will become apparent to those skilled in the art upon reading the following detailed description of preferred embodiments. The accompanying drawings are for illustrative purposes only and are not intended to limit the scope of this disclosure. Furthermore, the same reference numerals denote the same parts throughout the drawings. In the drawings:

[0022] Figure 1 A cross-sectional view of an atomizing device according to an embodiment of the present disclosure is shown;

[0023] Figure 2 A front view of a perforated mesh panel according to an embodiment of the present disclosure is shown;

[0024] Figure 3 A cross-sectional view of an atomizing core according to an embodiment of the present disclosure is shown;

[0025] Figure 4 A perspective view of an atomizing core according to an embodiment of the present disclosure is shown;

[0026] Figure 5 A schematic diagram of the atomizing device used according to embodiments 1 and 2 of this disclosure is shown;

[0027] Figure 6 A schematic diagram of aerosol temperature profiles under different modes is shown according to Embodiment 1 of this disclosure;

[0028] Figure 7A A schematic diagram is shown showing the adjustment slider moving to the side closest to "warm" according to Embodiment 2 of this disclosure;

[0029] Figure 7B A schematic diagram is shown showing the adjustment slider moving slightly from the side closest to "warm" towards the center according to Embodiment 2 of this disclosure;

[0030] Figure 7C A schematic diagram showing the adjusting slider in the middle according to Embodiment 2 of this disclosure is shown;

[0031] Figure 7D A schematic diagram is shown showing the adjustment slider according to Embodiment 2 of this disclosure located on the side closest to "cool". Detailed Implementation

[0032] Embodiments of the present disclosure will now be described with reference to the accompanying drawings. However, it should be understood that these descriptions are exemplary only and are not intended to limit the scope of the disclosure. Furthermore, descriptions of well-known structures and technologies are omitted in the following description to avoid unnecessarily obscuring the concepts of the present disclosure.

[0033] The accompanying drawings illustrate various structural schematics according to embodiments of the present disclosure. These drawings are not to scale, and some details have been enlarged for clarity, and some details may have been omitted. The shapes of the various regions and layers shown in the drawings, as well as their relative sizes and positional relationships, are merely exemplary and may deviate from reality due to manufacturing tolerances or technical limitations. Furthermore, those skilled in the art can design regions / layers with different shapes, sizes, and relative positions as needed.

[0034] Unless otherwise defined, the technical or scientific terms used in this disclosure shall have the ordinary meaning understood by one of ordinary skill in the art to which this disclosure pertains. The terms “first,” “second,” and similar terms used in this disclosure do not indicate any order, quantity, or importance, but are merely used to distinguish different components. Similarly, the terms “an,” “a,” or “the,” and similar terms do not indicate a quantity limitation, but rather indicate the presence of at least one. The terms “including,” “comprising,” or “containing,” and similar terms mean that the element or object preceding the word encompasses the elements or objects listed following the word and their equivalents, without excluding other elements or objects. The terms “connected,” “linked,” or similar terms are not limited to physical or mechanical connections, but can include electrical connections, whether direct or indirect. The terms “upper,” “lower,” “left,” and “right,” etc., are used only to indicate relative positional relationships, and these relative positional relationships may change accordingly when the absolute position of the described objects changes.

[0035] It should be noted that the term "aerosol" as used in this disclosure refers to a dispersion of solid or liquid particles in a gas; aerosols can also be used to refer to substances that have been vaporized, atomized, sprayed or jetted, or otherwise transformed from solid or liquid form into an inhalable form containing suspended solid or liquid drug particles.

[0036] Users' preferences for e-cigarette products are often diverse. For example, some users prefer a warm, full-bodied aerosol, while others prefer a cool, refreshing one. Furthermore, ambient temperature also affects the user experience. In cold environments, users may expect a warmer aerosol for increased comfort, while in hot environments, a lower-temperature aerosol provides a better experience. Therefore, existing e-cigarette products have significant shortcomings in terms of aerosol temperature adaptability and adjustability, making it difficult to meet the diverse and dynamic needs of users.

[0037] Current solutions offer adjustable-power electronic atomization products. By increasing or decreasing the power of the atomizer, users can change the heat output of the heating element, thereby altering the aerosol matrix or its atomization temperature to some extent, resulting in variations in the outlet aerosol temperature. However, this approach has the following drawbacks:

[0038] (1) Limited adjustment range: For aerosol matrices with fixed components, the atomization temperature fluctuates only within a narrow range. Therefore, the effect of power adjustment on aerosol temperature is indirect and limited, and it is impossible to achieve a large-scale adjustment from "cool" to "warm". The temperature change perceived by the user is not obvious. In addition, if a higher power is used to increase the aerosol temperature, a burnt taste is likely to be produced during use, and it will also have a significant impact on the life of the atomizer core.

[0039] (2) Multivariate coupling affects taste: While adjusting the power can change the aerosol temperature, it will also significantly change the aerosol volume, nicotine release rate and flavor resolution, thus affecting the overall taste and flavor.

[0040] (3) Unable to achieve “cooling”: Power regulation can only “heat up” the equipment based on its original operating temperature, and cannot actively generate “cooling” aerosols below its normal operating temperature.

