An electronic atomization device and a control method thereof

Abstract

The application discloses an electronic atomization device and a control method thereof. The electronic atomization device comprises a shell assembly provided with a suction air flow channel, a first mounting cavity and a second mounting cavity; a first atomizer fixedly arranged in the first mounting cavity, used for storing a first liquid and heating and atomizing the first liquid to form an aerosol flowing out of an outlet of the first mounting cavity in a working state; at least one second atomizer rotatably arranged in the second mounting cavity, each second atomizer being used for storing a different second liquid; and a rotary driving mechanism used for driving all the second atomizers to switch the outlets of the second mounting cavities in a rotating mode, wherein when any second atomizer is rotated to be in communication with the outlet of the second mounting cavity and is in the working state, the corresponding second liquid is heated and atomized to form an aerosol flowing out of the outlet of the second mounting cavity. The technical scheme can well meet the use requirements of more tastes of users.

Description

Technical Field

[0001] This application relates to the field of atomization technology, and in particular to an electronic atomization device and its control method. Background Technology

[0002] As the e-cigarette device market continues to develop, consumers are demanding greater diversity from these products. Traditional e-cigarette devices typically come with only a single atomizer. If a user wants to change flavors, they need to remove the current atomizer, empty the liquid and find a new flavor to fill it in, or replace the atomizer with one that already contains the new flavor. This undoubtedly increases the difficulty of operation for users, especially when traveling or out and about, as they may not be able to carry enough flavors and tools, making the e-cigarette device unable to meet their needs. Summary of the Invention

[0003] This application provides an electronic atomizing device and its control method, aiming to improve the technical problem that existing electronic atomizing devices are usually equipped with only a single atomizer, which cannot well meet the user's needs for more flavors.

[0004] Therefore, this application provides an electronic atomizing device, comprising:

[0005] The housing assembly is provided with a suction airflow channel, a first mounting cavity and a second mounting cavity, wherein the suction airflow channel is connected to the outlet of the first mounting cavity and the outlet of the second mounting cavity, respectively.

[0006] The first atomizer is fixedly installed in the first mounting cavity to store the first liquid and, in the working state, heats and atomizes the first liquid to form an aerosol flowing out through the outlet of the first mounting cavity.

[0007] At least one second atomizer is rotatably mounted in the second mounting cavity, and each second atomizer is used to store a different second liquid;

[0008] A rotary drive mechanism is driven to connect to all the second atomizers to switch the outlet of the second mounting cavity by rotation. When any second atomizer rotates to connect with the outlet of the second mounting cavity and is in working condition, the corresponding second liquid is heated and atomized to form an aerosol flowing out through the outlet of the second mounting cavity.

[0009] Optionally, in some embodiments of this application, a control component is further included. The control component includes a user interaction panel and a control circuit board. The user interaction panel is mounted on the surface of the housing assembly, and the control circuit board is built into the housing assembly and electrically connected to the user interaction panel and the rotary drive mechanism, respectively.

[0010] Optionally, in some embodiments of this application, the first atomizer includes a first airflow channel, a first liquid storage chamber, and a first atomizing component; one end of the first airflow channel is connected to the outlet of the first mounting cavity, and the other end of the first airflow channel is provided with the first atomizing component; the first liquid storage chamber at least partially surrounds the first airflow channel and is connected to the first atomizing component.

[0011] Optionally, in some embodiments of this application, one end of the first mounting cavity is provided with the first airflow channel and the first liquid storage cavity, and the other end of the first mounting cavity is provided with an atomizing chamber for mounting the first atomizing component, wherein the atomizing chamber is connected to the first liquid storage cavity and the first airflow channel respectively.

[0012] Optionally, in some embodiments of this application, the first airflow channel has a first atomizing channel segment extending into the atomizing chamber, the peripheral wall of the first atomizing channel segment is provided with at least one first liquid guide port, the first atomizing component is installed in the first atomizing channel segment and blocks all the first liquid guide ports;

[0013] The atomizing chamber is also filled with a first liquid storage cotton, which surrounds the first atomizing channel section and also blocks the connection between the atomizing chamber and the first liquid storage cavity.

[0014] Optionally, in some embodiments of this application, the housing assembly includes a rotating housing and an inner housing support with a fixed axis. The rotating housing is arranged around the fixed axis and rotatably connected to the fixed axis to form a second mounting cavity between the rotating housing and the fixed axis. The rotating housing is also provided with a plurality of partition plates to divide the second mounting cavity into at least one sub-mounting cavity arranged around the fixed axis.

[0015] Each of the sub-mounting cavities is fixedly provided with a second atomizer. The rotating housing is also driven to be connected to the rotating drive mechanism so that when the rotating drive mechanism drives the rotating housing to rotate around the fixed axis, it drives all the second atomizers to rotate synchronously around the fixed axis, so that all the second atomizers switch to connect to the outlet of the second mounting cavity by rotation.

