Power adjustment method for atomization device, and atomization device

Abstract

The present application relates to the technical field of electronic atomization, and discloses a power adjustment method for an atomization device, and an atomization device, for use in solving the problem of insufficient taste characteristics of existing atomization devices. The power adjustment method comprises: receiving a first adjustment instruction, and adjusting the output power of a first atomizer on the basis of the first adjustment instruction; and receiving a second adjustment instruction, and adjusting the output power of a second atomizer on the basis of the second adjustment instruction, wherein the second atomizer is used for accommodating a flavor-adjustable aerosol substrate. When an atomization device uses two aerosol substrates for atomization, the vapor concentrations of the two aerosol substrates can be changed separately by means of power control, such that mixed vapor has different mixture ratios, further improving the diversity of vaping experience of the atomization device, thereby improving the use experience of products.

Description

Power adjustment method of atomizing device and atomizing device

[0001] This application claims priority to Chinese Patent Application No. 202410674827.4, filed on May 28, 2024, entitled "Power Adjustment Method and Atomizing Device for Atomizing Device", and Chinese Patent Application No. 202421187717.7, filed on May 28, 2024, entitled "Atomizing Device", the entire contents of which are incorporated herein by reference. [Technical Field]

[0002] This application relates to the field of electronic atomization technology, specifically to a power adjustment method for an atomizing device and an atomizing device. [Background Technology]

[0003] Atomizing devices can atomize aerosol matrix for user use. With the increasing popularity of atomizing devices, users are also demanding higher standards from them.

[0004] The throat hit, mouth hit, and pungent sensation of atomizing devices are the main user experience parameters. However, since different users have different taste preferences, the current atomizing devices have limited diversity in taste characteristics, making it difficult to meet the diverse needs of users. [Summary of the Invention]

[0005] This application provides a power adjustment method and an atomizing device for an atomizing device to solve the problem of insufficient taste characteristics in existing atomizing devices.

[0006] On one hand, this application provides a power adjustment method for an atomizing device, the power adjustment method comprising: receiving a first adjustment command and adjusting the output power of a first atomizer according to the first adjustment command; receiving a second adjustment command and adjusting the output power of a second atomizer according to the second adjustment command; wherein the second atomizer is used to contain a flavor-adjusting aerosol matrix.

[0007] In some embodiments, adjusting the output power of the second atomizer according to the second adjustment command further includes: displaying the current power information of the second atomizer according to the second adjustment command display module.

[0008] In some embodiments, the second atomizer has at least three power levels, and the display module has at least three display units, the number of which is the same as the number of power levels of the second atomizer. The power adjustment method further includes: increasing or decreasing the power level of the second atomizer according to a second adjustment command, correspondingly increasing or decreasing the number of illuminated display units.

[0009] In some embodiments, the second atomizer has at least three power levels, and the display module has at least three display units, with each of the at least three power levels of the second atomizer corresponding to one of the at least three display units. The power adjustment method further includes: increasing or decreasing the power level of the second atomizer according to a second adjustment command, and illuminating the display unit of the second atomizer corresponding to the power level.

[0010] In some implementations, adjusting the output power of the first atomizer according to the first adjustment command includes: synchronously increasing or decreasing the output power of the first atomizer and the air intake area of ​​the air intake hole according to the first adjustment command.

[0011] In some embodiments, adjusting the output power of the second atomizer according to the second adjustment command includes: increasing the output power of the second atomizer and decreasing the output power of the first atomizer according to the second adjustment command; decreasing the output power of the second atomizer and increasing the output power of the first atomizer according to the second adjustment command; wherein, when the power level of the first atomizer remains unchanged, the total output power of the first atomizer and the second atomizer is set within a preset range.

[0012] In some embodiments, the first adjustment command further includes at least one of an attitude parameter command and a wobbling frequency parameter command. The power adjustment method further includes: adjusting the output power of the first atomizer according to at least one of the attitude parameter command and the wobbling frequency parameter command; and / or, the second adjustment command further includes at least one of the attitude parameter command and the wobbling frequency parameter command. The power adjustment method further includes: adjusting the output power of the second atomizer according to at least one of the attitude parameter command and the wobbling frequency parameter command.

[0013] In some embodiments, the first adjustment command further includes at least one of a ventilation duration command and a ventilation frequency command for the first atomizer. The power adjustment method further includes: adjusting the output power of the first atomizer according to at least one of the ventilation duration command and the ventilation frequency command; and / or, the second adjustment command further includes at least one of the ventilation duration command and the ventilation frequency command for the first atomizer. The power adjustment method further includes: adjusting the output power of the second atomizer according to at least one of the ventilation duration command and the ventilation frequency command.