[0041] To provide users with aerosols exhibiting significant temperature variations to meet diverse personalized needs, in one optional embodiment, please refer to... Figure 1 The provided atomizing device includes an atomizer body 100 and an operating component disposed on the atomizer body 100. Figure 1 (Not shown) and at least a first atomizing chamber 11 and a second atomizing chamber 12, the first atomizing chamber 11 for storing a first aerosol matrix, the second atomizing chamber 12 for storing a second aerosol matrix, the first aerosol matrix and the second aerosol matrix having different boiling points, the atomizer body 100 being configured to atomize at least one of the first aerosol matrix and the second aerosol matrix in response to a suction action; the atomizing device having at least two of a first temperature mode, a second temperature mode and a third temperature mode for aerosols; and an operating component for user operation to generate atomization. The device receives a first instruction to enter a first temperature mode, a second instruction to enter a second temperature mode, or a third instruction to enter a third temperature mode; in the first temperature mode: the atomizer body 100 atomizes a first aerosol matrix to generate a first aerosol at a first temperature; in the second temperature mode: the atomizer body 100 atomizes a second aerosol matrix to generate a second aerosol at a second temperature; in the third temperature mode: the atomizer body 100 atomizes a first aerosol matrix and a second aerosol matrix to generate a first aerosol at a first temperature and a second aerosol at a second temperature.

[0042] Specifically, the suction action is the action taken by the user to atomize the aerosol matrix using an atomizing device to obtain aerosol. The aerosol matrix refers to the substance used to carry and transport active ingredients during the atomization process, including the active ingredients and the solvent used to mix the active ingredients. The first aerosol matrix and the second aerosol matrix have different boiling points, which determines that aerosols at different temperatures can be obtained when the first aerosol matrix and the second aerosol matrix are atomized separately. In order to store the first aerosol matrix and the second aerosol matrix with different boiling points separately, the atomizing device includes a first atomizing chamber 11 and a second atomizing chamber 12 disposed in the atomizer body 100. The first atomizing chamber 11 is used to store the first aerosol matrix, and the second atomizing chamber 12 is used to store the second aerosol matrix, serving as the basis for separately atomizing the first aerosol matrix and / or the first aerosol matrix.

[0043] To produce aerosols at different temperatures, the atomizing device provided in this embodiment of the disclosure includes an operating component that allows the user to operate the atomizing device to switch between multiple temperature modes. By atomizing at least one aerosol matrix in the first atomizing chamber 11 and the second atomizing chamber 12, at least one of the first aerosol and the second aerosol is generated, enabling the atomizing device to provide aerosols at at least two different temperatures. Specifically, the atomizing device should have at least two of a first temperature mode, a second temperature mode, and a third temperature mode for aerosols. These three temperature modes can provide aerosols at at least three different temperatures, with the boiling point of the first aerosol matrix being higher than that of the second temperature mode. Taking the boiling point of the two aerosol matrices as an example, the first temperature mode can provide a first aerosol at a first temperature (high temperature) by atomizing the first aerosol matrix, the second temperature mode can provide a second aerosol at a second temperature (low temperature) by atomizing the second aerosol matrix, and the third temperature mode can provide a third aerosol at a moderate temperature between the first and second temperatures by simultaneously atomizing the first and second aerosol matrices. It should be noted that since there is an inevitable temperature drop during the flow of the aerosol, the aerosol finally provided to the user will have a first temperature slightly lower than the first boiling point and a second temperature slightly lower than the second boiling point.

[0044] Therefore, the atomizing device provided in this disclosure provides at least two of the following aerosol temperature modes: a first temperature mode, a second temperature mode, and a third temperature mode. The operating components can generate instructions to switch these temperature modes, thereby enabling the atomizing device to provide users with at least two different temperatures of aerosol to meet the user's personalized needs.

[0045] In some embodiments, such as Figure 1As shown, the atomizing device also includes a mouthpiece 70 disposed on the atomizer body 100; a first atomizing chamber 11 is provided with a first atomizing channel 21 communicating with the mouthpiece 70, and a first atomizing core 31 is disposed in the first atomizing channel 21; the first atomizing chamber 11 is used to hold a first aerosol matrix, the first aerosol matrix including a first solvent having a first boiling point; the first atomizing core 31 is used to atomize the first aerosol matrix to generate a first aerosol at a first temperature; a second atomizing chamber 12 is provided with a second atomizing channel 22 communicating with the mouthpiece 70, the second atomizing channel 22 is disposed in the second atomizing channel 22, the second atomizing chamber 12 is used to hold a second aerosol matrix, the second aerosol matrix being packaged with... The system includes a second solvent having a second boiling point; a second atomizing core 32 for atomizing a second aerosol matrix to generate a second aerosol at a second temperature; in a first temperature mode: the first atomizing core 31 is activated and the second atomizing core 32 is deactivated to generate a first aerosol at the first temperature to flow to the mouthpiece 70; in a second temperature mode: the first atomizing core 31 is deactivated and the second atomizing core 32 is activated to generate a second aerosol at the second temperature to flow to the mouthpiece 70; in a third temperature mode: the first atomizing core 31 is activated and the second atomizing core 32 is activated to generate a first aerosol at the first temperature to flow to the mouthpiece 70, and to generate a second aerosol at the second temperature to flow to the mouthpiece 70.

[0046] Specifically, as a structure that carries and atomizes the aerosol matrix, the atomizing chamber can be designed as a hollow structure to form a liquid storage cavity between the outer shell of the atomizing chamber and the atomizing channel. The aerosol matrix is ​​then poured into the liquid storage cavity. An opening is then set at a suitable position in the atomizing channel, and the atomizing core is placed at the opening. Through this opening, the atomizing core can contact the aerosol matrix for atomization.

[0047] In some embodiments, the aerosol matrix can also be stored in a liquid storage chamber located outside the atomizing chamber. For example, the atomizing core can include a liquid guiding mechanism, one end of which is connected to an atomizing element such as a heating element in the atomizing core, and the other end is connected to the liquid storage chamber to guide the aerosol matrix to the heating element. The liquid guiding mechanism can be a liquid guiding cotton or a liquid guiding tube, etc., and is not limited here.