[0016] Optionally, in some embodiments of this application, the second atomizer includes a second airflow channel, a second liquid storage chamber, a second liquid storage cotton, and a second atomizing component; one end of the second airflow channel is connected to the outlet of the second mounting cavity, and the other end of the second airflow channel is provided with the second atomizing component; the second liquid storage chamber surrounds the second airflow channel and is connected to the second atomizing component; the second liquid storage cotton is filled in the second liquid storage chamber.

[0017] Optionally, in some embodiments of this application, a power supply module, a first electrode module, and a second electrode module are further included. The housing module is also provided with a third mounting cavity. The power supply module is fixedly installed in the third mounting cavity. The power supply module is electrically connected to the control circuit board and the rotary drive mechanism respectively. The power supply module is also electrically connected to the first atomizer through the first electrode module and to all the second atomizers through the second electrode module in a switching manner.

[0018] Optionally, in some embodiments of this application, the second electrode module includes a first electrode assembly and at least one second electrode assembly. One end of the first electrode assembly is electrically connected to the power supply module. Each second atomizer is provided with a second electrode assembly so that when any second atomizer is rotated to communicate with the outlet of the second mounting cavity, the corresponding second electrode assembly abuts against the other end of the first electrode assembly.

[0019] Furthermore, this application also provides a control method for an electronic atomizing device, applied to the aforementioned electronic atomizing device, comprising the following steps:

[0020] The location of the target second atomizer is determined based on the flavor selection made by the user on the user interaction panel;

[0021] Based on the location of the target second atomizer, the target rotation angle required for the target second atomizer to rotate to a position communicating with the outlet of the second mounting cavity is calculated;

[0022] The rotary drive mechanism is controlled to drive multiple second atomizers to rotate by the target rotation angle, so that the target second atomizer is connected to the outlet of the second mounting cavity.

[0023] The electronic atomizing device and its control method provided in this application, through the aforementioned structural configuration, not only include a first atomizer that heats and atomizes a first liquid during operation to form an aerosol flowing out of the outlet of the first mounting cavity and into the suction airflow channel, but also include a rotary drive mechanism and at least one second atomizer. Each second atomizer stores a different second liquid, and the rotary drive mechanism is driven to connect to all second atomizers, driving all second atomizers to switch the outlet connected to the second mounting cavity by rotation. This ensures that when any one second atomizer is in operation, it can heat and atomize the corresponding second liquid to form an aerosol flowing out of the outlet of the second mounting cavity and into the suction airflow channel. In this way, when the electronic atomizing device is equipped with only one second atomizer, the user, driven by the rotary drive mechanism, can either keep the second atomizer off-center from connecting to the outlet of the second mounting cavity, thus keeping only the first atomizer in operation to experience the first flavor (i.e., only the aerosol formed by heating and atomizing the first liquid by the first atomizer), or rotate the second atomizer to connect to the outlet of the second mounting cavity, thus keeping both the first and second atomizers in operation to experience the second flavor (i.e., both the aerosol formed by heating and atomizing the first liquid by the first atomizer and the aerosol formed by heating and atomizing the second liquid by the second atomizer), thereby effectively satisfying the user's needs for more flavors. When this electronic atomizing device is equipped with two or more second atomizers, the user, driven by the rotary drive mechanism, can either rotate the first second atomizer to connect with the outlet of the second mounting cavity, thus putting both the first and second atomizers into operation to experience the first flavor (i.e., the aerosol formed by the first atomizer heating and atomizing the first liquid and the aerosol formed by the first second atomizer heating and atomizing the corresponding second liquid), or rotate the second second atomizer to connect with the outlet of the second mounting cavity, thus putting both the first and second atomizers into operation to experience the second flavor (i.e., the aerosol formed by the first atomizer heating and atomizing the first liquid and the aerosol formed by the second second atomizer heating and atomizing the corresponding second liquid), and so on, thereby effectively meeting the user's needs for more flavors. In addition, compared to existing electronic atomizing devices that directly switch between different atomizers to obtain a second flavor, this electronic atomizing device achieves a second flavor by mixing the aerosol formed by the second atomizer with the aerosol formed by the first atomizer. This creates a layered vaping experience that traditional single-atomizer devices cannot achieve, enriching the user's vaping sensation and enhancing the overall vaping experience. Therefore, this technical solution effectively addresses the technical problem that existing electronic atomizing devices typically only have a single atomizer, failing to adequately meet users' diverse flavor preferences. Attached Figure Description

[0024] To more clearly illustrate the technical solutions in the embodiments of this application or the prior art, the drawings used in the description of the embodiments or the prior art will be briefly introduced below. Obviously, the drawings described below are only some embodiments of this application. For those skilled in the art, other drawings can be obtained based on the structures shown in these drawings without creative effort.

[0025] Figure 1 This is a schematic diagram of the electronic atomizing device provided in the embodiments of this application;

[0026] Figure 2 for Figure 1 A cross-sectional view of the electronic atomizing device shown;

[0027] Figure 3 for Figure 1 The diagram shows the disassembled structure of the electronic atomizing device.

[0028] Figure 4 for Figure 1 The diagram shows a partial structural breakdown of the electronic atomizing device.

[0029] Figure 5 for Figure 4 Another structural schematic diagram of the electronic atomizing device shown;

[0030] Figure 6 A flowchart illustrating the control method for the electronic atomizing device provided in this application embodiment.