[0014] On the other hand, this application also provides an atomizing device, which includes a first atomizer, a second atomizer, and a control component; the control component is electrically connected to the first atomizer to control the output power of the first atomizer; the control component is electrically connected to the second atomizer to control the output power of the second atomizer; wherein the second atomizer is used to contain a flavor-adjusting aerosol matrix.

[0015] In some embodiments, the control component includes a first controller and a second controller, the first controller being electrically connected to the first atomizer to control the output power of the first atomizer; the second controller being electrically connected to the second atomizer to control the output power of the second atomizer.

[0016] In some embodiments, the viscosity of the aerosol matrix in the second atomizer is greater than that in the first atomizer.

[0017] In some implementations, the flavor-modifying aerosol matrix contained within the second atomizer does not include the following components: flavorings and nicotine.

[0018] In some embodiments, the first controller has multiple settings for at least adjusting the output power of the first atomizer; the second controller has multiple settings for at least controlling the second atomizer to be in an on or off state.

[0019] In some embodiments, the atomizing device further includes: a housing having an air inlet; an air inlet regulator slidably configured to adjust the air inlet area of ​​the air inlet; and a sliding adjustment section, wherein the first controller is electrically connected to the sliding adjustment section, the air inlet regulator is fixedly connected to the sliding adjustment section, and the air inlet regulator moves to cause the sliding adjustment section to switch between at least a first position and a second position; when the air inlet regulator slides to the maximum air inlet area, the sliding adjustment section is in the first position and adjusts the output power of the first atomizer to the maximum level through the first controller; when the air inlet regulator slides to the minimum air inlet area, the sliding adjustment section is in the second position and adjusts the output power of the first atomizer to the minimum level through the first controller.

[0020] In some embodiments, the volume of the first atomizer is greater than the volume of the second atomizer, and the output power of the first atomizer is greater than the output power of the second atomizer.

[0021] In some embodiments, the atomizing device further includes: an operation unit, which is a button module, and a second controller electrically connected to the operation unit for adjusting the output power of the second atomizer; and / or a display module, wherein the output power of the second atomizer has at least three power levels, and the display module has at least three display sections; the second controller is electrically connected to the display sections and displays the current power level of the second atomizer through the display sections.

[0022] In some embodiments, the atomizing device includes a controller assembly comprising a first controller and a second controller, and the atomizing device further includes an airflow sensor. The controller assembly is electrically connected to the airflow sensor and is used to control the activation and deactivation of the first atomizer and the second atomizer.

[0023] In some embodiments, at least one of the first controller and the second controller is configured to acquire an airflow signal; the airflow signal includes at least one of the ventilation duration information and ventilation frequency information of the first atomizer.

[0024] In some embodiments, the atomizing device further includes a gravity sensor, and at least one of the first controller and the second controller is electrically connected to the gravity sensor and receives a position signal output by the gravity sensor; the position signal includes at least one of the attitude parameter information and oscillation frequency information of the atomizing device.

[0025] In some embodiments, the atomizing device includes a display module and a main control circuit board; the display module, the main control circuit board, the second atomizer, and the first atomizer are sequentially fixed along a first straight line.

[0026] In some implementations, the first controller and the second controller are two functional partitions of an integrated chip on the main control circuit board; or, the main control circuit board has two integrated chips, one of which is the first controller and the other is the second controller.

[0027] Beneficial effects: By setting up both a first and a second atomizer, one can be used to atomize a single aerosol matrix, or two different flavored aerosol matrices can be atomized using both. Since the first controller can adjust the output power of the first atomizer—that is, by increasing or decreasing the output power of the first atomizer—the atomization concentration of the aerosol matrix in the first atomizer can be adjusted, thereby regulating the inhalation flavor of the atomizing device. Furthermore, the second controller can also increase or decrease the output power of the second atomizer, thereby adjusting the atomization concentration of the aerosol matrix in the second atomizer, allowing the atomized vapors of the two aerosol matrices to have different mixing ratios, similarly achieving the adjustment of the inhalation flavor of the atomizing device.