[0048] The aerosol matrix is ​​atomized into an aerosol by the atomizing core in the atomization channel of the atomization chamber; the atomization method of the atomizing core can be the common heating element to heat the aerosol matrix to atomize it, or it can be the high-frequency vibration of ultrasound to heat the aerosol matrix to atomize it; unless otherwise specified, the embodiments of this disclosure are described using the heating atomization method as an example.

[0049] Considering that the first and second aerosol matrices require different boiling points, this can be achieved by using solvents with different boiling points. The boiling point of the solvent is positively correlated with the temperature of the atomized aerosol. In other words, if a solvent with a higher boiling point is used, a higher temperature aerosol can be obtained after atomization, and vice versa.

[0050] Therefore, to facilitate obtaining aerosols at different temperatures, the atomizing device provided in this disclosure is equipped with an independent atomizing channel for each atomizing chamber, wherein at least two atomizing chambers store aerosol matrix solvents with different boiling points. These two atomizing chambers are the first atomizing chamber 11 and the second atomizing chamber 12; the corresponding aerosol matrix is ​​the first aerosol matrix and the second aerosol matrix. The first aerosol matrix uses a first solvent, and the second aerosol matrix uses a second solvent. One of the first solvent and the second solvent is a solvent with a relatively high boiling point, and the other is a solvent with a relatively low boiling point. For example, when the first boiling point is higher than the second boiling point, the first... When the first atomizing core 31 is working, it can generate a first aerosol with a relatively higher temperature in the first atomizing channel 21. When the second atomizing core 32 is working, it can generate a second aerosol with a relatively lower temperature in the second atomizing channel 22. By generating aerosols of different temperatures flowing to the mouthpiece 70, different user experiences can be provided. It should be noted that if the atomizing device includes more than three atomizing chambers, the boiling point of the solvent in the aerosol matrix stored in the other atomizing chambers can be different from both the first and second boiling points, or it can be the same as or close to one of them. This does not affect the atomizing device's ability to provide users with aerosols of different temperatures.

[0051] Meanwhile, aerosol matrices with different boiling points can be achieved by using solvents with different boiling points. The boiling point of the solvent is positively correlated with the temperature of the atomized aerosol; that is, if a solvent with a higher boiling point is used, a higher-temperature aerosol can be obtained after atomization, and vice versa. To provide aerosols with significant temperature differences under different temperature modes, the boiling points of the first solvent and the second solvent in the first atomization chamber 11 and the second atomization chamber 12 can have a large difference, such as a difference of more than 50°C between the first and second boiling points. The temperatures of the first and second aerosols are significantly different. For example, for the high-temperature aerosol chamber in the first aerosol chamber 11 and the second aerosol chamber 12, a mixture of glycerol (VG) and propylene glycol (PG) can be used as a solvent, while for the other low-temperature aerosol chamber, a mixture of water and propylene glycol (PG) can be used as a solvent. Under normal pressure, the boiling points of PG, VG and water are ordered as follows: VG (290℃) > PG (188.2℃) > water (100℃). Therefore, after aerosolization, the temperature of the aerosol generated by the high-temperature aerosol chamber will be significantly higher than that of the aerosol generated by the low-temperature aerosol chamber.

[0052] Therefore, the solvents of the aerosol matrix stored in the first atomizing chamber 11 and the second atomizing chamber 12, in addition to meeting the requirements of solvents used in conventional electronic atomization products (such as being safe and non-toxic, and having good solubility for fragrances and flavors), also need to meet the characteristic of having a large difference in boiling points. Optional solvents include, but are not limited to, water, propylene glycol, glycerol, polyethylene glycol (PEG), coconut oil, and combinations of different proportions of the above components.

[0053] The operating component can be a sliding component or a touch component. In some embodiments, the operating component includes a trigger capable of bidirectional movement along a set direction, and at least two regions, a first region, a second region, and a third region, are sequentially distributed along the positive direction of the set direction. The trigger can be operated by the user to be moved to the first region, the second region, or the third region along the set direction. When the trigger is moved to the first region, a first instruction can be generated; when the trigger is moved to the second region, a second instruction can be generated; and when the trigger is moved to the third region, a third instruction can be generated.

[0054] Specifically, the trigger can be a slider, and the set direction can be set according to requirements, such as the axial direction of the atomizing device or the circumferential direction perpendicular to the axial direction. The trigger can move bidirectionally in the set direction. When the trigger moves to a pre-set area, such as one of the first area, the second area, and the third area, the operating component generates a command corresponding to the temperature mode. The control module in the atomizing device can control the atomizing device to enter the corresponding temperature mode according to these commands.

[0055] In some embodiments, the operation component includes a touch screen that allows a user to perform touch operations to generate at least two of a first instruction, a second instruction, and a third instruction; that is, through the human-computer interaction interface provided by the touch screen, the user can directly select different temperature modes, and the operation component generates corresponding instructions based on the user's selection.

[0056] In addition to sliding components and touch components, operation components can also be button components, voice control components, etc. Button components generate corresponding commands based on the user's button operations, and voice control components generate corresponding commands based on the user's voice instructions.

[0057] In some embodiments, please refer to Figure 1 The atomizer body 100 also includes a mixing chamber 61, which is located upstream of the mouthpiece 70. At least one of the first aerosol and the second aerosol flows to the mouthpiece 70 through the mixing chamber 61.

[0058] Specifically, the mixing chamber 61 is located between the outlet of each atomizing channel and the mouthpiece 70, and is used to mix aerosols of different temperatures produced by different atomizing chambers. The aerosols of different temperatures are mixed in the mixing chamber 61 to obtain the final aerosol, which is then provided to the user through the mouthpiece 70. For a single atomizing chamber, the temperature change of the aerosol it produces is not significant. Ignoring the temperature drop during the movement of the aerosol, the temperature of the final aerosol is determined by the amount of aerosol produced by each atomizing chamber and mixed in the mixing chamber 61.