[0031] Explanation of icon numbers:

[0032] 1. Electronic atomizing device; 100. Housing assembly; 110. Rotating housing; 111. Divider plate; 120. Inner housing support; 121. Fixed shaft; 130. Outer housing; 131. Viewing window; 11. Suction airflow channel; 12. First mounting cavity; 13. Second mounting cavity; 14. Third mounting cavity; 15. Air inlet channel; 16. Microphone airway; 17. Air inlet; 200. First atomizer; 210. First airflow channel; 220. First liquid storage cavity; 230. First atomizing assembly; 240. Absorbent cotton; 250. First liquid storage cotton; 300. Second atomizer; 310. Second airflow channel; 320. Second liquid storage cotton; 330. Second atomizing assembly; 400. Power supply module; 410. Microphone; 420. Battery; 500. Second electrode module; 510. First electrode assembly; 520. Second electrode assembly.

[0033] The realization of the purpose, functional features and advantages of this application will be further explained in conjunction with the embodiments and with reference to the accompanying drawings. Detailed Implementation

[0034] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only a part of the embodiments of this application, and not all of the embodiments. Based on the embodiments of this application, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the scope of protection of this application.

[0035] It should be noted that all directional indicators (such as up, down, left, right, front, back, etc.) in the embodiments of this application are only used to explain the relative positional relationship and movement of each component in a certain specific posture (as shown in the figure). If the specific posture changes, the directional indicator will also change accordingly.

[0036] Furthermore, the use of terms such as "first" and "second" in this application is for descriptive purposes only and should not be construed as indicating or implying their relative importance or implicitly specifying the number of technical features indicated. Therefore, a feature defined as "first" or "second" may explicitly or implicitly include at least one of that feature. Additionally, the technical solutions of the various embodiments can be combined with each other, but only on the basis of being achievable by those skilled in the art. When the combination of technical solutions is contradictory or impossible to implement, such a combination of technical solutions should be considered non-existent and not within the scope of protection claimed in this application.

[0037] In one embodiment, such as Figures 1 to 5 As shown, this application embodiment provides an electronic atomizing device 1, which specifically includes a housing assembly 100, a first atomizer 200, at least one second atomizer 300, and a rotary drive mechanism (not shown). The housing assembly 100 is provided with a suction airflow channel 11, a first mounting cavity 12, and a second mounting cavity 13. The suction airflow channel 11 is connected to the outlet of the first mounting cavity 12 and the outlet of the second mounting cavity 13, respectively. The first atomizer 200 is fixedly installed in the first mounting cavity 12 for storing a first liquid and, in the working state, heats and atomizes the first liquid to form an aerosol flowing out through the outlet of the first mounting cavity 12. At least one second atomizer 300 is rotatably installed in the second mounting cavity 13, and each second atomizer 300 is used to store a different second liquid. The rotary drive mechanism is driven to connect to all the second atomizers 300 to drive all the second atomizers 300 to switch the outlet of the second mounting cavity 13 by rotation. When any second atomizer 300 rotates to connect with the outlet of the second mounting cavity 13 and is in working condition, it heats and atomizes the corresponding second liquid to form an aerosol flowing out through the outlet of the second mounting cavity 13.

[0038] It is understood that the electronic atomizing device 1 in this application embodiment is mainly used to store a specific liquid (specifically, a liquid such as e-liquid) through an atomizer (specifically, a first atomizer 200 and / or a second atomizer 300), and during use, after being converted into an aerosol by the atomizer, it is sprayed outward through the suction airflow channel 11 for the user to inhale. The aforementioned suction airflow channel 11 is connected to the outlet of the first mounting cavity 12 and the outlet of the second mounting cavity 13 respectively. Specifically, this means that the aerosol flowing out through the outlet of the first mounting cavity 12 and the aerosol flowing out through the outlet of the second mounting cavity 13 can both flow into the suction airflow channel 11, and then flow outward through the air outlet of the suction airflow channel 11. The aforementioned rotatable mounting of the second atomizer 300 within the second mounting cavity 13 specifically means that each second atomizer 300 can rotate relative to the second mounting cavity 13, and when there are two or more second atomizers 300, all second atomizers 300 can rotate synchronously relative to the second mounting cavity 13. The aforementioned rotary drive mechanism can be a conventional rotary motor structure, i.e., driven by a rotary motor, with synchronous belts, synchronous pulleys, etc., to drive all second atomizers 300 to rotate synchronously. The aforementioned driving of all second atomizers 300 to switch their connection to the outlet of the second mounting cavity 13 by rotation specifically means that all second atomizers 300 can rotate synchronously relative to the second mounting cavity 13 under the drive of the rotation drive mechanism. Under this rotation, each second atomizer 300 can alternately connect to the outlet of the second mounting cavity 13, and at any given time, only one second atomizer 300 is connected to the outlet of the second mounting cavity 13. Correspondingly, only the second atomizer 300 currently connected to the outlet of the second mounting cavity 13 can be in working state.

