Atomization device

Abstract

The utility model provides an atomization device, and relates to the technical field of electronic atomization, the atomization device comprises a shell with an air inlet and an air outlet, and further comprises a first aerosol generation assembly used for atomizing a first atomization substrate and generating first aerosol, and the first aerosol generation assembly comprises an atomization part; the second aerosol generating assembly is used for atomizing a second atomizing substrate and generating second aerosol, and a hollow channel is formed in the second aerosol generating assembly; wherein the first aerosol is mixed with the second aerosol through the hollow channel, and is output from the air outlet. According to the method and the device, diversified and personalized use requirements of the user are met, the use cost of the user is reduced, and the use experience of the user is improved.

Description

Technical Field

[0001] This application relates to the field of electronic atomization technology, specifically to an atomization device. Background Technology

[0002] Atomizing devices heat an atomizing matrix using atomizing components to generate an aerosol. In most designs, atomizing devices offer only one specific flavor, function, and effect of aerosol. However, different user groups have varying preferences for the flavor, function, and effect of aerosols, and existing products cannot meet the diverse and personalized needs of users. To obtain aerosols with different flavors, functions, and effects, users often need to purchase multiple atomizing devices, which not only increases user costs but also makes them inconvenient to carry, impacting the user experience. Utility Model Content

[0003] This application provides an atomizing device that solves the technical problem that existing atomizing devices cannot meet the diverse and personalized usage needs of users. The atomizing device of this application can be used with different first and second atomizing substrates according to different users' taste preferences and usage needs, thereby meeting the diverse and personalized usage needs of users, reducing user costs, and improving the user experience.

[0004] In some embodiments of this application, an atomizing device is provided, including a housing having an air inlet and an air outlet. The atomizing device further includes: a first aerosol generating component for atomizing a first atomizing matrix to generate a first aerosol, the first aerosol generating component including an atomizing section; and a second aerosol generating component for atomizing a second atomizing matrix to generate a second aerosol, the second aerosol generating component forming a hollow channel; wherein the first aerosol mixes with the second aerosol via the hollow channel and is output from the air outlet.

[0005] In some embodiments, the atomizing device further includes: an air guide channel formed within the housing, wherein the air inlet end of the air guide channel is connected to the air inlet, and the air outlet end of the air guide channel is connected to the hollow channel, and is configured to supply airflow from the air inlet to the hollow channel; wherein the first aerosol flows to the hollow channel via the air guide channel.

[0006] In some embodiments, the first aerosol generating component and the second aerosol generating component are arranged side by side within the housing; the gas guiding channel is disposed on the side of the first aerosol generating component away from the gas outlet, or the gas guiding channel is disposed on the side of the second aerosol generating component away from the gas outlet.

[0007] In some embodiments, the atomizing part is at least partially located in the air guiding channel.

[0008] In some embodiments, the atomizing unit includes: a first atomizing element configured to atomize the first atomizing matrix to generate the first aerosol; wherein the first atomizing element is a first heating element or an ultrasonic transducer; the second aerosol generating assembly includes: a second heating element disposed in the hollow channel and configured to atomize the second atomizing matrix to generate the second aerosol.

[0009] In some embodiments, the first aerosol generating assembly further includes: a rotating member movably connected within the housing and configured to rotate about its own central axis; at least two first liquid storage spaces arranged circumferentially around the central axis for storing the first atomizing matrix; and the first atomizing member forming a liquid path communication with at least one of the first liquid storage spaces to atomize the first atomizing matrix.

[0010] In some embodiments, the atomizing unit further includes: a first liquid guiding member disposed on the rotating member and communicating with the corresponding first liquid storage space to form a liquid path for adsorbing the first atomizing matrix; at least one end of the first liquid guiding member facing the gas guiding channel is exposed on the rotating member; wherein, the rotating member rotates about the central axis to rotate at least one first liquid guiding member corresponding to the first liquid storage space to a set position, such that the portion of the first liquid guiding member exposed on the rotating member abuts against the first atomizing member.

[0011] In some embodiments, the first aerosol generating component further includes: a first liquid storage element, housed in a corresponding first liquid storage space, for adsorbing the first atomizing matrix, and configured to be connected to a corresponding first liquid guiding element.

[0012] In some embodiments, the atomizing device further includes: a mounting cavity formed within the housing, the mounting cavity communicating with the air guide channel through a first opening, and the rotating member movably connected within the mounting cavity; wherein the first atomizing member is configured to abut against the first liquid guide member located at the predetermined position through the first opening.

[0013] In some embodiments, the second aerosol generating component further includes: a second liquid storage space formed within the housing for storing the second atomizing matrix; and an atomizing core housed in the second liquid storage space and connected to the second liquid storage space via a liquid path for atomizing the second atomizing matrix and generating the second aerosol.

[0014] In some embodiments, the atomizing core includes: a second liquid guiding member, which forms a liquid path communication with the second liquid storage space and is used to adsorb the second atomizing matrix; the second liquid guiding member is provided with an atomizing air channel, which constitutes part of the hollow channel; and the second heating element is housed in the atomizing air channel and at least partially abuts against the second liquid guiding member.

[0015] The atomizing device of this application has a first aerosol generating component and a second aerosol generating component, which can simultaneously provide the user with a first aerosol and a second aerosol. The first aerosol is mixed with the second aerosol through the hollow channel in the second aerosol generating component to form a mixed aerosol, which is then output from the outlet.

[0016] The first and second atomizing substrates can be configured with effective ingredients that have different flavors, functions, and effects, enabling the atomizing device of this application to be used with different first and second atomizing substrates according to different users' taste preferences and usage needs, thereby meeting users' diversified and personalized usage needs, reducing user costs, and improving user experience. Attached Figure Description

[0017] The present invention will be further described below with reference to the accompanying drawings and embodiments. In the accompanying drawings:

[0018] Figure 1 This is a schematic diagram of the overall structure of one embodiment of the atomizing device of this application;

[0019] Figure 2 This is a schematic diagram of the vertical cross-sectional structure of one embodiment of the atomizing device of this application;

[0020] Figure 3 yes Figure 2 Enlarged schematic diagram of the local structure at point A;

[0021] Figure 4 This is an exploded view of the overall structure of the first aerosol generating component in one embodiment of the atomizing device of this application;

[0022] Figure 5 This is a schematic diagram of the rotating component in one embodiment of the atomizing device of this application;

[0023] Figure 6 This is a schematic diagram of the structure of a flexible component in one embodiment of the atomizing device of this application;

[0024] Figure 7 This is a partial structural diagram of one embodiment of the atomizing device of this application. Figure 1 ;

[0025] Figure 8This is an exploded view of the atomizing core structure of one embodiment of the atomizing device of this application;

[0026] Figure 9 This is a partial structural diagram of one embodiment of the atomizing device of this application. Figure 2 ;

[0027] Figure 10 yes Figure 2 A magnified view of the local structure at point B.