[0059] In some embodiments, please refer to Figure 1 The atomizing device also includes a porous mesh plate 62, which is disposed in the mixing chamber 61. The porous mesh plate 62 has a porous structure, which can promote the full mixing of aerosols with different temperatures and flow rates in the mixing chamber 61, ensuring the temperature uniformity of the aerosol at the outlet of the mouthpiece 70, and improving the consistency and comfort of the taste. Considering the mixing efficiency, the porous structure can be a through-hole structure.

[0060] In some embodiments, please refer to Figure 2 The porous mesh plate 62 has multiple mesh holes 63, each of which is a through-hole structure. When combined together, they form a through-hole structure similar to honeycomb briquettes, which has good air permeability and helps to improve the mixing efficiency and uniformity of aerosols.

[0061] In some embodiments, the aperture of the plurality of meshes 63 is 1 mm to 4 mm. The reason for setting the aperture of the meshes 63 within the above range is that if the aperture is too small, the suction resistance will be significantly increased; if the aperture is too large, the mixing effect will be reduced and the user experience will be affected.

[0062] In some embodiments, please refer to Figure 1 The first atomizing chamber 11 is provided with a first air inlet 41 and a first adjustment mechanism 51. The first air inlet 41 is connected to the first atomizing channel 21, and the first adjustment mechanism 51 is used to adjust the opening amount of the first air inlet 41. The second atomizing chamber 12 is provided with a second air inlet 42 and a second adjustment mechanism 52. The second air inlet 42 is connected to the second atomizing channel 22, and the second adjustment mechanism 52 is used to adjust the opening amount of the second air inlet 42.

[0063] When atomizing the aerosol matrix, the air inlet is used to draw in ambient air. The size of its opening, i.e., the opening volume, is positively correlated with the air intake volume. The opening volume can be expressed as a percentage of the actual opening size / area to the maximum opening size / area, ranging from 0% to 100%. An opening volume of 0% indicates that the air inlet is closed, preventing ambient air from entering; an opening volume of 100% indicates that the air inlet is fully open, providing the maximum air intake volume. Under otherwise constant conditions, the air intake volume is positively correlated with the amount of aerosol generated. Therefore, the adjustment mechanism can adjust the amount of aerosol generated within the atomization channel by adjusting the opening volume of the air inlet. The larger the opening volume of the air inlet, the more aerosol is generated. The larger the amount of aerosol, the less aerosol is generated in the atomization channel if the opening volume is 0. The position of the air inlet can be designed in conjunction with the structure of the atomizing device. For example, if the end of the ambient air entering the atomizing body 100 is considered upstream and the end of the mouthpiece 70 from which the aerosol flows out is considered downstream, then the first air inlet 41 can be designed upstream of the first atomizing chamber 11 and the second air inlet 42 can be designed upstream of the second atomizing chamber 12. When the user uses the atomizing device, the air from the external environment can enter the atomization channel from the upstream air inlet, and after generating aerosol with the atomizing core, it moves towards the downstream mouthpiece 70.

[0064] The adjustment mechanism is used to adjust the opening volume of the air inlet, and to control whether air enters through the air inlet and the amount of air entering. For an atomizing chamber, there can be one or more air inlets, and the number of adjustment mechanisms is matched according to the number of air inlets. In some embodiments, the adjustment mechanism can use a mechanical knob, a slider, or an electronically controlled micro valve. For mechanical knobs and sliders, the user can directly operate to adjust the opening volume of the air inlet. For electronically controlled valves, the adjustment can be made in response to the user's instructions through a controller.

[0065] Under the control of the regulating mechanism, different temperature modes of the aerosol correspond to different air inlet opening volumes; for example, in the first temperature mode, the opening volume of the first air inlet 41 is greater than 0, and the opening volume of the second air inlet 42 is equal to 0; in the second temperature mode, the opening volume of the first air inlet 41 is equal to 0, and the opening volume of the second air inlet 42 is greater than 0; in the third temperature mode, the opening volumes of both the first air inlet 41 and the second air inlet 42 are greater than 0.

[0066] In some embodiments, under the action of the regulating mechanism, in the first temperature mode, the opening amount of the first air inlet 41 can be continuously and smoothly adjusted between 0 and 100%, thus flexibly adjusting the supply amount of the first aerosol with the first temperature; similarly, in the second temperature mode, the opening amount of the second air inlet 42 can be continuously and smoothly adjusted between 0 and 100%, thus adjusting the supply amount of the second aerosol with the second temperature; in the third temperature mode, the opening amounts of both the first air inlet 41 and the second air inlet 42 can be continuously and smoothly adjusted between 0 and 100%, thereby simultaneously adjusting the supply amounts of the first aerosol and the second aerosol, and further adjusting the supply amount and temperature of the final aerosol after mixing.

[0067] In some embodiments, the third temperature mode further includes a first sub-mode and a second sub-mode. In the first sub-mode, the opening amount of the first air inlet 41 is greater than the opening amount of the second air inlet 42. In the second sub-mode, the opening amount of the first air inlet 41 is less than the opening amount of the second air inlet 42. Taking a high-boiling-point solvent as the first solvent and a low-boiling-point solvent as an example, in the first sub-mode, the opening amount of the first air inlet 41 is greater than the opening amount of the second air inlet 42, indicating that the yield of high-temperature aerosol is higher and the temperature of the final aerosol after mixing is also higher. In the second sub-mode, the opening amount of the first air inlet 41 is less than the opening amount of the second air inlet 42, indicating that the yield of low-temperature aerosol is higher and the temperature of the final aerosol after mixing is also lower. This allows for flexible adjustment of the aerosol temperature supplied to the user even in the third temperature mode, meeting the user's usage needs.