[0028] Therefore, through independent control of the first and second controllers, when the atomizing device uses one aerosol matrix for atomization, the mist concentration of the aerosol matrix can be changed to give the atomizing device different inhalation sensations. Furthermore, when the atomizing device uses two aerosol matrices for atomization, the mist concentration of each aerosol matrix can be changed independently through power control, resulting in different mixing ratios of the mixed mist. This further enhances the diversity of the inhalation sensations offered by the atomizing device, thereby improving the user experience. [Attached Image Description]

[0029] Figure 1 is a schematic diagram of the first type of control connection of the atomizing device provided in this application;

[0030] Figure 2 is a three-dimensional structural schematic diagram of the atomizing device provided in this application;

[0031] Figure 3 is an exploded structural diagram of the atomizing device shown in Figure 2;

[0032] Figure 4 is an exploded structural diagram of the intake regulating component shown in Figure 3;

[0033] Figure 5 is another exploded view of the intake regulator shown in Figure 3;

[0034] Figure 6 is a front view of the display module shown in Figure 3;

[0035] Figure 7 is a cross-sectional view of the atomizing device shown in Figure 2;

[0036] Figure 8 is another exploded structural diagram of the atomizing device shown in Figure 2;

[0037] Figure 9 is a schematic diagram of a second type of control connection for the atomizing device provided in this application.

[0038] The reference numerals in the attached drawings are as follows: 100, atomizing device; 10, power supply; 11, battery; 12, battery cell bracket; 21, first atomizer; 211, first atomizing chamber; 212, first atomizing element; 213, first channel; 214, first liquid storage element; 22, second atomizer; 221, second atomizing chamber; 222, second atomizing element; 223, second channel; 224, second liquid storage element; 30, control component; 31, first controller; 32, second controller; 33, operating unit; 34, display module; 341, display screen; 342, display unit; 35, sliding adjustment unit; 36, main control circuit board; 40, housing; 41, air inlet; 50, air inlet adjustment element; 51, toggle element; 52, adjustment hole; 53, adapter; 54, bracket sealing part; 55, bracket through hole; 60, mouthpiece assembly; 71. Airflow sensor; 72. Gravity sensor.

Detailed Implementation Methods

[0039] The present application will now be described in further detail with reference to the accompanying drawings and specific embodiments. Similar elements in different embodiments are referred to by related similar element reference numerals. In the following embodiments, many details are described to facilitate a better understanding of the present application. However, those skilled in the art will readily recognize that some features may be omitted in different situations, or may be replaced by other elements, materials, or methods. In some cases, certain operations related to the present application are not shown or described in the specification. This is to avoid obscuring the core parts of the present 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.

[0040] Furthermore, the features, operations, or characteristics described in the specification can be combined in any suitable manner to form various embodiments. At the same time, the steps or actions in the method description can be rearranged or adjusted in a manner obvious to those skilled in the art. Therefore, the various orders in the specification and drawings are only for the clear description of a particular embodiment and do not imply a necessary order, unless otherwise stated that a particular order must be followed.

[0041] The serial numbers assigned to components in this document, such as "first" and "second," are used solely to distinguish the described objects and have no sequential or technical meaning. The terms "connection" and "linkage" used in this application, unless otherwise specified, include both direct and indirect connections (linkages). Unless otherwise stated, "multiple" means two or more.

[0042] In the description of this document, the terms “center,” “upper,” “lower,” “left,” “right,” “vertical,” “horizontal,” “inner,” and “outer,” etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are used only for the convenience of describing this application and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on the application.

[0043] The following description, in conjunction with Figures 1 to 9, describes an atomizing device and its power adjustment method, as well as a computer-readable storage medium, according to embodiments of this application.

[0044] On one hand, as shown in Figure 1, this application provides an atomizing device 100, which includes a first atomizer 21, a second atomizer 22, and a control assembly 30. The control assembly 30 includes a first controller 31 and a second controller 32. The first controller 31 is electrically connected to the first atomizer 21 to control the output power (i.e., output power) of the first atomizer 21. The second controller 32 is electrically connected to the second atomizer 22 to control the output power (i.e., output power) of the second atomizer 22. The second atomizer is used to contain a flavor-modifying aerosol matrix.

[0045] The atomizing device 100 provided in this embodiment of the application, by providing two atomizers, a first atomizer 21 and a second atomizer 22, allows the atomizer to be used to atomize one aerosol matrix, or to atomize two different flavored aerosol matrices. Since the first controller 31 can adjust the output power of the first atomizer 21, that is, by increasing or decreasing the output power of the first atomizer, the atomization concentration of the aerosol matrix in the first atomizer 21 can be adjusted, thereby adjusting the inhalation taste of the atomizing device 100. Similarly, the second controller 32 can also increase or decrease the output power of the second atomizer, thereby adjusting the atomization concentration of the aerosol matrix in the second atomizer 22, so that the mists produced by the two aerosol matrices have different mixing ratios, thus also adjusting the inhalation taste of the atomizing device 100.