[0039] Thus, the electronic atomizing device 1 provided in this embodiment, through the above-described structural configuration, not only includes a first atomizer 200, which, in its working state, heats and atomizes a first liquid to form an aerosol flowing out of the outlet of the first mounting cavity 12 and into the suction airflow channel 11, but also includes a rotary drive mechanism and at least one second atomizer 300. Each second atomizer 300 is used to store a different second liquid, and the rotary drive mechanism is driven to connect to all the second atomizers 300, so that all the second atomizers 300 can switch their connection to the outlet of the second mounting cavity 13 by rotation. This allows any one of the second atomizers 300 to heat and atomize the corresponding second liquid when it is in working state, forming an aerosol flowing out of the outlet of the second mounting cavity 13 and into the suction airflow channel 11. In this way, when the electronic atomizing device 1 is equipped with only one second atomizer 300, the user, driven by the rotary drive mechanism, can either keep the second atomizer 300 from rotating to connect with the outlet of the second mounting cavity 13, so that only the first atomizer 200 is in working state to experience the first flavor (i.e., only including the aerosol formed by the first atomizer 200 heating and atomizing the first liquid), or rotate the second atomizer 300 to connect with the outlet of the second mounting cavity 13, so that both the first atomizer 200 and the second atomizer 300 are in working state to experience the second flavor (i.e., including the aerosol formed by the first atomizer 200 heating and atomizing the first liquid and the aerosol formed by the second atomizer 300 heating and atomizing the second liquid), thus well satisfying the user's needs for more flavors. When the electronic atomizing device 1 is equipped with two or more second atomizers 300, the user, driven by the rotary drive mechanism, can either rotate the first second atomizer 300 to connect with the outlet of the second mounting cavity 13, thus putting both the first atomizer 200 and the first second atomizer 300 into operation to experience the first flavor (i.e., including the aerosol formed by the first atomizer 200 heating and atomizing the first liquid and the aerosol formed by the first second atomizer 300 heating and atomizing the corresponding second liquid), or rotate the second second atomizer 300 to connect with the outlet of the second mounting cavity 13, thus putting both the first atomizer 200 and the second second atomizer 300 into operation to experience the second flavor (i.e., including the aerosol formed by the first atomizer 200 heating and atomizing the first liquid and the aerosol formed by the second second atomizer 300 heating and atomizing the corresponding second liquid), and so on, thereby effectively meeting the user's needs for more flavors.In addition, compared to the existing electronic atomizing device 1 which obtains a second flavor by directly switching between different atomizers, this electronic atomizing device 1 obtains a second flavor by mixing the aerosol formed by the second atomizer 300 with the aerosol formed by the first atomizer 200. It can generate a layered vaping experience that cannot be achieved by a traditional single atomizer, thereby enriching the user's vaping taste and improving the user's vaping experience.

[0040] In some examples, the electronic atomizing device 1 also includes a control component, which includes a user interaction panel (not shown) and a control circuit board (not shown). The user interaction panel is mounted on the surface of the housing assembly 100, and the control circuit board is built into the housing assembly 100 and electrically connected to both the user interaction panel and the rotary drive mechanism. Thus, with the above structural configuration, the user can perform interactive control, including flavor selection, through the user interaction panel.

[0041] It is understood that the user interaction panel in this example can specifically be a display panel with button control or touch function, so as to facilitate better visual interactive control operations for users. That is, the display panel can display the flavor information of the currently available second atomizer 300 and the selected flavor. Users can then input or select their desired flavor of the second atomizer 300 based on the information displayed on the display panel, through button control, touch control, or other human-computer interaction methods.

[0042] In some examples, such as Figure 1 and Figure 2 As shown, the first atomizer 200 includes a first airflow channel 210, a first liquid storage chamber 220, and a first atomizing component 230. One end of the first airflow channel 210 is connected to the outlet of the first mounting cavity 12, and the other end of the first airflow channel 210 is provided with the first atomizing component 230. The first liquid storage chamber 220 at least partially surrounds the first airflow channel 210 and is connected to the first atomizing component 230. Thus, with the above structural configuration, while the first liquid is stored in the first liquid storage chamber 220, the first liquid flowing into the first airflow channel 210 from the first liquid storage chamber 220 is heated and atomized by the operation of the first atomizing component 230 to form an aerosol, which then flows through the first airflow channel 210 to the outlet of the first mounting cavity 12.

[0043] It is understood that in this example, the connection between the first liquid storage chamber 220 and the first atomizing component 230 specifically means that the first liquid in the first liquid storage chamber 220 can flow into the first atomizing component 230, and the first atomizing component 230 is provided at the other end of the first airflow channel 210, so that the aerosol generated when the first atomizing component 230 atomizes the inflowing first liquid can flow out through the outlet of the first airflow channel 210. In addition, in order to prevent the condensate generated in the first airflow channel 210 from not being discharged from the first airflow channel 210 in time during the inhalation process of this electronic atomizing device 1, which would seriously affect the user's inhalation experience, the first atomizer 200 in this example is also provided with absorbent cotton 240, which surrounds the first airflow channel 210, and the first liquid storage chamber 220 is at least partially surrounded by the first airflow channel 210 and the absorbent cotton 240. A gap is left between the first airflow channel 210 and the outlet of the first mounting cavity 12 to connect the absorbent cotton 240. In this way, when the user inhales the electronic atomizing device 1, the absorbent cotton 240 can promptly absorb the coolant formed in the airflow channel, thereby effectively improving the inhalation experience of the electronic atomizing device 1.