[0068] In some embodiments, if the atomizing device has more atomizing chambers, each atomizing chamber may also be provided with an air inlet and an adjustment mechanism. The air inlet is connected to the atomizing channel, and the adjustment mechanism is used to adjust the opening amount of the air inlet. That is, each atomizing chamber is provided with an independent air inlet and an adjustment mechanism, so that the atomizing device can independently adjust the amount of aerosol produced by each atomizing chamber.

[0069] As mentioned earlier, the final temperature of the mixed aerosol mainly depends on the amount of aerosol produced at different temperatures in each atomizing chamber. The coordination of the air inlet and the regulating mechanism can precisely adjust the airflow into each atomizing chamber, thereby accurately controlling the amount of aerosol produced by each chamber. This enables the atomizing device to output aerosol with adjustable temperature over a wide temperature range. By precisely controlling the aerosol output of each atomizing chamber, the temperature of the final output aerosol can be continuously and smoothly adjusted, better meeting the personalized needs of users.

[0070] As mentioned earlier, the atomizing core can be either heated or ultrasonic; taking heated atomization as an example, in some embodiments, please refer to... Figure 3The first atomizing core 31 includes a heating element 31A and a liquid guiding part sleeved on the heating element 31A. The liquid guiding part contacts the aerosol matrix at the opening of the first atomizing chamber 11 and is used to guide the aerosol matrix to the heating element 31A. The structure of the second atomizing core 32 is the same as that of the first atomizing core 31, so it will not be described again.

[0071] In some embodiments, please refer to Figure 3 and Figure 4 The liquid guiding section includes a liquid guiding component 31B and a liquid guiding tube 31C. The liquid guiding component 31B is disposed between the heating component 31A and the liquid guiding tube 31C at the opening 111 of the first atomizing chamber 11 (see reference for specific location). Figure 1 The liquid guide tube 31C is provided with multiple liquid inlet holes 31D, which expose the liquid guide element 31B so that the aerosol matrix can enter the liquid guide element 31B through the multiple liquid inlet holes 31D; in some embodiments, the liquid guide element 31B can be an oil-wicking cotton, which can absorb the aerosol matrix and transfer it to the surface of the heating element 31A; the heating element 31A can use, for example, Figure 3 and Figure 4 The metal heating mesh shown can also be made of ceramic heating elements; there are no restrictions on this.

[0072] In summary, the embodiments of this disclosure provide an atomizing device that, by configuring at least a first atomizing chamber 11 and a second atomizing chamber 12, uses a first aerosol matrix stored in the first atomizing chamber 11 and a second aerosol matrix stored in the second atomizing chamber 12. The first solvent and the second solvent used in these two atomizing chambers have significant differences in boiling points, thereby generating aerosols at different temperatures at the source. Combined with three temperature modes for aerosols, at least two of the following can be provided to users: high-temperature aerosols, low-temperature aerosols, or mixed aerosols with temperatures between the two, to meet users' personalized needs. Furthermore, by setting an independent air inlet on each atomizing chamber and an adjustment mechanism to control the opening amount of the air inlet, the airflow entering each atomizing chamber can be precisely adjusted, thereby precisely controlling the amount of aerosol produced by each atomizing chamber. This allows for continuous and smooth temperature adjustment of the mixed aerosol, better meeting users' personalized needs.

[0073] To illustrate the above solution more intuitively, in the following embodiments, we will use... Figure 5The provided atomizing device is based on two independent atomizing chambers: a first atomizing chamber 11 is a high-temperature atomizing chamber filled with a watermelon-flavored aerosol matrix, with solvents of 50% PG and 50% VG; the second atomizing chamber 12 is a low-temperature atomizing chamber filled with a watermelon-flavored aerosol matrix, with solvents of 50% PG and 50% water. The atomizing device also includes a control component 200, which includes a controller for controlling the operating states of the first atomizing core 31 and the second atomizing core 32 to adjust the amount of aerosol generated in each atomizing channel. The operating state of the atomizing core includes "operating" and "non-operating," indicating whether the atomizing chamber corresponding to that core produces aerosol or not. The operating state of the atomizing core may also include the atomization power state, where the atomization power of the core... When the atomization rate is high, the corresponding atomizing chamber can also generate more aerosol, or slightly increase the temperature of the aerosol; the control component 200 is also used to control the first adjustment mechanism 51 to adjust the opening amount of the first air inlet 41, and control the second adjustment mechanism 52 to adjust the opening amount of the second air inlet 42, so as to adjust the amount of aerosol generated by the first atomizing channel 21 and the second atomizing channel 22; the larger the opening amount of the air inlet, the larger the air intake, and the more aerosol can be generated in the corresponding atomizing channel; the control component 200 also includes a battery module for powering the first atomizing core 31, the second atomizing core 32 and the controller; taking the atomizing core including a heating element as an example, the heating element can be connected to the battery module through the wire 80 for powering the atomizing core, and the controller can control the working state of the atomizing core by controlling the on / off state of the wire 80.

[0074] Example 1: An electronic atomization device with stepped aerosol temperature regulation capability

[0075] The adjustable air inlet is not enabled or set, meaning the adjustment mechanism can only make the air inlet fully open or fully closed; the electronic atomizing device is equipped with an operating component, through which the user can select different temperature modes to obtain aerosols at different temperatures; the operating component can be selected by physical buttons or operated by a touch screen; the following explanation will take three fixed temperature modes: warm mode, cool mode and balanced mode as examples.

[0076] First temperature mode: Warm mode.