[0028] The attached figures are labeled as follows:

[0029] 100-Atomizing device; XX-axis, YY-axis, ZZ-axis;

[0030] 10-Shell, 11-Air inlet, 12-Air outlet, 121-Air outlet pipe, 13-Air guide channel, 131-First air inlet end, 132-First air outlet end, 133-Second absorbent cotton, 14-Installation cavity, 141-First opening, 15-First window, 16-First accommodating chamber, 161-First absorbent cotton, 17-Second accommodating chamber;

[0031] 20-First aerosol generating component, 21-First atomizing component, 211-First heating component, 22-Rotating component, 221-Central axis, 222-First liquid storage space, 223-Injection port, 224-First shaft hole, 23-First liquid guiding component, 24-First liquid storage element, 25-Flexible component, 251-Liquid passage hole, 252-Sealing ring, 253-Second shaft hole, 26-Atomizing tube, 27-Fixed bracket, 28-Central shaft, 29-Damping component;

[0032] 30-Second aerosol generating component, 31-Second liquid storage space, 32-Atomizing core, 321-Atomizing core tube, 3211-Liquid inlet, 3212-Void vent, 322-Second liquid guiding component, 3220-Atomizing air passage, 3221-Main body, 3222-Extension, 323-Second heating element, 33-Fixing tube, 331-Second air inlet, 34-Air guiding tube, 341-Second air outlet, 35-Second liquid storage element;

[0033] 40 - Control component; 41 - Control switch;

[0034] 50 - Power supply module; 60 - Intake channel; 61 - First channel section; 62 - Second channel section; 70 - Intake adjustment component. Detailed Implementation

[0035] The technical solution of this application will be further described in detail below with reference to specific embodiments and accompanying drawings. In the following embodiments, many details are described to facilitate a better understanding of this application. However, those skilled in the art will readily recognize that some features may be omitted in different situations, or may be replaced by their components, materials, or methods. In some cases, certain operations related to this application are not shown or described in the specification. This is to avoid obscuring the core parts of this application with excessive description. For those skilled in the art, detailed description of these related operations is not necessary; they can fully understand the related operations based on the description in the specification and general technical knowledge in the art.

[0036] To facilitate understanding of the technical solution of this application, the width direction of the atomizing device is defined as the X-axis, the thickness direction of the atomizing device is defined as the Y-axis, and the height direction of the atomizing device is defined as the Z-axis, which is consistent with the direction of gravity.

[0037] Please see Figures 1 to 2 In some embodiments of this application, an atomizing device 100 is provided. The atomizing device 100 includes a housing 10 having an air inlet 11 and an air outlet 12. The atomizing device 100 also includes a first aerosol generating component 20 and a second aerosol generating component 30. The first aerosol generating component 20 is used to atomize a first atomizing matrix and generate a first aerosol. The first aerosol generating component includes an atomizing section (such as...). Figure 3 (as shown in the image).

[0038] The second aerosol generating component 30 is used to atomize the second atomizing matrix and generate a second aerosol. The second aerosol generating component 30 has hollow channels (e.g., Figure 2 As shown in the diagram, a hollow channel is configured to allow airflow through which a second aerosol is generated. The first aerosol mixes with the second aerosol via the hollow channel and is then output from the outlet.

[0039] The atomizing device 100 of this application has a first aerosol generating component 20 and a second aerosol generating component 30, which can simultaneously provide the user with a first aerosol and a second aerosol. The first aerosol is mixed with the second aerosol through the hollow channel in the second aerosol generating component 30 to form a mixed aerosol, which is then output from the air outlet 12.

[0040] The first and second atomizing substrates can be configured with effective ingredients that have different flavors, functions, and effects, so that the atomizing device 100 of this application can be used with different first and second atomizing substrates according to the different taste preferences and usage needs of different users, thereby meeting the diversified and personalized usage needs of users, reducing user costs, and improving user experience.

[0041] In some embodiments, the lower end of the first aerosol generating component in the direction of gravity is configured as an atomizing section. This eliminates the need for an air passage within the first aerosol generating component, improving its sealing performance and preventing leakage of the first atomized matrix into the air passage. Furthermore, the atomizing section at the lower end in the direction of gravity allows the first atomized matrix to automatically converge there under gravity, ensuring a continuous supply of the first atomized matrix, which is beneficial for the generation of the first aerosol and improves its generation efficiency.

[0042] Please see Figure 2 In some embodiments, the atomizing device 100 further includes an air guide channel 13 formed within the housing 10. The air guide channel 13 has a first air inlet end 131 and a first air outlet end 132. The first air inlet end 131 of the air guide channel 13 communicates with the air inlet 11, and the first air outlet end 132 of the air guide channel 13 communicates with the hollow channel. The air guide channel 13 is configured to supply airflow from the air inlet 11 to the hollow channel. The first aerosol flows to the hollow channel via the air guide channel 13.

[0043] The first air inlet 131 of the air guide channel 13 is connected to the air inlet 11, so that the airflow outside the housing 10 can enter the air guide channel 13 through the air inlet 11; the first air outlet 132 of the air guide channel 13 is connected to the hollow channel, so that the airflow carrying the first aerosol is guided to the hollow channel, so that the first aerosol can automatically flow to the hollow channel under the drive of the airflow, and mix with the second aerosol generated by the second aerosol generating component 30 in the hollow channel.

[0044] The atomizing device 100 of this application connects the air inlet 11, the atomizing part of the first aerosol generating component 20, the second aerosol generating component 30, and the air outlet 12 in series in the air path through the air guide channel 13. This allows the first aerosol and the second aerosol to be mixed as the airflow flows from the air inlet 11 to the air outlet 12. The resulting mixed aerosol is then output from the air outlet 12 under the guidance of the hollow channel for the user to inhale.

[0045] The hollow channel has a second air inlet 331 and a second air outlet 341. The second air inlet 331 is connected to the first air outlet 132, and the second air outlet 341 is connected to the air outlet 12. The hollow channel is configured to supply airflow from the first air outlet 132 to the air outlet 12.

[0046] The second air inlet 331 of the hollow channel is connected to the first air outlet 132 of the air guide channel 13, and the second air outlet 341 of the hollow channel is connected to the air outlet 12, so that the air guide channel 13 and the hollow channel are connected sequentially. In use, the airflow entering through the air inlet 11 flows through the air guide channel 13 and the hollow channel in sequence, and is discharged through the air outlet 12. This allows the first aerosol generated in the air guide channel 13 to flow through the hollow channel under the influence of the airflow, and then merge with the second aerosol generated in the hollow channel before being discharged through the air outlet 12.

[0047] In the following embodiments, the first atomizing matrix is ​​illustrated using a fragrance liquid containing fragrance ingredients as an example, and the second atomizing matrix is ​​illustrated using an e-liquid containing a vapor-generating agent and tobacco ingredients or tobacco substitute ingredients as an example. The fragrance liquid can provide the user with a first aerosol having a preset fragrance scent, and the e-liquid can provide the user with a second aerosol containing tobacco ingredients or tobacco substitute ingredients.

[0048] Please see Figure 2 In some embodiments, the atomizing device 100 is placed along the Z-axis, i.e. the direction of gravity, with the air inlet 11 located at the lower end of the housing 10 in the direction of gravity and the air outlet 12 located at the upper end of the housing 10 in the direction of gravity.