[0044] In some examples, such as Figure 2 and Figure 3As shown, one end of the first mounting cavity 12 is provided with a first airflow channel 210 and a first liquid storage cavity 220, and the other end of the first mounting cavity 12 is provided with an atomizing chamber (not shown in the figure) for mounting the first atomizing component 230. The atomizing chamber is connected to the first liquid storage cavity 220 and the first airflow channel 210. Thus, with the above structural configuration, after the first liquid in the first liquid storage cavity 220 flows into the atomizing chamber, the first atomizing component 230 heats and atomizes the first liquid in the atomizing chamber to form a corresponding aerosol, and then flows to the first airflow channel 210. Further, the first airflow channel 210 has a first atomizing channel section extending into the atomizing chamber. The peripheral wall of the first atomizing channel section has at least one first liquid guide port (not shown). The first atomizing component 230 is installed in the first atomizing channel section and blocks all the first liquid guide ports. Thus, with the above structural arrangement, when the first liquid in the atomizing chamber flows into the first atomizing channel section through at least one first liquid guide port, it can directly flow into the first atomizing component 230, so that the first atomizing component 230 can better heat and atomize the first liquid to form a corresponding aerosol in the first airflow channel 210. Furthermore, the atomizing chamber is also filled with a first liquid storage cotton 250, which surrounds the first atomizing channel section and also blocks the connection between the atomizing chamber and the first liquid storage cavity 220. Thus, with the above structural arrangement, the first liquid in the first liquid storage cavity 220 can be temporarily stored in the first liquid storage cotton 250 after flowing into the atomizing chamber through the connection port. At the same time, the arrangement of the first liquid storage cotton ensures that the volume of the first liquid in the atomizing chamber remains constant and that the first liquid in the atomizing chamber flows evenly into the first atomizing channel section through at least one first liquid guide port.

[0045] It is understood that the first liquid storage cotton in this example is generally specially treated organic cotton. This organic cotton has good liquid absorption and conductivity, effectively absorbing the liquid in the storage atomization chamber and ensuring the atomization effect. Alternatively, materials such as bamboo charcoal cotton can be used to enhance the inhalation experience and reduce off-flavors of this electronic atomizing device 1. The atomizing components in this example specifically include liquid-guiding cotton and a heating element. The liquid-guiding cotton covers all liquid inlets, and the heating element is mounted on the liquid-guiding cotton. Thus, through the above structural arrangement, the liquid within the liquid-guiding cotton can be converted into an aerosol and sprayed out by heating the liquid-guiding cotton with the heating element for the user to inhale. The aforementioned liquid-guiding cotton can be made of the same material as the liquid storage cotton to ensure it effectively absorbs the first liquid flowing from the first liquid storage cotton through the first liquid inlet and guarantees the atomization effect. The number of liquid inlets in this example can be arbitrarily increased or decreased according to actual needs. The shape of the liquid inlets in this example can be rectangular, circular, or other shapes. The heating element in this example can be a heating plate or a heating wire.

[0046] In some examples, such as Figures 2 to 5 As shown, the housing assembly 100 includes a rotating housing 110 and an inner housing support 120 with a fixed shaft 121. The rotating housing 110 is arranged around the fixed shaft 121 and is rotatably connected to the fixed shaft 121 to form a second mounting cavity 13 between the rotating housing 110 and the fixed shaft 121. A plurality of partition plates 111 are also provided inside the rotating housing 110 to divide the second mounting cavity 13 into at least one sub-mounting cavity arranged around the fixed shaft 121. A second atomizer 300 is fixedly installed in each sub-mounting cavity. The rotating housing 110 is also driven to rotate by a rotation drive mechanism so that when the rotation drive mechanism drives the rotating housing 110 to rotate around the fixed shaft 121, it drives all the second atomizers 300 to rotate synchronously around the fixed shaft 121, so that all the second atomizers 300 switch to connect to the outlet of the second mounting cavity 13 by rotation. Thus, with the above structural arrangement, at least one second atomizer 300 can be rotated in the second mounting cavity 13. When any second atomizer 300 needs to connect with the outlet of the second mounting cavity 13, the rotating housing 110 can be driven to rotate by the rotating drive mechanism, so that the corresponding second atomizer 300 can follow the synchronous rotation of the rotating housing 110 and come to the corresponding position.