[0077] The user selects "Warm Mode" via physical buttons or touchscreen operation. The controller only activates the heating element of the first atomizing core 31 in the first atomizing chamber 11, while the heating element of the second atomizing core 32 in the second atomizing chamber 12 remains inactive. At this time, the first adjustment mechanism 51 of the first atomizing chamber 11 is activated, and the second adjustment mechanism 52 of the second atomizing chamber 12 is deactivated. When the user uses the electronic atomizing device, air enters from the first air inlet 41 of the first atomizing chamber 11, flows through the operating heating element, and atomizes the high-boiling-point first aerosol matrix using a mixture of PG and VG as a solvent, generating a high-temperature aerosol. This high-temperature aerosol travels through the first atomization channel 21, through the mixing chamber 61, and reaches the mouthpiece 70. During the aerosol transport process, the aerosol temperature decreases, making the high-temperature aerosol provided to the user warmer.

[0078] Second temperature mode: Cool mode.

[0079] When the user selects "Cool Mode," the controller only activates the heating element of the second atomizing core 32 in the second atomizing chamber 12, while the heating element of the first atomizing core 31 in the first atomizing chamber 11 remains inactive. At this time, the second adjustment mechanism 52 of the second atomizing chamber 12 is activated, while the first adjustment mechanism 51 in the first atomizing chamber 11 is deactivated. When the user uses the electronic atomizing device, air enters from the second air inlet 42 of the second atomizing chamber 12, flows through the activated heating element, and atomizes the low-boiling-point second aerosol matrix using a mixture of PG and water as a solvent, producing a cooler aerosol. This low-temperature aerosol travels through the second atomization channel 22, through the mixing chamber 61, and reaches the mouthpiece 70. During the aerosol transport process, the aerosol temperature decreases, making the cooler aerosol even cooler, ultimately providing it to the user.

[0080] Third temperature mode: Balanced mode.

[0081] The user selects "Balanced Mode"; the controller simultaneously activates the heating elements in the first atomizing chamber 11 and the second atomizing chamber 12. At this time, the first adjustment mechanism 51 and the second adjustment mechanism 52 open simultaneously; when the user uses the electronic atomizing device, air enters through the air inlets of the two atomizing chambers, flows through the working heating elements, and generates high-temperature aerosol and low-temperature aerosol respectively; the two aerosols flow through their respective atomization channels and converge in the mixing chamber 61. Under the turbulence effect of the porous mesh plate 62, the two aerosols are fully mixed to form a medium-temperature aerosol with a temperature between "Warm Mode" and "Cool Mode," which is provided to the user; by switching between these three modes, the user can easily select between three significantly different aerosol temperatures of "Warm," "Medium," and "Cool" to meet the aerosol temperature adjustment needs.

[0082] To verify the differences in aerosol temperature among the three modes, a thermocouple was placed at the center of the nozzle 70 outlet to measure the aerosol temperature of the electronic atomizer in each of the three modes. The operating condition was 2 seconds per puff, with a 15-second interval between puffs. Figure 6 As shown, the aerosol temperature varies significantly in the three modes. The highest aerosol temperatures in the different modes are 46.6℃ (cool mode), 55.3℃ (balanced mode), and 84.9℃ (warm mode), respectively, indicating that the technology disclosed herein can achieve a wide range of aerosol temperature adjustment.

[0083] It should be noted that the thermocouple measurement directly measures the dry-bulb temperature of the aerosol. In reality, since the humidity in the human mouth is close to 100%, the heat absorption effect of water evaporation must be considered. Therefore, the aerosol temperature perceived by the user is closer to the wet-bulb temperature (lower than the dry-bulb temperature). Thus, although the dry-bulb temperature of the aerosol reaches 84.9℃ in warm mode, the user will not feel it is too hot. The wet-bulb temperature of the aerosol is related to both the dry-bulb temperature and the ambient humidity. This test was conducted under the same and stable ambient humidity (60%), so the relative difference in dry-bulb temperature can be used to characterize the difference in user experience.

[0084] Example 2: An electronic atomizing device with continuous and smooth aerosol temperature regulation capability.

[0085] Based on the electronic atomizing device of Example 1, the operating component is equipped with a smoothly movable adjustment slider and an adjustable air inlet is enabled. That is, the adjustment mechanism adopts an air inlet valve with an independently adjustable opening to achieve continuous and stepless temperature adjustment from "cool" to "warm". The opening value of the air inlet valve corresponds to the opening amount of the air inlet. The opening amount of the air inlet is adjusted by changing the opening of the air inlet valve. In Example 2, the electronic atomizing device still has a first atomizing chamber 11 and a second atomizing chamber 12, and the aerosol matrix filled in each atomizing chamber is the same as that in Example 1.

[0086] Adjust to the warmest setting: such as Figure 7A As shown, the user pushes the adjustment slider to the side closest to "warm". At this time, the controller adjusts the first adjustment mechanism 51 of the first atomizing chamber 11 to fully open and the second adjustment mechanism 52 of the second atomizing chamber 12 to fully close. When the user uses the device, the controller controls the heating element of the first atomizing chamber 11 to start working, while the heating element of the second atomizing chamber 12 does not work. This working mode is the same as the "warm mode" in Example 1, producing aerosol at a higher temperature.

[0087] Adjust to a warmer temperature: such as Figure 7BAs shown, the user moves the adjustment slider slightly from the side closest to "warm" towards the center. During user operation, the controller slightly reduces the opening of the first adjustment mechanism 51 of the first atomizing chamber 11 (e.g., 70%), and slightly increases the opening of the second adjustment mechanism 52 of the second atomizing chamber 12 (e.g., 30%). The heating elements in both atomizing chambers operate normally. For common electronic atomizing devices, the larger the opening of the adjustment mechanism, the greater the air intake, and the greater the negative pressure generated by the airflow at the center of the heating element. This results in a larger amount of aerosol matrix entering the heating element through the liquid inlet, and a larger amount of aerosol produced by atomization. At this time, since the air intake of the first atomizing chamber 11 is greater than that of the second atomizing chamber 12, the first atomizing chamber 11 will produce more aerosol. Since more aerosol comes from the first atomizing chamber 11 and less from the second atomizing chamber 12, the temperature of the aerosol obtained after mixing through the mixing chamber 61 will be slightly lower than that of the pure high-temperature aerosol in the "warmest" mode.