[0049] The first aerosol generating component 20 and the second aerosol generating component 30 can be configured to be arranged along the axial direction of the housing 10. The first aerosol generating component 20 and the second aerosol generating component 30 are arranged side by side within the housing 10. The gas guiding channel 13 can be located on the side of the first aerosol generating component 20 away from the gas outlet 12, or the gas guiding channel 13 can be located on the side of the second aerosol generating component 30 away from the gas outlet 12.

[0050] The air guide channel 13 is positioned far from the air outlet 12. On the one hand, this facilitates the first atomizing matrix to gather towards the atomizing part under the action of gravity to continuously generate the first aerosol, ensuring a continuous supply of the first aerosol. On the other hand, it also extends the length of the hollow channel, which is conducive to the thorough mixing of the first aerosol and the second aerosol in the hollow channel, ensuring the consistency of the taste of each puff.

[0051] In some embodiments, the atomizing part is located at the lower end of the first aerosol generating component 20 in the direction of gravity, and the atomizing part is at least partially located in the air guiding channel 13, so that the first aerosol is generated in the air guiding channel 13 and flows rapidly into the hollow channel.

[0052] In some embodiments, the first aerosol generating component 20 and the second aerosol generating component 30 are arranged side by side on the left and right sides along the X-axis inside the housing 10, wherein the first aerosol generating component 20 is located on the right side inside the housing 10 and the second aerosol generating component 30 is located on the left side inside the housing 10.

[0053] The gas guiding channel 13 is arranged along the radial direction of the housing 10 and connects to the first aerosol generating component 20 and the second aerosol generating component 30 from the lower end. A hollow channel is formed in the second aerosol generating component 30 along the axial direction of the housing 10.

[0054] By adopting the technical solution of this application, the air guide channel 13 and the hollow channel are arranged in an approximately "L" shape inside the housing 10. The air guide channel 13 is positioned closer to the air inlet 11 rather than closer to the air outlet 12. This maximizes the length of the flow path and the confluence path of the first and second aerosols while minimizing the suction resistance during use of the atomizing device 100. This ensures that the first and second aerosols are fully mixed before being discharged, guaranteeing the homogeneity of the discharged mixed aerosol and ensuring a consistent taste for each puff. Furthermore, the longer flow path and confluence path also facilitate the cooling of the first and second aerosols, preventing burns to the user's mouth from the high-temperature aerosol.

[0055] Furthermore, the air guiding channel 13 is located at the lower end of the first aerosol generating component 20 and the second aerosol generating component 30 in the direction of gravity, and the atomizing part is at least partially located in the air guiding channel 13, so that the first atomizing matrix can automatically gather to the atomizing part under the action of gravity, realizing the continuous supply of the first atomizing matrix, which is conducive to the continuous generation of the first aerosol and improves the generation efficiency of the first aerosol.

[0056] In addition, the first aerosol generating component 20 and the second aerosol generating component 30 are arranged side by side inside the housing 10. The air guiding channel 13 connects the first aerosol generating component 20 and the second aerosol generating component 30 from one end near the air outlet 12. This can make the most of the space inside the housing 10, improve the compactness of the layout of the components inside the atomizing device 100, and facilitate the miniaturization and compact design of the atomizing device 100.

[0057] Please see Figures 2 to 4 In some embodiments, the atomizing section of the first aerosol generating assembly 20 includes a first atomizing element 21, configured to atomize the first atomizing matrix to generate a first aerosol. The first atomizing element 21 may be a first heating element 211 or an ultrasonic transducer (not shown).

[0058] The ultrasonic transducer can atomize the first atomizing matrix at room temperature without destroying the fragrance and other effective ingredients in the first atomizing matrix. Moreover, the droplet particles in the generated first aerosol are smaller and more uniform, which is conducive to human absorption and the fragrance release effect is better. This improves the quality of the first aerosol and the inhalation taste, thus enhancing the user experience.

[0059] The first heating element 211 directly heats the first atomizing substrate by electric heating, making it atomized. It is suitable for atomizing the first atomizing substrate with a high boiling point, has higher atomization efficiency, and does not generate noise due to vibration compared to ultrasonic atomization.

[0060] In actual production and manufacturing, an ultrasonic transducer or a first heating element 211 can be used to atomize the first atomizing matrix according to the effective components in the selected first atomizing matrix and the heat resistance of the first atomizing matrix. This application does not limit this.

[0061] Please see Figure 2 and Figure 8 In some embodiments, the second aerosol generating component 30 includes a second heating element 323 disposed in a hollow channel and configured to atomize the second atomizing matrix to generate a second aerosol.

[0062] The second heating element 323 is suitable for atomizing a high-boiling-point second atomizing matrix, such as liquid e-liquid containing smoke-generating agents and tobacco components. The heating atomization method can enable the e-liquid to generate a large amount of smoke in a short time for users to inhale. The atomization efficiency is higher, and compared with the ultrasonic atomization method, it will not generate noise due to vibration.

[0063] The atomizing device 100 of this application allows users to select the fragrance of the first aerosol (e.g., a flavored liquid) according to their taste preferences, and select the tobacco or tobacco substitute components of the second aerosol (e.g., an e-liquid) according to whether the user is in the process of quitting smoking. The first atomizing matrix is ​​atomized by the first atomizing element 21 located in the airflow channel 13, resulting in the generation of the first aerosol within the airflow channel 13. The second atomizing matrix is ​​atomized by the second heating element 323 located in the hollow channel, resulting in the generation of the second aerosol within the hollow channel. The airflow, after passing through the airflow channel 13, carries the generated first aerosol into the hollow channel, where it mixes with the produced second aerosol. This mixing of the fragrance components in the first aerosol with the tobacco or tobacco substitute components in the second aerosol provides the user with a preset fragrance, satisfying the user's personalized needs and enhancing the user experience.

[0064] In the following embodiments, the first atomizing element 21 takes the first heating element 211 as an example. The first heating element 211 has a heating mesh with a planar structure, which atomizes the first atomizing matrix and generates the first aerosol by heating.

[0065] Please see Figure 4 and Figure 5In some embodiments, the first aerosol generating assembly 20 further includes a rotating member 22 and at least two first liquid storage spaces 222. The rotating member 22 is movably connected within the housing 10 and configured to rotate about its own central axis 221. The first liquid storage spaces 222 are arranged circumferentially around the central axis 221 and are used to store the first atomizing matrix.

[0066] The first heating element 211 is connected to at least one first liquid storage space 222 to form a liquid path communication, so as to atomize the first atomizing matrix and generate the first aerosol.

[0067] The rotating component 22 rotates to switch the first liquid storage space 222, which is connected to the first heating component 211 in a liquid path.

[0068] The rotating component 22 can rotate relative to the housing 10 with its own central axis 221 as the central axis 221, so that the position of the first liquid storage space 222 disposed on the rotating component 22 changes, thereby switching the first liquid storage space 222 that forms a liquid channel communication with the first heating element 211, so as to realize the atomization of different first atomizing substrates.