[0046] Therefore, through the independent control of the first controller 31 and the second controller 32, when the atomizing device 100 uses one aerosol matrix for atomization, the mist concentration of the aerosol matrix can be changed to give the atomizing device 100 different inhalation sensations. Furthermore, when the atomizing device 100 uses two aerosol matrices for atomization, the mist concentration of each aerosol matrix can be changed independently through power control, resulting in different mixing ratios of the mixed mist. This further enhances the diversity of the inhalation sensations offered by the atomizing device, thereby improving the user experience.

[0047] For example, as shown in FIG1, the atomizing device 100 may include a power supply 10, which may be battery-powered or grid-powered. The power supply 10 is electrically connected to the first atomizer 21 via a first controller 31, and the power supply 10 is also electrically connected to the second atomizer 22 via a second controller 32. No limitation is made in this regard.

[0048] In some embodiments, the first controller 31 has multiple settings for adjusting the output power of the first atomizer. Correspondingly, the second controller 32 has multiple settings for adjusting whether the second atomizer 22 is in an on or off state.

[0049] For example, taking the first atomizer 21 as the main atomizer, the multiple settings of the first controller 31 are used to adjust the output power of the first atomizer, but cannot make the output power of the first atomizer zero.

[0050] The second atomizer 22 is a flavor-adjustable atomizer. It allows for the addition of one or more different flavored aerosol bases (such as supplemented ice aerosol base, supplemented sweet aerosol base, and supplemented acidic aerosol base) to adjust the unique flavor of the vaping experience. Therefore, the second atomizer 22 can be turned on via the second controller 32 to mix different flavored vaping experiences. The second atomizer 22 can also be turned off via the second controller 32 to maintain the flavor of the base aerosol base during vaping.

[0051] Based on this, the output power of the second atomizer can also be adjusted via the second controller 32. That is, by changing the mixing ratio of flavored vapors in the mixed vapor, the diversity of vaping sensations can be adjusted.

[0052] Taking an example where the first controller 31 controls the first atomizer 21 to atomize at n different output power levels, and the second controller 32 controls the second atomizer 22 to atomize at m different output power levels, the atomizing device 100 offers n·m different inhalation flavors, significantly increasing the problem of insufficient flavor characteristics. This application aims to improve the competitiveness of the atomizing device 100 by providing diverse inhalation flavors to meet different user needs.

[0053] Based on this, by changing the different flavor-adjusting aerosol bases in the second atomizer 22, the diversity of the inhalation experience of the atomizing device 100 can be further increased. For example, if there are three types of flavor-adjusting aerosol bases, the total number of inhalation experiences of the atomizing device 100 is 3·n·m.

[0054] It should be noted that the main components of the flavor-adjusting aerosol matrix and the basic aerosol matrix are one or more of food-grade or pharmaceutical-grade glycerol (also known as glycerin), propylene glycol and polyethylene glycol, which facilitate atomization and mixing with air.

[0055] The basic aerosol matrix may also include ingredients such as flavorings and nicotine to cater to the taste preferences of different users. Flavor-modifying aerosol matrices also include flavor additives to provide different textures and thus increase user appeal. For example, by adding one or more flavor additives, the flavor-modifying aerosol matrix can possess one or more of the texture effects of ice aerosol matrices, sweetened aerosol matrices, and acidified aerosol matrices.

[0056] Flavor-adjusting aerosols generally do not contain flavorings or nicotine.

[0057] For example, the first controller 31 can have three settings: high, medium, and low, so that the first atomizer 21 has three different output powers. The second controller 32 can have four settings: high, medium, low, and off (i.e., the output power of the second atomizer is zero), so that the second atomizer 22 has four different output powers. In this case, when the second atomizer 22 is filled with a flavor-adjusting aerosol matrix, by changing the output power of the first and second atomizers, the atomizing device 100 can provide twelve different inhalation sensations. That is, by diversifying the flavor characteristics to suit different user needs, the product becomes more competitive.

[0058] It should be noted that, in the embodiments of this application, the components of the control components 30, such as the first controller 31 and the second controller 32, can all be regarded as part of the atomizing device 100.