[0047] In some examples, such as Figure 2 As shown, the second atomizer 300 includes a second airflow channel 310, a second liquid storage chamber (not shown in the figure), a second liquid storage cotton 320, and a second atomizing component 330. One end of the second airflow channel 310 is connected to the outlet of the second mounting cavity 13, and the other end of the second airflow channel 310 is provided with the second atomizing component 330. The second liquid storage chamber surrounds the second airflow channel 310 and is connected to the second atomizing component 330. The second liquid storage cotton 320 fills the second liquid storage chamber. Thus, with the above structural configuration, the second liquid can be stored in the second liquid storage chamber while the second liquid flowing into the second airflow channel 310 is heated and atomized by the operation of the second atomizing component 330 to form an aerosol, which then flows through the second airflow channel 310 to the outlet of the second mounting cavity 13.

[0048] It is understood that in this example, the connection between the second liquid storage chamber and the second atomizing component 330 specifically means that the second liquid in the second liquid storage chamber can flow into the second atomizing component 330, and the second atomizing component 330 is provided at the other end of the second airflow channel 310, so that the aerosol generated when the second atomizing component 330 atomizes the flowing second liquid can flow out through the outlet of the second airflow channel 310. The structure of the second atomizing component 330 in this example is similar to the structure of the first atomizing component 230 mentioned above, and will not be described again here.

[0049] In some examples, the aforementioned rotating housing 110 can be rotated automatically via a rotary drive mechanism or manually by a manual lever. Figures 2 to 5 As shown, the housing assembly 100 also includes a housing 130, within which a rotating housing 110 is housed. The housing 130 has a viewing window 131 for rotating the rotating housing 110. A first identifier (not shown) is located on the surface of the housing 130 near the viewing window 131. A second identifier (not shown) is located on the surface of the rotating housing 110 corresponding to each sub-mounting cavity. When any second identifier aligns with the first identifier, the second atomizer 300 in the corresponding second mounting cavity 13 connects to the outlet of the second mounting cavity 13. Thus, with this structural arrangement, when it is necessary to change the operation of the second atomizer 300 to a different flavor, simply rotate the rotating housing 110 at the viewing window 131 to rotate the corresponding flavor's second atomizer 300 to the position connecting to the outlet of the second mounting cavity 13. Simultaneously, the arrangement of the first and second identifiers allows the user to more accurately rotate the corresponding flavor's second atomizer 300 to the position connecting to the outlet of the second mounting cavity 13.

[0050] It is understood that the window 131 in this example can be any shape that facilitates user navigation. The first and second icons in this example can be any icons that facilitate user alignment, including but not limited to text icons and graphic icons. For example, when the first icon is a triangle with one corner pointing downwards, the second icon is also a triangle, but with one corner pointing upwards. In this case, simply aligning the upward-pointing corner of the second icon with the downward-pointing corner of the first icon will align the second icon with the first icon.

[0051] In some examples, such as Figures 2 to 5As shown, this electronic atomizing device 1 also includes a power supply module 400, a first electrode module (not shown), and a second electrode module 500. The housing module is also provided with a third mounting cavity 14. The power supply module 400 is fixedly installed in the third mounting cavity 14. The power supply module 400 is electrically connected to the control circuit board and the rotary drive mechanism. The power supply module 400 is also electrically connected to the first atomizer 200 through the first electrode module, and is switched to be electrically connected to all the second atomizers 300 through the second electrode module 500. In this way, with the above structural arrangement, the power supply operation of one first atomizer 200 and at least one second atomizer 300 can be well realized. Furthermore, the second electrode module 500 includes a first electrode assembly 510 and at least one second electrode assembly 520. One end of the first electrode assembly 510 is electrically connected to the power supply module 400. Each second atomizer 300 is equipped with a second electrode assembly 520 so that when any second atomizer 300 rotates to the position connecting with the outlet of the second mounting cavity 13, the corresponding second electrode assembly 520 abuts against the other end of the first electrode assembly 510. Thus, with the above structural arrangement, since when any second atomizer 300 rotates to the position connecting with the outlet of the second mounting cavity 13, its corresponding second electrode assembly 520 will abut against the other end of the first electrode assembly 510, the power supply connection between the second atomizer 300 and the power supply control module 400 can be realized. At this time, the second atomizer 300 can enter the working state.

[0052] It is understood that the first electrode module in this example can specifically be a third electrode assembly. This third electrode assembly has the same structure as the first electrode assembly 510 and the second electrode assembly 520 mentioned above, and can each include at least two copper pillars. In this example, when any second atomizer 300 rotates to connect with the outlet of the second mounting cavity 13, the corresponding second electrode assembly 520 abuts against the other end of the first electrode assembly 510. Specifically, when this electronic atomizing device 1 is provided with only one second atomizer 300, its corresponding second electrode assembly 520 is only in a state of abutting against the other end of the first electrode assembly 510 when the second atomizer 300 rotates to connect with the outlet of the second mounting cavity 13. When the second atomizer 300 is not rotated to connect with the outlet of the second mounting cavity 13, it is in a state of not abutting against the other end of the first electrode assembly 510 (specifically, the two are misaligned). When the electronic atomizing device 1 is equipped with two or more second atomizers 300, among the corresponding two or more second electrode assemblies 520, only the second atomizer 300 currently rotated to communicate with the outlet of the second mounting cavity 13 has its corresponding second electrode assembly 520 abutting against the other end of the first electrode assembly 510, while the other second electrode assemblies 520 are all in a state where they are not abutting against the other end of the first electrode assembly 510. The power supply module 400 in this example generally includes a charging interface (not shown) and a battery 420 to realize the corresponding charging and power supply functions.