[0069] The first atomizing matrix is ​​configured to provide a preset fragrance scent, and different first liquid storage spaces 222 are configured to store the same or different fragrance scents of the first atomizing matrix.

[0070] The first atomizing matrix contains fragrance components with a preset scent. These fragrance components are released outward with the first aerosol, providing the user with the preset scent. When different first liquid storage spaces 222 store the same scented first atomizing matrix, the storage capacity of the first aerosol generating component 20 providing the preset scent can be increased, which helps to extend its service life. When different first liquid storage spaces 222 store first atomizing matrices with different scents, different preset scented first aerosols can be provided to the user, enriching the flavor selection of the first aerosol and meeting the user's need to switch between multiple flavors of first aerosol independently.

[0071] The atomizing device 100 provided in this application allows users to rotate at least one first liquid storage space 222 containing a preset fragrance scent first atomizing matrix to form a liquid path connection with the first heating element 211 by rotating the rotating component 22 according to their personal taste preferences, when the first atomizing matrix in different first liquid storage spaces 222 is different. This generates a first aerosol with a preset fragrance scent, satisfying the user's need to independently switch between multiple flavors of the first aerosol.

[0072] When the first atomizing matrix in different first liquid storage spaces 222 is the same, after the first atomizing matrix in the current first liquid storage space 222 is consumed, the user can rotate the corresponding first liquid storage space 222 containing the first atomizing matrix to form a liquid path connection with the first heating element 211 by rotating the rotating component 22, thereby continuing to provide the user with the first aerosol with the preset fragrance scent, increasing the storage capacity of the first atomizing matrix, and meeting the user's demand for a large capacity of first atomizing matrix for a specific fragrance scent.

[0073] When multiple first liquid storage spaces 222 are connected to the first heating element 211 via a liquid path, these liquid storage spaces preferably store a first atomizing matrix with the same fragrance to generate a first aerosol with a preset fragrance, preventing cross-contamination of odors. The simultaneous supply of liquid from multiple first liquid storage spaces 222 to the first heating element 211 increases the supply of the first atomizing matrix, which is beneficial for increasing the generation of the first aerosol and improving the concentration of the fragrance in the mixed aerosol.

[0074] When a single first liquid storage space 222 is connected to the first heating element 211 in a liquid path, the first atomizing matrix with different fragrances can be stored in different first liquid storage spaces 222. This can increase the fragrance types of the first atomizing matrix stored in the first aerosol generating component 20, improve the user's choice of fragrance types for the mixed aerosol, and enhance the user experience.

[0075] Please see Figures 2 to 4 In some embodiments, the atomizing section of the first aerosol generating component 20 further includes a first liquid guiding element 23. The first liquid guiding element 23 is disposed on the rotating component 22 and forms a liquid path communication with the corresponding first liquid storage space 222 for adsorbing the first atomizing matrix. At least one end of the first liquid guiding element 23 facing the gas guiding channel 13 is exposed outside the rotating component 22.

[0076] The rotating member 22 rotates around the central axis 221 to rotate the first liquid guiding member 23 corresponding to at least one first liquid storage space 222 to a set position, so that the part of the first liquid guiding member 23 exposed on the rotating member 22 abuts against the first heating member 211.

[0077] The number of first liquid guiding elements 23 can be the same as the number of first liquid storage spaces 222, that is, each first liquid storage space 222 is connected to one first liquid guiding element 23 to form a liquid path. The user can rotate at least one first liquid guiding element 23 corresponding to the first liquid storage space 222 to a set position by rotating the rotating element 22, so that the part of the first liquid guiding element 23 exposed on the rotating element 22 can come into contact with the first heating element 211, thereby atomizing the first atomizing matrix adsorbed on the first liquid guiding element 23 by heating through the first heating element 211 and generating the first aerosol.

[0078] Understandably, after the rotating member 22 rotates around the central axis 221, it can rotate the first liquid guiding member 23 corresponding to one first liquid storage space 222 to a set position, or it can rotate the first liquid guiding member 23 corresponding to multiple first liquid storage spaces 222 to a set position. This application does not limit this, as long as it can rotate at least one first liquid guiding member 23 corresponding to a first liquid storage space 222 to a set position.

[0079] Understandably, in some other embodiments, the first atomizing element 21 may also be configured as an ultrasonic transducer to atomize the first atomizing matrix adsorbed on the first liquid guiding element 23 rotated to a set position and generate the first aerosol by ultrasonic atomization.

[0080] The atomizing device 100 of this application has an air guiding channel 13 that connects to the first aerosol generating component 20 and the second aerosol generating component 30 from the lower end near the air outlet 12. The first heating element 211 is disposed in the air guiding channel 13, and the bottom end of the first liquid guiding component 23 facing the air outlet 12 is configured to be at least partially exposed to the rotating component 22, so as to ensure that the first liquid guiding component 23 rotated to the set position can abut against the first heating element 211 through its exposed part of the rotating component 22. In use, the first atomizing matrix can automatically flow to the bottom end of the first liquid guiding component 23 under the action of gravity, ensuring the stability and continuity of the liquid supply to the first heating element 211, and ensuring the continuous and stable generation of the first aerosol.

[0081] The first liquid guiding component 23 can be completely housed in the corresponding first liquid storage space 222, or it can be partially housed in the corresponding first liquid storage space 222. This application does not limit this, as long as the first liquid guiding component 23 can abut against the first heating component 211 through the part of it exposed on the rotating component 22.

[0082] Please see Figures 2 to 4 In some embodiments, the first aerosol generating component 20 further includes a first liquid storage element 24, which is housed in a corresponding first liquid storage space 222 for adsorbing the first atomizing matrix. The first liquid storage element 24 is configured to be connected to a corresponding first liquid guiding element 23.

[0083] The atomizing device 100 of this application adsorbs the first atomizing matrix in the first liquid storage space 222 through the first liquid storage element 24, which significantly reduces the risk of the first atomizing matrix leaking from the gap between the first liquid storage space 222 and the first liquid guiding element 23, and improves the user experience.

[0084] The first liquid storage element 24 and the first liquid guiding element 23 can be made of the same porous material or different porous materials, and this application does not limit them in this regard.

[0085] When the first liquid storage element 24 and the first liquid guiding element 23 are made of the same porous material, they can be set as an integral structure, which can reduce production costs and the fewer parts also facilitate the assembly of the atomizing device 100.

[0086] When the first liquid storage element 24 and the first liquid guiding element 23 are manufactured using different porous materials, they adopt a separate structural design. The first liquid storage element 24 can be manufactured using a porous material with better liquid absorption, which can adsorb more of the first atomizing matrix, thus increasing the storage capacity of the first atomizing matrix in the first liquid storage space 222. The first liquid guiding element 23 can be manufactured using a porous material with better liquid locking effect, which can reduce the risk of the first atomizing matrix leaking from the part of the first liquid guiding element 23 exposed to the rotating part into the gas guiding channel 13.

[0087] Please see Figure 5 and Figure 6 In some embodiments, the rotating member 22 is provided with a liquid injection port 223, which is connected to the corresponding first liquid storage space 222.