[0088] Adjust to a balanced state: such as Figure 7C As shown, when the user places the adjustment slider in the middle position, the controller controls the opening of the first adjustment mechanism 51 and the second adjustment mechanism 52 to be equal (both 50%). The heating elements in the first atomizing chamber 11 and the second atomizing chamber 12 are working normally. At this time, the flow rates of the high-temperature aerosol and the low-temperature aerosol are equal, and after mixing, a medium-temperature aerosol is obtained.

[0089] Adjust to the coolest setting: such as Figure 7D As shown, opposite to the warmest end, the user pushes the slider to the side closest to "cool". When the user is using it, the controller controls the first adjustment mechanism 51 of the first atomizing chamber 11 to be fully closed, and its heating element does not work. At the same time, it controls the second adjustment mechanism 52 of the second atomizing chamber 12 to be fully open, and its heating element works normally. The aerosol coming out of the mouthpiece 70 will all come from the second atomizing chamber 12, so the user gets the lowest aerosol temperature.

[0090] By adjusting the relative opening of the first adjustment mechanism 51 and the second adjustment mechanism 52, as well as whether the heating element is working, the mixing ratio of high-temperature aerosol and low-temperature aerosol can be precisely controlled. This allows the temperature of the aerosol at the nozzle 70 outlet to be continuously and smoothly adjusted between the lower limit determined by the second atomizing chamber 12 working alone and the upper limit determined by the first atomizing chamber 11 working alone. Users can "customize" the most suitable aerosol temperature according to their preferences and obtain a highly personalized user experience.

[0091] As can be seen, Examples 1 and 2 can achieve step-like or continuous smooth adjustment of aerosol temperature through simple temperature mode switching or parameter adjustment, so as to meet the personalized needs of different users and different scenarios.

[0092] Secondly, based on the same inventive concept, in another optional embodiment, this disclosure provides an atomizing device, including a plurality of atomizing chambers, each atomizing chamber storing an aerosol matrix and having an atomizing channel, an atomizing core being provided in the atomizing channel, the atomizing core being in contact with the aerosol matrix for atomizing the aerosol matrix; the aerosol matrix includes a solvent, and in the plurality of atomizing chambers, at least the boiling point difference between the solvents in the first atomizing chamber 11 and the second atomizing chamber 12 is not less than 50°C.

[0093] The atomizing device includes at least two atomizing chambers, each with an independent atomizing channel and atomizing core. By ensuring that the boiling point difference between the solvents corresponding to the first atomizing chamber 11 and the second atomizing chamber 12 is at least 50°C, high-temperature aerosols and low-temperature aerosols with significant temperature differences are generated at the source, i.e., within the two atomizing channels, during atomization by the atomizing core. This provides a foundation for obtaining an aerosol with a wide temperature range. For example, if only the first atomizing chamber 11 corresponding to the high-boiling-point solvent is controlled to operate, a higher-temperature aerosol can be obtained; if only the second atomizing chamber 12 corresponding to the low-boiling-point solvent is controlled to operate, a lower-temperature aerosol can be obtained; and if the first atomizing chamber 11 and the second atomizing chamber 12 are controlled to operate simultaneously, an aerosol with a moderate temperature can be obtained, thus meeting the personalized needs of users.

[0094] Other undescribed structures, such as the air inlets of the first atomizing chamber 11 and the second atomizing chamber 12, the adjustment mechanism, the structure of the atomizing core, the mixing chamber 61 of the atomizing device, and the porous mesh plate 62, are the same as those in the first aspect embodiment and will not be described again here.

[0095] In summary, the atomizing device provided in this disclosure has the following advantages:

[0096] 1) By using atomizing devices including at least a first atomizing chamber 11 and a second atomizing chamber 12, and employing a first solvent and a second solvent with different boiling points, high-temperature aerosols and low-temperature aerosols with different temperatures can be generated at the source. This provides a basis for a wide range of aerosol temperature regulation for the final supply to the user, and enables active regulation of the outlet aerosol temperature of the atomizer or atomizing device, rather than regulation through indirect adjustment of the atomizing core power.

[0097] 2) By setting up independent atomization channels, air inlets and adjustment mechanisms for each atomization chamber, the airflow entering each atomization channel can be precisely controlled, thereby precisely controlling the generation amount and mixing ratio of aerosols with different temperatures, and realizing continuous and smooth adjustment of the final outlet aerosol temperature.

[0098] 3) Based on the above solution, it supports setting different temperature modes such as single atomizing chamber working independently, dual atomizing chambers or multiple atomizing chambers working together, including at least two of the first temperature mode, second temperature mode and third temperature mode, so as to provide aerosol output at various temperatures and significantly improve the user experience.

[0099] 4) By setting a mixing chamber 61 in front of the nozzle 70 and further adding a porous mesh plate 62 structure, aerosols of different temperatures and flow rates can be fully mixed here, ensuring the uniformity of aerosol temperature at the outlet of the nozzle 70, and improving the consistency and comfort of the user's taste.

[0100] Although preferred embodiments of the present disclosure have been described, those skilled in the art, upon learning the basic inventive concept, can make other changes and modifications to these embodiments. Therefore, the appended claims are intended to be interpreted as including the preferred embodiments as well as all changes and modifications falling within the scope of this disclosure.

[0101] Obviously, those skilled in the art can make various modifications and variations to this disclosure without departing from its spirit and scope. Therefore, if such modifications and variations fall within the scope of the claims of this disclosure and their equivalents, this disclosure is also intended to include such modifications and variations.