[0053] In some examples, such as Figures 2 to 5 As shown, the control assembly also includes a microphone 410, which is fixedly installed in the third mounting cavity 14 and electrically connected to the control circuit board. The third mounting cavity 14 is also provided with an air inlet channel 15 and a microphone air passage 16. An air inlet 17 is also provided on the surface of the housing assembly 100. The two ends of the air inlet channel 15 are respectively connected to the first airflow channel 210 and the air inlet 17, and the two ends of the microphone air passage 16 are respectively connected to the microphone 410 and the air inlet 17. Thus, through the above structural configuration, when the user inhales this electronic atomizing device 1, the microphone 410 senses changes in the airflow within the microphone airway 16 to achieve automated inhalation control of this electronic atomizing device 1. That is, only when the microphone 410 senses a change in the airflow within the microphone airway 16 will it control the first electrode module to supply power to the first atomizer 200, causing the first atomizing component 230 within the first atomizer 200 to start performing the corresponding atomization work. On the other hand, it controls the second electrode module 500 to supply power to the current second atomizer 300, causing the second atomizing component 330 within the current second atomizer 300 to start performing the corresponding atomization work.

[0054] In one embodiment, such as Figure 6As shown, this application embodiment also provides a control method for an electronic atomizing device. This control method is applied to the electronic atomizing device of the above embodiment and may specifically include the following steps:

[0055] Step S110: Determine the location of the target second atomizer based on the flavor selection made by the user on the user interaction panel.

[0056] As can be understood from the above description, the surface of the housing assembly 100 of the electronic atomizing device 1 in this application embodiment is provided with a user interaction panel. Specifically, the user interaction panel can be a display panel with button control function or touch function. The display panel can display the flavor information of the currently selectable second atomizer 300. Therefore, the user can input or select the desired flavor of the second atomizer 300 by button control, touch control or other human-computer interaction methods according to the information displayed on the display panel. After the user selects the desired flavor of the second atomizer 300, the electronic atomizing device 1 can determine the location of the target second atomizer according to the flavor selection made by the user on the user interaction panel, that is, confirm the second atomizer 300 corresponding to the selected flavor as the target second atomizer, and thus determine the location of the target second atomizer.

[0057] Step S120: Based on the location of the target second atomizer, calculate the target rotation angle required for the target second atomizer to rotate to a position connected to the outlet of the second mounting cavity.

[0058] Understandably, once the location of the target second atomizer is determined through the above-described steps, the target rotation angle required for the target second atomizer to rotate to a position communicating with the outlet of the second mounting cavity can be calculated based on its location. This allows subsequent steps to more accurately rotate the target second atomizer to the position communicating with the outlet of the second mounting cavity, ensuring that when the target second atomizer enters the working state, the aerosol formed by heating the corresponding second liquid can completely flow into the suction airflow channel through the outlet of the second mounting cavity. Generally, assuming the line connecting the target second atomizer before rotation to the fixed shaft 121 is the first line, and the line connecting the target second atomizer to the position communicating with the outlet of the second mounting cavity to the fixed shaft 121 is the second line, then the target rotation angle is specifically the angle formed by the first line and the second line.

[0059] Step S130: Control the rotary drive mechanism to drive multiple second atomizers to rotate by the target rotation angle, so that the target second atomizer is connected to the outlet of the second mounting cavity.

[0060] Understandably, once the target rotation angle is determined through the above steps, the rotation drive mechanism can be further controlled to drive multiple second atomizers to rotate by the target rotation angle, so that the target second atomizer is connected to the outlet of the second mounting cavity. That is, the rotation drive mechanism is responsible for driving the rotating outer shell to rotate. Based on the target rotation angle, the rotation drive mechanism is activated, precisely controlling the rotating outer shell 110 to rotate by the target rotation angle, so that the target second atomizer reaches the position connected to the outlet of the second mounting cavity. At this time, the second electrode assembly 520 on the target second atomizer can precisely align with the first electrode assembly 510, thereby activating the target second atomizer and putting it into working condition. Simultaneously with the activation of the target second atomizer, the power supply module 400 maintains an electrical connection with the first atomizer through the first electrode module, ensuring that the first atomizer can also synchronously enter the working state. The flavor of the first liquid stored in the first atomizer is different from the flavor of the second liquid in all the second atomizers, providing users with additional flavor options.

[0061] Preferably, after the rotary drive mechanism drives the rotating housing 110 to rotate, the display panel can also display the currently selected flavor information as feedback that the operation is complete. After the user confirms that everything is correct, they can start using the electronic atomizing device for inhalation.

[0062] Thus, the control method for the electronic atomizing device provided in this application embodiment, through the above-described method steps, can automatically realize interactive control of different flavor selections of the electronic atomizing device, so as to better meet the user's needs for more flavors.

[0063] The above description is merely a preferred embodiment of this application and does not limit the patent scope of this application. Any equivalent structural transformations made based on the inventive concept of this application and the contents of the specification and drawings of this application, or direct / indirect applications in other related technical fields, are included within the patent protection scope of this application.