[0059] In some embodiments, as shown in Figures 2 and 3, the atomizing device 100 further includes a housing 40, which has an air inlet 41. Referring to Figure 4, the atomizing device 100 further includes an air inlet adjustment member 50, which is used to adjust the air inlet area of ​​the air inlet 41.

[0060] The air intake adjustment component 50 can be positioned close to the air intake port 41 and installed on the inner or outer side of the housing 40. By reciprocatingly sliding the air intake adjustment component 50, the air intake area of ​​the air intake port 41 can be flexibly adjusted between its maximum and minimum. That is, by changing the air intake area of ​​the air intake port 41, the airflow of the atomizing device 100 during the atomization process can be adjusted.

[0061] For example, the air intake hole 41 located on the housing 40 is a through hole structure, and the air intake adjustment component 50 can be a lever structure. In the process of reciprocating the air intake adjustment component 50, the size of the air intake area of ​​the air intake hole 41 is changed by changing the overlap area between the air intake adjustment component 50 and the air intake hole 41.

[0062] Alternatively, the number of air intake holes 41 on the housing 40 can be set to three. As shown in Figure 5, the air intake adjustment component 50 includes a toggle member 51. Referring to Figure 3, the toggle member 51 is installed on the inner side of the housing 40 and is positioned close to the three air intake holes 41. The toggle member 51 has three adjustment holes 52 with through-hole structures corresponding to the three air intake holes 41. During the reciprocating sliding of the toggle member 51, the three air intake holes 41 and the three adjustment holes 52 can be completely aligned along the X direction, that is, the air intake area is at its maximum. If one air intake hole 41 is aligned with one adjustment hole 52 along the X direction, the air intake area is at its minimum. If two air intake holes 41 and two adjustment holes 52 are aligned along the X direction, the air intake area is at a medium level.

[0063] In some embodiments, as shown in Figures 5 and 8, the control assembly 30 further includes a sliding adjustment section 35, and a first controller 31 (as shown in Figure 1) is electrically connected to the sliding adjustment section 35. The intake adjustment member 50 is fixedly connected to the sliding adjustment section 35 to synchronously adjust (switch) the gear position between at least a first position state and a second position state.

[0064] The air intake regulator 50 and the first controller 31 are configured such that when the air intake regulator 50 controls the increase of the air intake area of ​​the air intake port 41, the first controller 31 simultaneously controls the increase of the output power of the first atomizer. When the air intake regulator 50 controls the decrease of the air intake area of ​​the air intake port 41, the first controller 31 simultaneously controls the decrease of the output power of the first atomizer.

[0065] For example, consider the air intake adjustment component 50 sliding back and forth in the left-right direction. As the air intake adjustment component 50 slides from left to right, the air intake area of ​​the air intake hole 41 increases, and simultaneously, the toggle or press end of the sliding adjustment part 35 moves to the right, thereby increasing the output power of the first atomizer. Conversely, when the air intake adjustment component 50 slides in the opposite direction from right to left, the air intake area of ​​the air intake hole 41 decreases, and simultaneously, the toggle or press end of the sliding adjustment part 35 moves to the left, thereby decreasing the output power of the first atomizer.

[0066] Correspondingly, when the air intake adjustment component 50 slides to the maximum air intake area of ​​the air intake hole 41, the sliding adjustment part 35 is in the first position state and adjusts the output power of the first atomizer to the maximum level through the first controller 31. When the air intake adjustment component 50 slides to the minimum air intake area of ​​the air intake hole 41, the sliding adjustment part 35 is in the second position state and adjusts the output power of the first atomizer to the minimum level through the first controller 31.

[0067] For the atomizing device 100, the larger the air intake area of ​​the air intake port 41, the greater the air intake volume per unit time. In order to maintain a good taste in the air mixed with the atomized aerosol matrix, the atomization amount of the aerosol matrix needs to be increased accordingly so that the content of the atomized aerosol matrix mixed in the air is not too low and thus reduces the taste.

[0068] In other words, if the air intake area of ​​the air intake port 41 needs to be increased, the atomization power of the atomizer needs to be increased accordingly to atomize more aerosol matrix in the same amount of time, thereby keeping the content of the atomized aerosol matrix in a relatively stable state. Based on this, the solution of this application configures the first controller 31 and the air intake regulator 50 to be in a synchronous adjustment state, that is, the two can be adjusted synchronously and are in a positively correlated linear relationship. That is, a single operation can simultaneously increase or decrease the air intake area and the output power of the first atomizer, which is convenient for users to operate.