[0088] The first aerosol generating component 20 also includes a flexible element 25, which is detachably connected to the rotating component 22 and seals the injection port 223.

[0089] The number of injection ports 223 is the same as the number of first liquid storage spaces 222. During use, after the first atomizing matrix in the first liquid storage space 222 is depleted, the user can manually disassemble the flexible component 25 and replenish the first atomizing matrix into the corresponding first liquid storage space 222 through the injection ports 223. This achieves the recycling of the first aerosol generating component 20, extends the service life of the atomizing device 100, and saves user operating costs.

[0090] The injection port 223 can be located at the upper end of the rotating member 22, the lower end of the rotating member 22, or on the side wall of the rotating member 22. This application does not limit this. As long as the first atomizing matrix can be added to the corresponding first liquid storage space 222 through the injection port 223, and the injection port 223 can be sealed by the flexible member 25.

[0091] Please see Figure 3 , Figure 4 and Figure 6In some embodiments, the injection port 223 is located at the bottom end of the rotating member 22 facing the air guide channel 13. A through-hole 251 is provided on the flexible member 25, connecting the corresponding first liquid storage space 222 to the external space of the flexible member 25. The first liquid storage element 24 and the first liquid guide element 23 are housed in the corresponding first liquid storage space 222. The first liquid guide element 23 is located at the lower end of the first liquid storage element 24, and at least partially exposed through the corresponding through-hole 251. The portion of the first liquid guide element 23 exposed through the through-hole 251 is configured to abut against the first heating element 211.

[0092] By housing the first liquid storage element 24 and the first liquid guiding element 23 within the first liquid storage space 222, the evaporation loss of the first atomizing matrix can be reduced, and the risk of leakage in the first liquid storage space 222 can also be significantly reduced. By placing the injection port 223 at the bottom end of the rotating member 22 facing the gas guiding channel 13, and simultaneously placing the liquid passage hole 251 on the flexible member 25, the first liquid guiding element 23 can contact the first heating element 211 through the portion exposed in the liquid passage hole 251, while reducing the number of openings or holes in the rotating part, further reducing the risk of leakage in the first liquid storage space 222.

[0093] Please see Figure 3 and Figure 6 In some embodiments, the flexible member 25 is provided with a sealing ring 252 on the bottom surface of the air guide channel 13, and the sealing ring 252 is arranged around the periphery of the corresponding liquid passage 251.

[0094] The sealing ring 252 is configured to abut against the inner wall of the housing 10 to close the liquid passage 251 corresponding to the first liquid guide 23 that has been rotated to a position other than the set position.

[0095] In actual use, the first liquid guide 23, rotated to the set position, abuts against the first heating element 211 through the corresponding liquid passage 251, thereby transferring the first atomizing matrix in the corresponding first liquid storage space 222 to the first heating element 211, thus generating the first aerosol. Simultaneously, other liquid passages 251 corresponding to the first liquid guide 23 rotated to a position other than the set position on the rotating member 22 are configured to abut against the inner wall surface of the housing 10. This utilizes the inner wall surface of the housing 10 to seal the liquid passages 251 corresponding to the first liquid guide 23 rotated to a position other than the set position, preventing the first atomizing matrix or volatile components in the first atomizing matrix from leaking out through the corresponding liquid passages 251 from the first liquid storage space 222 outside the set position. This improves the sealing performance of the atomizing device 100 and enhances the user experience.

[0096] The flexible component 25 is made of a flexible material, which can be selected from silicone, rubber, soft plastic, etc., and this application does not limit this selection. The flexible component 25, made of a flexible material, has a certain degree of elasticity, provides a good sealing effect, and reduces the risk of leakage in the first liquid storage space 222. The sealing ring 252 is preferably manufactured integrally with the flexible component 25, enabling it to form a good seal with the inner wall surface of the housing 10, ensuring a good seal for the liquid passage hole 251.

[0097] Please see Figure 3 and Figure 7 In some embodiments, the atomizing device 100 further includes a mounting cavity 14, which is formed inside the housing 10 and communicates with the air guide channel 13 through a first opening 141. The rotating member 22 is movably connected inside the mounting cavity 14.

[0098] The first heating element 211 is configured to abut against the first liquid guiding element 23 located at a set position through the first opening 141.

[0099] The mounting cavity 14 is connected to the air guide channel 13 through the first opening 141, so that the first heating element 211 can abut against the first liquid guide element 23 located at a set position through the first opening 141, thereby realizing the liquid path connection between the first atomizing element 21 and the corresponding first liquid storage space 222, thereby atomizing the first atomizing matrix in the first liquid storage space 222 and generating the first aerosol.

[0100] Please see Figure 2 In some embodiments, the mounting cavity 14 is disposed along the Z-axis on the right side inside the housing 10, and the air guide channel 13 is disposed along the X-axis at the lower end of the mounting cavity 14 and extends to the left side inside the housing 10 to connect with the second aerosol generating component 30.

[0101] Please see Figure 3 The atomizing part of the first aerosol generating component 20 also includes an atomizing tube 26 located in the air guiding channel 13. The upper end of the atomizing tube 26 penetrates the bottom surface of the mounting cavity 14 and forms the aforementioned first opening 141. The lower end of the atomizing tube 26 is located in the air guiding channel 13 and communicates with the air guiding channel 13.

[0102] The first heating element 211 is fixedly connected to the atomizing tube 26 by a fixing bracket 27, and the heating mesh of the first heating element 211 at least partially closes the first opening 141.

[0103] In use, the rotating member 22 rotates around its central axis 221 to rotate the first liquid guiding member 23 corresponding to any first liquid storage space 222 to a set position, so that the portion of the first liquid guiding member 23 exposed in the liquid passage hole 251 can abut against the heating mesh portion of the first heating element 211 through the first opening 141, thereby heating the first atomizing matrix and generating the first aerosol through the first heating element 211. At this time, the projection of the liquid passage hole 251 corresponding to the first liquid guiding member 23 on the bottom surface of the mounting cavity 14 is within the opening range of the first opening 141. The sealing ring portion 252 around the liquid passage hole 251 can be configured to abut against the bottom surface of the mounting cavity 14, or it can be configured to abut against the periphery of the heating mesh portion of the first heating element 211, to prevent the generated first aerosol from leaking into the mounting cavity 14 from the gap between the first opening 141 and the sealing ring portion 252. The sealing ring 252 around the liquid passage 251 corresponding to the first liquid guide 23, which is rotated to a position other than the set position, seals against the bottom surface of the mounting cavity 14 to seal the corresponding liquid passage 251, preventing the first atomizing matrix or volatile components in the first atomizing matrix, which are located in the first liquid storage space 222 outside the set position, from leaking from the liquid passage 251 into the mounting cavity 14 or from leaking through the first opening 141 into the gas guide channel 13.

[0104] During use, the heating mesh of the first heating element 211 is energized and heats up to atomize the first atomizing matrix transported on the first liquid guiding element 23. The generated first aerosol first collects in the atomizing tube 26, which helps to increase the concentration of the first aerosol. The first aerosol collected in the atomizing tube 26 is carried by the airflow through the air guiding channel 13 into the hollow channel, and then merges with the second aerosol generated in the hollow channel before being discharged through the air outlet 12 for the user to inhale.