Claims

1. An electronic atomizing device, characterized in that, include: The housing assembly is provided with a suction airflow channel, a first mounting cavity and a second mounting cavity, wherein the suction airflow channel is connected to the outlet of the first mounting cavity and the outlet of the second mounting cavity, respectively. The first atomizer is fixedly installed in the first mounting cavity to store the first liquid and, in the working state, heats and atomizes the first liquid to form an aerosol flowing out through the outlet of the first mounting cavity. At least one second atomizer is rotatably mounted in the second mounting cavity, and each second atomizer is used to store a different second liquid; A rotary drive mechanism is driven to connect to all the second atomizers to switch the outlet of the second mounting cavity by rotation. When any second atomizer rotates to connect with the outlet of the second mounting cavity and is in working condition, the corresponding second liquid is heated and atomized to form an aerosol flowing out through the outlet of the second mounting cavity.

2. The electronic atomizing device as described in claim 1, characterized in that, It also includes a control component, which includes a user interaction panel and a control circuit board. The user interaction panel is mounted on the surface of the housing component, and the control circuit board is built into the housing component and is electrically connected to the user interaction panel and the rotary drive mechanism, respectively.

3. The electronic atomizing device as described in claim 2, characterized in that, The first atomizer includes a first airflow channel, a first liquid storage chamber, and a first atomizing component; one end of the first airflow channel is connected to the outlet of the first mounting chamber, and the other end of the first airflow channel is provided with the first atomizing component; the first liquid storage chamber at least partially surrounds the first airflow channel and is connected to the first atomizing component.

4. The electronic atomizing device as described in claim 3, characterized in that, One end of the first mounting cavity is provided with the first airflow channel and the first liquid storage cavity, and the other end of the first mounting cavity is provided with an atomizing chamber for mounting the first atomizing component. The atomizing chamber is connected to the first liquid storage cavity and the first airflow channel.

5. The electronic atomizing device as described in claim 4, characterized in that, The first airflow channel has a first atomizing channel section extending into the atomizing chamber. The peripheral wall of the first atomizing channel section is provided with at least one first liquid guide port. The first atomizing component is installed in the first atomizing channel section and blocks all the first liquid guide ports. The atomizing chamber is also filled with a first liquid storage cotton, which surrounds the first atomizing channel section and also blocks the connection between the atomizing chamber and the first liquid storage cavity.

6. The electronic atomizing device as described in claim 2, characterized in that, The housing assembly includes a rotating housing and an inner housing support with a fixed axis. The rotating housing is arranged around the fixed axis and is rotatably connected to the fixed axis to form a second mounting cavity between the rotating housing and the fixed axis. The rotating housing is also provided with a plurality of partition plates to divide the second mounting cavity into at least one sub-mounting cavity arranged around the fixed axis. Each of the sub-mounting cavities is fixedly provided with a second atomizer. The rotating housing is also driven to be connected to the rotating drive mechanism so that when the rotating drive mechanism drives the rotating housing to rotate around the fixed axis, it drives all the second atomizers to rotate synchronously around the fixed axis, so that all the second atomizers switch to connect to the outlet of the second mounting cavity by rotation.

7. The electronic atomizing device as described in claim 6, characterized in that, The second atomizer includes a second airflow channel, a second liquid storage chamber, a second liquid storage cotton, and a second atomizing component; one end of the second airflow channel is connected to the outlet of the second mounting cavity, and the other end of the second airflow channel is provided with the second atomizing component; the second liquid storage chamber surrounds the second airflow channel and is connected to the second atomizing component; the second liquid storage cotton is filled in the second liquid storage chamber.

8. The electronic atomizing device according to any one of claims 2-7, characterized in that, It also includes a power supply module, a first electrode module and a second electrode module. The housing module is also provided with a third mounting cavity. The power supply module is fixedly installed in the third mounting cavity. The power supply module is electrically connected to the control circuit board and the rotary drive mechanism respectively. The power supply module is also electrically connected to the first atomizer through the first electrode module and to all the second atomizers through the second electrode module in a switching manner.

9. The electronic atomizing device as described in claim 8, characterized in that, The second electrode module includes a first electrode assembly and at least one second electrode assembly. One end of the first electrode assembly is electrically connected to the power supply module. Each second atomizer is equipped with a second electrode assembly so that when any second atomizer is rotated to communicate with the outlet of the second mounting cavity, the corresponding second electrode assembly abuts against the other end of the first electrode assembly.

10. A control method for an electronic atomizing device, applied to the electronic atomizing device as described in any one of claims 2-9, characterized in that, Includes the following steps: The location of the target second atomizer is determined based on the flavor selection made by the user on the user interaction panel; Based on the location of the target second atomizer, the target rotation angle required for the target second atomizer to rotate to a position communicating with the outlet of the second mounting cavity is calculated; The rotary drive mechanism is controlled to drive multiple second atomizers to rotate by the target rotation angle, so that the target second atomizer is connected to the outlet of the second mounting cavity.

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