[0069] In the above embodiment, the actuating member 51 of the air intake regulating member 50 is arranged in contact with the actuating end or pressing end of the sliding regulating part 35, so that the actuating member 51 can drive the actuating end or pressing end of the sliding regulating part 35 to move synchronously during the reciprocating sliding process, so as to simultaneously adjust the air intake area of ​​the air intake hole 41 and the output power of the first atomizer.

[0070] In some other embodiments, as shown in Figures 4 and 5, the intake adjustment member 50 further includes an adapter 53, through which the actuating member 51 is fixedly connected to the sliding adjustment part 35, such as by plugging in, so that the actuating member 51 can drive the sliding adjustment part 35 to slide synchronously between a first position state and a second position state through the adapter 53.

[0071] As shown in Figures 5 and 8, the power supply 10 may include a battery 11 and a cell support 12. Referring to Figure 2, the battery 11 is fixedly mounted within the housing 40 via the cell support 12, enabling the battery 11 to stably supply power to electrical components such as the first atomizer 21 (as shown in Figure 1) and the second atomizer 22. For example, the battery 11 may be a lithium battery, lead-acid battery, nickel-metal hydride battery, or zinc-manganese battery.

[0072] The battery cell bracket 12 has an independent bracket air channel inside, so that the first atomizer 21 and the second atomizer 22 are connected to the air inlet 41 through the bracket air channel, thereby providing a stable airflow to the first atomizer 21 and the second atomizer 22.

[0073] As shown in Figure 5, the air intake regulating component 50 also includes a bracket sealing part 54, which is installed at the end of the cell bracket 12 away from the first atomizer 21 and is used to block the air intake port of the bracket air passage. A bracket through hole 55 is provided at the bracket sealing part 54, which communicates with the bracket air passage. An adapter 53 is disposed near the bracket sealing part 54, and the actuating member 51 causes the adapter 53 to slide between a first position and a second position.

[0074] When the adapter 53 is in the first position, it completely blocks the bracket through hole 55, or minimizes the air intake area of ​​the bracket through hole 55, and simultaneously moves the sliding adjustment part 35 to the first position. When the adapter 53 is in the second position, the body of the adapter 53 is completely misaligned with the direct through hole, or its through hole structure is aligned with the bracket through hole 55, so that the bracket through hole 55 is at its maximum air intake area, and simultaneously moves the sliding adjustment part 35 to the second position.

[0075] Multiple adjustment levels can be set between the first and second position states. Taking the first position state as the low gear and the second position state as the high gear as an example, a medium gear can also be set between the second and first position states. Furthermore, multiple gears such as level two, level three, and level four can also be set between the second and first position states, in which case the first position state is the lowest gear and the second position state is the highest gear (e.g., level five).

[0076] For example, a multi-stage snap-fit ​​structure can be provided at the adapter 53 to allow the toggle member 51 and the adapter 53 to have multiple stable gear positions. Alternatively, the toggle member 51 or the adapter 53 can be configured to have a damping effect during sliding, and the air intake area and the output power of the first atomizer of the first controller 31 can be infinitely adjusted, which is not limited.

[0077] In some embodiments, as shown in Figures 7 and 8, the first atomizer 21 includes a first atomizing chamber 211, a first atomizing element 212, and a first channel 213. The first atomizing element 212 and the first channel 213 are both disposed in the first atomizing chamber 211. One end of the first atomizing element 212 is connected to the first channel 213, and the first atomizing element 212 is electrically connected to the power supply 10 through the first controller 31 (as shown in Figure 1).

[0078] The first atomizing chamber 211 is mainly used to store the basic aerosol matrix. The volume of the first atomizing chamber 211 determines the amount of basic aerosol matrix that the first atomizer 21 can store. The first atomizing element 212 atomizes the basic aerosol matrix in the first atomizing chamber 211. The mist formed after the basic aerosol matrix is ​​atomized is discharged from the first atomizing chamber 211 through the first channel 213.

[0079] Referring again to Figures 7 and 8, the second atomizer 22 includes a second atomizing chamber 221, a second atomizing element 222, and a second channel 223. The second atomizing element 222 and the second channel 223 are both disposed in the second atomizing chamber 221. One end of the second atomizing element 222 is connected to the second channel 223, and the second atomizing element 222 is electrically connected to the power supply 10 through the second controller 32 (as shown in Figure 1).