[0105] The atomizing tube 26, the fixed bracket 27, the first heating element 211, the rotating element 22 facing the bottom of the air guiding channel 13, the flexible element 25, and the first liquid guiding element 23 constitute the atomizing part at the end of the first aerosol generating component 20.

[0106] Please see Figure 4 In some embodiments, the first aerosol generating component 20 further includes a central shaft 28 disposed in the mounting cavity 14 and extending along the Z-axis. A first shaft hole 224 that engages with the central shaft 28 is disposed through the central axis 221 of the rotating component 22. A second shaft hole 253 that engages with the central shaft 28 is disposed through the center of the flexible component 25.

[0107] During assembly, the first liquid storage element 24 and the first liquid guiding element 23 can be first inserted into the corresponding first liquid storage space 222 through the liquid injection port 223. Then, the flexible element 25 is fixedly connected to the rotating element 22 and the liquid injection port 223 is sealed, so that at least part of the end of the first liquid guiding element 23 facing the gas guiding channel 13 is exposed to the corresponding liquid passage hole 251. Then, the combined rotating element 22 and flexible element 25 are inserted into the central shaft 28 through the first shaft hole 224 and the second shaft hole 253, so that the rotating element 22 can rotate around the central shaft 28, thereby rotating the first liquid guiding element 23 corresponding to any first liquid storage space 222 to the set position. The structure is simple, easy to assemble, and convenient to use.

[0108] Please see Figure 1 In some embodiments, the housing 10 is also provided with a first window 15, which connects the mounting cavity 14 with the external space of the housing 10. When in use, the user can use the first window 15 to move the rotating part 22 in the mounting cavity 14 so that the rotating part 22 can rotate around the central axis 221 to realize the flavor switching of the first aerosol.

[0109] The rotating part 22 can be made of a transparent material so that the user can see the amount of the first atomizing matrix in each first liquid storage space 222 intuitively from the first window 15.

[0110] Please see Figure 2 and Figure 4 In some embodiments, the first aerosol generating component 20 further includes a damping element 29, which is configured as a cylindrical structure and fixedly sleeved on the outer wall of the rotating component 22, and the damping element 29 is at least partially exposed through the first window 15. The damping element 29 is preferably made of silicone material, which has a high coefficient of friction, making it easy for the user to move the rotating component 22 through the damping element 29.

[0111] Please see Figure 2 In some embodiments, the second aerosol generating component 30 further includes a second liquid storage space 31 and an atomizing core 32. The second liquid storage space 31 is formed inside the housing 10 and is used to store the second atomizing matrix.

[0112] The atomizing core 32 is housed in the second liquid storage space 31 and forms a liquid path communication with the second liquid storage space 31, for atomizing the second atomizing matrix and generating a second aerosol. A hollow channel is provided through the atomizing core 32 and the second liquid storage space 31 so that the first aerosol carried in the airflow can mix with the generated second aerosol in the atomizing core 32, and then be discharged from the air outlet 12 under the drive of the airflow through the atomizing core 32 and the second liquid storage space 31.

[0113] Please see Figure 2 and Figure 7In some embodiments, the second aerosol generating component 30 further includes a fixed tube 33 fixed in the housing 10. The fixed tube 33 is coaxially arranged with the air outlet 12. The lower end of the fixed tube 33 penetrates the bottom surface of the second liquid storage space 31 and is connected to the air guide channel 13. The upper end of the fixed tube 33 is located in the second liquid storage space 31 and is connected to the second liquid storage space 31.

[0114] The inner cavity of the fixed tube 33 forms part of the hollow channel, and the bottom opening of the fixed tube 33 connected to the air guide channel 13 forms the second air inlet 331 of the hollow channel.

[0115] The second aerosol generating component 30 also includes a gas guide tube 34 fixed within the housing 10 (e.g., Figure 2 As shown in the diagram, the air guide tube 34 is coaxially arranged with the air outlet 12, and is at least partially located in the second liquid storage space 31, at least partially extending out of the second liquid storage space 31 and coaxially opposite to the air outlet 12. The lower end of the atomizing core 32 is fixedly connected to the fixing tube 33, and the upper end of the atomizing core 32 is fixedly connected to the air guide tube 34, so that the airflow discharged from the air guide channel 13 can flow to the air outlet 12 via the fixing tube 33, the atomizing core 32, and the air guide tube 34.

[0116] The inner cavity of the air guide tube 34 forms part of the hollow channel, and the top opening of the air guide tube 34 connected to the air outlet 12 forms the second air outlet 341 of the hollow channel.

[0117] Please see Figure 2 and Figure 8 In some embodiments, the atomizing core 32 includes a second liquid guiding element 322 and a second heating element 323. The second liquid guiding element 322 forms a liquid path communication with the second liquid storage space 31 for adsorbing the second atomizing matrix. The second liquid guiding element 322 is provided with an atomizing air channel 3220. The air inlet end of the atomizing air channel 3220 is connected to the first air outlet end of the air guiding channel 13 through a fixed tube 33, and the air outlet end of the atomizing air channel 3220 is connected to the air outlet 12 through an air guiding tube 34. The atomizing air channel 3220 constitutes part of the hollow channel.

[0118] The second heating element 323 is housed in the atomizing air passage 3220 and at least partially abuts against the second liquid guiding element 322, for atomizing the second atomizing matrix and generating the second aerosol.

[0119] Please see Figure 2 and Figure 8 In some embodiments, the atomizing air passage 3220 extends axially through the second liquid guide 322, and the second heating element 323 has a heating mesh portion with an arc-shaped winding structure, which is housed in the atomizing air passage 3220 and abuts against the inner wall surface of the second liquid guide 322.

[0120] In use, the second liquid guide 322 adsorbs the second atomizing matrix in the second liquid storage space 31 through its outer wall and transfers it to its inner wall. The heating mesh of the second heating element 323 is energized and heats up, heating the second atomizing matrix transferred to its inner wall by the second liquid guide 322 to atomize, thereby generating a second aerosol in the atomizing air passage 3220. The first aerosol discharged from the air guide channel 13 is driven by the airflow, merges and mixes with the second aerosol in the hollow channel, and is discharged through the air guide tube 34 and the air outlet 12 under the drive of the airflow for the user to inhale.

[0121] Please see Figure 2 and Figure 8 In some embodiments, the atomizing core 32 further includes an atomizing core tube 321, which extends along the Z-axis. The lower end of the atomizing core tube 321 is inserted and fixed to the fixed tube portion 33, and the upper end of the atomizing core tube 321 is inserted and fixed to the air guide tube portion 34. The inner cavity of the atomizing core tube 321 forms part of a hollow channel. At least one liquid inlet 3211 is radially provided through the tube wall of the atomizing core tube 321, and the liquid inlet 3211 connects the second liquid storage space 31 with the inner cavity of the atomizing core tube 321.