Claims

1. An atomizing device, characterized in that, It includes an atomizer body, an operating component disposed on the atomizer body, and at least a first atomizing chamber and a second atomizing chamber; The first atomizing chamber is used to store a first aerosol matrix, and the second atomizing chamber is used to store a second aerosol matrix. The first aerosol matrix and the second aerosol matrix have different boiling points. The atomizer body is configured to atomize at least one of the first aerosol matrix and the second aerosol matrix in response to a suction action. The atomizing device has at least two of a first temperature mode, a second temperature mode, and a third temperature mode for aerosols; the operating component is for user operation to generate a first instruction for causing the atomizing device to enter the first temperature mode, a second instruction for entering the second temperature mode, or a third instruction for entering the third temperature mode. In the first temperature mode: the atomizer body atomizes the first aerosol matrix to generate a first aerosol at the first temperature; In the second temperature mode: the atomizer body atomizes the second aerosol matrix to generate a second aerosol at the second temperature; In the third temperature mode: the atomizer body atomizes the first aerosol matrix and the second aerosol matrix to generate a first aerosol at the first temperature and a second aerosol at the second temperature.

2. The atomizing device as described in claim 1, characterized in that, The operating component includes a trigger capable of bidirectional movement along a set direction, and at least two regions, a first region, a second region, and a third region, are sequentially distributed along the positive direction of the set direction. The trigger can be operated by a user to be moved to the first region, the second region, or the third region along the set direction. When the trigger is moved to the first region, it can generate the first instruction; when the trigger is moved to the second region, it can generate the second instruction; and when the trigger is moved to the third region, it can generate the third instruction.

3. The atomizing device as described in claim 1, characterized in that, The operating component includes a touchscreen that allows a user to perform touch operations to generate at least two of the first instruction, the second instruction, and the third instruction.

4. The atomizing device as described in claim 1, characterized in that, It also includes a mouthpiece disposed on the atomizer body; The first atomizing chamber is provided with a first atomizing channel communicating with the mouthpiece, and the first atomizing channel is provided with a first atomizing core. The first atomizing chamber is used to carry a first aerosol matrix, and the first aerosol matrix includes a first solvent having a first boiling point. The first atomizing core is used to atomize the first aerosol matrix to generate a first aerosol at the first temperature. The second atomizing chamber is provided with a second atomizing channel communicating with the mouthpiece. The second atomizing channel is provided with a second atomizing core. The second atomizing chamber is used to carry a second aerosol matrix. The second aerosol matrix includes a second solvent having a second boiling point. The second atomizing core is used to atomize the second aerosol matrix to generate a second aerosol at the second temperature. In the first temperature mode: the first atomizing core is activated and the second atomizing core is deactivated to generate a first aerosol at the first temperature to flow to the mouthpiece; In the second temperature mode: the first atomizing core is not working and the second atomizing core is working to generate a second aerosol at the second temperature to flow to the mouthpiece; In the third temperature mode: the first atomizing core is activated and the second atomizing core is activated to generate a first aerosol at the first temperature to flow to the mouthpiece, and to generate a second aerosol at the second temperature to flow to the mouthpiece.

5. The atomizing device as described in claim 4, characterized in that, The difference between the first boiling point and the second boiling point is greater than 50°C.

6. The atomizing device as described in claim 4, characterized in that, The first atomizing chamber is provided with a first air inlet and a first adjustment mechanism. The first air inlet is connected to the first atomizing channel, and the first adjustment mechanism is used to adjust the opening amount of the first air inlet. The second atomizing chamber is provided with a second air inlet and a second adjustment mechanism. The second air inlet is connected to the second atomizing channel, and the second adjustment mechanism is used to adjust the opening volume of the second air inlet. In the first temperature mode, the opening volume of the first air inlet is greater than 0, and the opening volume of the second air inlet is equal to 0; in the second temperature mode, the opening volume of the first air inlet is equal to 0, and the opening volume of the second air inlet is greater than 0; in the third temperature mode, the opening volumes of both the first air inlet and the second air inlet are greater than 0.

7. The atomizing device as described in claim 6, characterized in that, The third temperature mode further includes a first sub-mode and a second sub-mode. In the first sub-mode, the opening amount of the first air inlet is greater than the opening amount of the second air inlet, and in the second sub-mode, the opening amount of the first air inlet is less than the opening amount of the second air inlet.

8. The atomizing device as described in claim 4, characterized in that, The atomizer body also includes a mixing chamber, which is located upstream of the mouthpiece, through which at least one of the first aerosol and the second aerosol flows to the mouthpiece.

9. The atomizing device as described in claim 8, characterized in that, It also includes a perforated mesh plate, which is installed inside the mixing chamber.

10. The atomizing device as described in claim 9, characterized in that, The porous mesh plate includes multiple mesh holes, the mesh hole diameter being 1mm to 4mm.

11. The atomizing device as described in claim 4, characterized in that, The first atomizing core includes a heating element, a liquid guiding element, and a liquid guiding tube, wherein the liquid guiding element is disposed between the heating element and the liquid guiding tube; The first atomizing chamber has an opening, and the liquid guide tube has multiple liquid inlet holes at the opening. The multiple liquid inlet holes are used to expose the liquid guide component so that the liquid guide component can guide the first aerosol matrix to the heating component.

12. An atomizing device, characterized in that, It includes multiple atomizing chambers, each of which stores an aerosol matrix and is provided with an atomizing channel. An atomizing core is provided in the atomizing channel, and the atomizing core is in contact with the aerosol matrix for atomizing the aerosol matrix. The aerosol matrix includes a solvent, and in the plurality of atomizing chambers, the boiling point difference between the solvents in at least the first atomizing chamber and the second atomizing chamber is not less than 50°C.

Images