[0080] The second atomizing chamber 221 is mainly used to store the flavor-modifying aerosol matrix. The volume of the second atomizing chamber 221 determines the amount of flavor-modifying aerosol matrix that the second atomizer 22 can store. The second atomizing element 222 atomizes the flavor-modifying aerosol matrix in the second atomizing chamber 221. The mist formed after the flavor-modifying aerosol matrix is ​​atomized is discharged from the second atomizing chamber 221 through the second channel 223.

[0081] In some embodiments, as shown in Figures 2 and 8, the atomizing device 100 further includes a mouthpiece assembly 60. Referring to Figures 7 and 8, the housing 40 has an air inlet corresponding to the air inlet 41 (as shown in Figure 3), and the mouthpiece assembly 60 is disposed at the air inlet. The first channel 213 and the second channel 223 are connected to the mouthpiece assembly 60 through the air inlet. By providing the mouthpiece assembly 60, the user can easily inhale through it, while the atomized mist from the first atomizing element 212 and the second atomizing element 222 can be fully mixed within the mouthpiece assembly 60, thereby improving the flavor and texture.

[0082] In some embodiments, as shown in Figures 7 and 8, the first atomizer 21 further includes a first liquid reservoir 214, and the second atomizer 22 further includes a second liquid reservoir 224. The first liquid reservoir 214 is disposed within the first atomization chamber 211, and the second liquid reservoir 224 is disposed within the second atomization chamber 221. The first liquid reservoir 214 can absorb and store the basic aerosol matrix, effectively fixing the basic aerosol matrix and reducing leakage of the basic aerosol matrix, avoiding waste or affecting the vaping experience. The second liquid reservoir 224 can absorb and store the flavor-modifying aerosol matrix, effectively fixing the flavor-modifying aerosol matrix and reducing leakage of the flavor-modifying aerosol matrix, avoiding waste or affecting the vaping experience.

[0083] Based on this, the volume of the first atomizer 21 is set to be greater than the volume of the second atomizer 22, that is, the volume of the first atomizing chamber 211 is greater than the volume of the second atomizing chamber 221. The output power of the first atomizer is greater than the output power of the second atomizer, such as the rated power of the first atomizing element 212 being greater than the rated power of the second atomizing element 222.

[0084] For example, the output power of the first atomizer can be set to at least twice the output power of the second atomizer. This setting allows for a noticeable change in flavor during operation, while preventing the change from being too drastic, reducing discomfort, and making the flavor change smoother and more acceptable, thus improving the user experience. The ratio of the output power of the first atomizer to the output power of the second atomizer can also be set according to the user's actual needs, such as the output power of the first atomizer being 2.5 times, 3 times, 4 times, or 5 times that of the second atomizer.

[0085] The volume of the first atomizer 21 is at least twice the volume of the second atomizer 22. This arrangement can coordinate the atomization power of the first atomizer 21 and the second atomizer 22, reduce the rate difference in aerosol matrix consumption between the two atomizers, and ensure that the aerosol matrix is ​​used up as much as possible, further reducing the waste of aerosol matrix in the first atomizer 21 or the second atomizer 22.

[0086] For example, the volume range of the first atomizing chamber 211 is [10ml, 20ml], and the volume range of the second atomizing chamber 221 is [5ml, 10ml]. This range ensures that the first and second atomizing chambers 211 have a sufficient number of inhalation ports while keeping the overall atomizing device in a small size for easy portability. For instance, the volume of the first atomizing chamber 211 can be 10ml, 11ml, 12ml, 13ml, 14ml, 15ml, 16ml, 17ml, 18ml, 19ml, or 20ml. The volume of the second atomizing chamber 221 can be 5ml, 6ml, 7ml, 8ml, 9ml, or 10ml.

[0087] In this embodiment, the volume of the first atomizing chamber 211 is twice the volume of the second atomizing chamber 221. For example, the volume of the first atomizing chamber 211 is 15ml, and the volume of the second atomizing chamber 221 is 7.5ml.

[0088] With the above settings, while ensuring that the atomizing device 100 has sufficient suction time, the aerosol matrix in the first atomizer 21 can be consumed first, which helps to improve the utilization efficiency of the aerosol matrix and avoid waste.

[0089] In some embodiments, the first controller 31 and the second controller 32 are configured such that when the output power of the second atomizer increases, the output power of the first atomizer decreases accordingly.

[0090] After activating the second atomizer 22, the atomization content of the flavor-adjusting aerosol matrix is ​​increased. By reducing the output power of the first atomizer 21, the atomization content of the basic aerosol matrix is ​​reduced, meaning the total atomization amount of the aerosol matrix remains approximately constant. While providing a unique flavor profile, the relatively stable total atomization amount of the aerosol matrix ensures that the atomizing device 100 maintains the stability of other flavor characteristics while enhancing the flavor profile, resulting in a better user experience.