[0122] The second liquid guiding element 322 is housed in the inner cavity of the atomizing core tube 321, and at least part of the second liquid guiding element 322 closes the liquid inlet 3211 from the inside so as to achieve liquid communication with the second liquid storage space 31 through the liquid inlet 3211.

[0123] The atomizing core 32 is fixedly connected between the fixed tube section 33 and the air guide tube section 34 via the atomizing core tube 321, and the second liquid guide component 322 and the second heating component 323 are housed in the atomizing core tube. The structure is simple and easy to assemble.

[0124] Please see Figure 2 The atomizing device 100 also includes a first accommodating chamber 16, which is disposed inside the housing 10, near and in communication with the air outlet 12. A first aerosol generating component 20 and a second aerosol generating component 30 are located in the lower part of the first accommodating chamber 16. The upper end of the air guide tube 34 extends from the second liquid storage space 31 and is at least partially within the first accommodating chamber 16, so that the airflow discharged from the hollow channel can flow through the first accommodating chamber 16 to the air outlet 12.

[0125] The housing 10 is also provided with an air outlet pipe 121 arranged along the Z-axis. The air outlet pipe 121 extends from the air outlet 12 into the first accommodating chamber 16 and corresponds to the air guide pipe 34 above and below. A gap is left between the air outlet pipe 121 and the air guide pipe 34.

[0126] The first accommodating chamber 16 is provided with a first absorbent cotton 161. The first absorbent cotton 161 at least partially seals the gap between the air outlet pipe 121 and the air guide pipe 34, so as to absorb large droplets in the mixed aerosol discharged from the hollow channel through the first absorbent cotton 161, so as to prevent the droplets in the mixed aerosol from being inhaled by the user and affecting the sucking experience.

[0127] Please see Figure 9 In some embodiments, a second absorbent cotton 133 is provided in the air guide channel 13. The second absorbent cotton 133 can absorb large droplets in the airflow in the air guide channel, reducing the risk of large droplets carried by the first aerosol entering the hollow channel. On the other hand, the second absorbent cotton 133 can also absorb large droplets that condense and drip from the hollow channel, significantly reducing the risk of leakage of the atomizing device 100 and improving the user experience.

[0128] Please see Figure 2 In some embodiments, the second aerosol generating component 30 further includes a second liquid storage element 35, which is housed in a second liquid storage space 31 for adsorbing the second atomizing matrix. The second liquid storage element 35 is configured to form a liquid channel communication with the second liquid guide 322.

[0129] The second liquid storage element 35 can be made of a porous material with good liquid absorption. It fills the second liquid storage space 31 and wraps around the atomizing core 32, so that the second liquid storage element 35 can form a liquid path communication with the second liquid guide 322 housed in the atomizing core tube 321 through the liquid inlet 3211. By adsorbing the second atomizing matrix through the second liquid storage element 35, compared with directly filling the second liquid atomizing matrix into the second liquid storage space 31, the risk of leakage of the second liquid storage space 31 can be further reduced, thus improving the user experience.

[0130] Please see Figure 8 In some embodiments, the second liquid guide 322 includes a main body 3221 extending along the Z-axis and an extension 3222 extending along the Y-axis. The atomizing air passage 3220 axially penetrates the main body 3221, and the extension 3222 is radially connected to the main body 3221. The extension 3222 at least partially extends out of the atomizing core tube 321 and is inserted into the second liquid storage element 35. In use, the extension 3222 can serve as an intermediate connecting medium to enable the second liquid storage element 35 to form a stable and reliable liquid path connection with the main body 3221, ensuring continuous and smooth liquid supply to the atomizing core 32.

[0131] Correspondingly, the tube wall of the atomizing core tube 321 is also provided with a clearance opening 3212 for the extension portion 3222 to extend out. The upper axial end of the clearance opening 3212 extends to the upper opening of the atomizing core tube 321, so that the main body 3221 of the second liquid guide 322 can be axially inserted and fixed into the atomizing core tube 321 from top to bottom, and the extension portion 3222 can extend into the second liquid storage space 31 through the clearance opening 3212.

[0132] Please see Figure 2 In some embodiments, the atomizing device 100 further includes a second accommodating chamber 17, which is disposed inside the housing 10, near and communicating with the air inlet 11. An air guide channel 13 is located at the upper part of the second accommodating chamber 17. Electronic components such as the control assembly 40 and power supply module 50 of the atomizing device 100 are housed within the second accommodating chamber 17.

[0133] The atomizing device 100 also includes an air intake channel 60, which is disposed in the housing 10 and isolated from the inner cavity of the second accommodating chamber 17. The air intake end of the air intake channel 60 is connected to the air inlet 11, and the air outlet end of the air intake channel 60 is connected to the first air intake end 131 of the air guide channel 13. The airflow entering through the air inlet 11 is guided directly to the first air intake end 131 of the air guide channel 13 by the air intake channel 60, and will not enter the second accommodating chamber 17. This avoids the adverse effects of external airflow on electronic components such as the control component 40 and the power supply module 50, reduces the failure rate of the atomizing device 100, and improves the reliability of the atomizing device 100.

[0134] Please see Figure 2 , Figure 9 and Figure 10 In one specific embodiment, the intake passage 60 includes a first passage section 61 and a second passage section 62 connected in sequence, wherein, as shown... Figure 10 As shown, the first channel section 61 is disposed within the second accommodating compartment 17, extending in an "L" shaped path, and the air inlet end of the first channel section 61 is connected to the air inlet 11. Figure 9 As shown, the second channel section 62 is located outside the air guide channel 13, extending in a U-shape, surrounding the outside of the air guide channel 13. The arc end of the U-shaped path connects to the outlet end of the first channel section 61, and the open end of the U-shaped path connects to the first inlet end 131 of the air guide channel 13. In use, the airflow enters the first channel section 61 through the inlet, and then, guided by the second channel section 62, flows from both sides of the air guide channel 13 to the first inlet end 131, resulting in higher air intake efficiency.

[0135] Please see Figure 2 and Figure 10In some embodiments, the atomizing device 100 further includes an air intake regulator 70, which is connected to the air intake port 11 and the air intake channel 60 and configured to adjust the air intake volume of the air intake channel 60.

[0136] The intake adjustment member 70 is configured to be positionally variable between a first position and a second position within the opening range of the intake port 11. In some embodiments, the intake port 11 is configured as a slotted structure extending along the X-axis, and the intake adjustment member 70 is at least partially movable within the intake port 11. The first position is exemplified by the position where the intake adjustment member 70 is moved along the X-axis to the right end of the intake port 11, and the second position is exemplified by the position where the intake adjustment member 70 is moved along the X-axis to the left end of the intake port 11.

[0137] The intake adjustment component 70 is provided with a first vent 71 and a second vent 72. When the intake adjustment component 70 moves along the X-axis to the first position at the right end of the intake port 11, the first vent 71 moves into the opening range of the intake port 11. At this time, the second vent 72 is blocked by the inner wall of the housing 10 on the right side of the intake port 11. Air from outside the housing 10 enters the intake channel 60 through the first through hole, and then flows into the air guide channel 13 through the first intake end 131 under the guidance of the intake channel 60.

[0138] When the intake adjustment component 70 moves along the X-axis to the second position at the left end of the intake port 11, the second vent 72 moves into the opening range of the intake port 11. At this time, the first vent 71 is blocked by the inner wall of the housing 10 on the left side of the intake port 11. Air from outside the housing 10 enters the intake channel 60 through the second through hole, and then flows into the air guide channel 13 through the first intake end 131 under the guidance of the intake channel 60.

[0139] When the intake adjustment component 70 moves along the X-axis to the middle position of the intake port 11, the first vent 71 and the second vent 72 move together to the opening range of the intake port 11. The air outside the housing 10 enters the intake channel 60 through the first vent 71 and the second vent 72, and then flows into the air guide channel 13 through the first intake end 131 under the guidance of the intake channel 60.

[0140] When the air intake adjustment component 70 is in the middle position, the first vent 71 and the second vent 72 simultaneously intake air. At this time, the total air intake in the second accommodating chamber 17 is at its maximum, which is suitable for the atomizing device 100 to intake air when it is in the lung inhalation mode. At this time, the first heating element 211 and the second heating element 323 can be configured to operate in the maximum power mode to increase the amount of aerosol generated.

[0141] When the air intake adjustment component 70 is in the first position or the second position, air is introduced through one of the first vent 71 and the second vent 72. At this time, the total air intake in the second accommodating chamber 17 is relatively smaller, which is suitable for the atomizing device 100 to take in air under mouth-inhalation conditions. At this time, the first heating element 211 and the second heating element 323 can be configured to operate in low-power mode to reduce the amount of aerosol generated.

[0142] The air intake volume of the first vent 71 and the second vent 72 can be set to be different so that when the air intake adjustment member 70 is in the first position and the second position, the atomizing device 100 has different air intake volumes to adapt to the different working modes of the first heating element 211 and the second heating element 323.

[0143] Please see Figure 10 In some embodiments, the control component 40 includes a control switch 41, which can be configured to have three different gears: a first gear, a middle gear, and a second gear. Switching between the three gears is achieved by moving a gear lever on the control switch 41. The control component 40 adjusts the operation of the first heating element 211 and the second heating element 323 accordingly based on the changes in the three gears of the control switch 41.

[0144] In some embodiments, the air intake volume of the first vent 71 can be configured to be less than the air intake volume of the second vent 72. The air intake regulating member 70 is linked to the gear lever of the control switch 41 so that when the position of the air intake regulating member 70 changes, the lever is driven to move synchronously and the gear switching of the control switch 41 is realized.

[0145] When the intake regulating component 70 is in the middle position, it moves the gear lever of the control switch 41 to the middle position. At this time, the control component 40 can be configured to control the first heating element 211 and the second heating element 323 to operate in the maximum power mode. When the intake regulating component 70 is in the first position, it moves the gear lever of the control switch 41 to the first position. At this time, the control component 40 can be configured to control the first heating element 211 and the second heating element 323 to operate in the minimum power mode. When the intake regulating component 70 is in the second position, it moves the gear lever of the control switch 41 to the second position. At this time, the control component 40 can be configured to control the first heating element 211 and the second heating element 323 to operate in the medium power mode.

[0146] The above examples illustrate the technical solution of this application only to aid in understanding its content and are not intended to limit the scope of this application. Those skilled in the art to which this application pertains can make several simple deductions, modifications, or substitutions based on the ideas presented in this application.

Claims

1. An atomizing device, comprising a housing having an air inlet and an air outlet, characterized in that, The atomizing device also includes: A first aerosol generating component is used to atomize a first atomizing matrix and generate a first aerosol, the first aerosol generating component including an atomizing section; The second aerosol generating component is used to atomize the second atomizing matrix and generate the second aerosol, and the second aerosol generating component forms a hollow channel; The first aerosol is mixed with the second aerosol through the hollow channel and output from the outlet.

2. The atomizing device as described in claim 1, characterized in that, The atomizing device also includes: An air guide channel is formed inside the housing. The air inlet end of the air guide channel is connected to the air inlet, and the air outlet end of the air guide channel is connected to the hollow channel. It is configured to allow airflow to flow from the air inlet to the hollow channel. The first aerosol flows to the hollow channel via the air guiding channel.

3. The atomizing device as described in claim 2, characterized in that, The first aerosol generating component and the second aerosol generating component are arranged side by side within the housing; The gas guiding channel is located on the side of the first aerosol generating component away from the gas outlet, or the gas guiding channel is located on the side of the second aerosol generating component away from the gas outlet.

4. The atomizing device as described in claim 3, characterized in that, The atomizing part is at least partially located in the air guiding channel.

5. The atomizing device as described in claim 2, characterized in that, The atomizing unit includes: The first atomizing element is configured to atomize the first atomizing matrix to generate the first aerosol; Wherein, the first atomizing element is a first heating element or an ultrasonic transducer; The second aerosol generating component includes: The second heating element is disposed in the hollow channel and configured to atomize the second atomizing matrix to generate the second aerosol.

6. The atomizing device as described in claim 5, characterized in that, The first aerosol generating component further includes: A rotating component, movably connected within the housing, is configured to rotate about its own central axis; At least two first liquid storage spaces are arranged circumferentially around the central axis for storing the first atomizing matrix; The first atomizing element is connected to at least one of the first liquid storage spaces to form a liquid path to atomize the first atomizing matrix.

7. The atomizing device as described in claim 6, characterized in that, The atomizing unit also includes: A first liquid guiding component is disposed on the rotating component and forms a liquid path communication with the corresponding first liquid storage space for adsorbing the first atomizing matrix; at least one end of the first liquid guiding component facing the gas guiding channel is exposed outside the rotating component. The rotating member rotates around the central axis to rotate at least one of the first liquid guiding members corresponding to the first liquid storage space to a set position, such that the portion of the first liquid guiding member exposed on the rotating member abuts against the first atomizing member.

8. The atomizing device as described in claim 7, characterized in that, The first aerosol generating component further includes: The first liquid storage element, housed in the corresponding first liquid storage space, is used to adsorb the first atomizing matrix and is configured to be connected to the corresponding first liquid guiding element.

9. The atomizing device as described in claim 7, characterized in that, The atomizing device also includes: An installation cavity is formed within the housing, and the installation cavity communicates with the air guide channel through a first opening. The rotating component is movably connected within the installation cavity. The first atomizing element is configured to abut against the first liquid guiding element located at the predetermined position through the first opening.

10. The atomizing device according to any one of claims 5-9, characterized in that, The second aerosol generating component further includes: A second liquid storage space is formed within the shell for storing the second atomizing matrix; The atomizing core is housed in the second liquid storage space and forms a liquid channel with the second liquid storage space, and is used to atomize the second atomizing matrix and generate the second aerosol.

11. The atomizing device as described in claim 10, characterized in that, The atomizing core includes: The second liquid guiding component is connected to the second liquid storage space to form a liquid path and is used to adsorb the second atomized matrix; the second liquid guiding component is provided with an atomizing air channel, which constitutes part of the hollow channel; The second heating element is housed in the atomizing air passage and at least partially abuts against the second liquid guiding element.

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