[0091] For example, the first controller 31 and the second controller 32 can be configured such that, while keeping the setting of the first controller 31 unchanged, adjusting the position of the second controller 32 does not change the sum of the output power of the first atomizer and the output power of the second atomizer. The increase or decrease in the output power of the second atomizer corresponds to the decrease or increase in the output power of the first atomizer.

[0092] It should be noted that, in this embodiment, the first controller 31 can be either a voltage regulation module or a current regulation module, both of which can be used to adjust the output power of the first atomizer. The second controller 32 can also be either a voltage regulation module or a current regulation module, both of which can be used to adjust the output power of the second atomizer.

[0093] For example, the first controller 31 and the second controller 32 are voltage regulation modules. The first controller 31 is connected in parallel with the first atomizing element 212, and the second controller 32 is connected in series with the second atomizing element 222. The two series-connected modules are connected in parallel to regulate the voltage across the first atomizing element 212 and the second atomizing element 222, thereby changing the output power of the first atomizer and the second atomizer.

[0094] Alternatively, the first controller 31 and the second controller 32 can be current regulation modules. The first controller 31 is connected in parallel with the first atomizing element 212, and the second controller 32 is connected in parallel with the second atomizing element 222. The two parallel-connected modules are then connected in series to regulate the current flowing through the first atomizing element 212 and the second atomizing element 222, thereby changing the output power of the first atomizer and the second atomizer.

[0095] In some embodiments, at least one of the first controller 31 and the second controller 32 is a button module.

[0096] As exemplarily shown in Figures 1, 7, and 8, the control assembly 30 further includes at least one of an operation unit 33 and a display module 34. The operation unit 33 and the display module 34 may be mounted on the same side of the housing 40 or on different sides of the housing 40.

[0097] For example, the operation unit 33 can be a screen button, a touch button, or a physical button, that is, the operation unit 33 is a button module. The second controller 32 is electrically connected to the operation unit 33. By pressing different power level buttons, the second atomizer 222 can be switched between the off state, low power level, medium power level, and high power level through the second controller 32, which is used to adjust the output power of the second atomizer or the power level of the second controller 32.

[0098] In some embodiments, as shown in FIG6, the display module 34 includes a display screen 341 and display units 342. The number of display units 342 may be one, multiple, or at least three. The shape of the display units may be an ice cube-shaped structure, a flame-shaped structure, etc. There is no limitation thereto.

[0099] The display module 34 can display the current power information of the second atomizing element 222 and / or the first atomizing element 212 through the display section 342.

[0100] Taking an example where the display unit 342 has an ice cube-shaped icon and there are three display units 342: When the second atomizer 222 is off, all display units 342 are off. When the second atomizer 222 is at a low power level, one display unit 342 is lit. When the second atomizer 222 is at a medium power level, two of the display units 342 are lit. When the second atomizer 222 is at a high power level, all three display units 342 are lit. This displays the current power level of the second atomizer 22, and so on.

[0101] Correspondingly, the display module 34 can also display the air intake area status of the air intake port 41 and the current gear status of the first controller 31, without limitation.

[0102] It should be noted that the display unit 342 can be a pattern information displayed by editing part or all of the display screen 341 through a preset program. Alternatively, the display unit 342 can also be an independent component, that is, it can be a patch structure of a specific shape in conjunction with information indicator lights, and the number of patch structures and information indicator lights are the same and they are set one-to-one. In this case, the number of illuminated display units 342 can be controlled by controlling the lighting and extinguishing of the information indicator lights, thereby displaying the current power information (such as the current gear) of the first atomizer 21 and the second atomizer 22.

[0103] In this configuration, the first controller 31 is not set synchronously with the intake regulator 50. Alternatively, the operating end of the first controller 31 can be part of the operating unit 33, allowing the first controller 31 to switch between low power, medium power, and high power by pressing different gear buttons.

[0104] In some embodiments, as shown in FIG8, the atomizing device 100 further includes an airflow sensor 71. Both the first controller 31 and the second controller 32 are electrically connected to the airflow sensor 71 for switching gears.

[0105] The airflow sensor 71 can be a microphone, a semiconductor gas sensor, or an infrared gas sensor, etc. Taking the microphone as an example, the microphone is placed in the air passage between the air inlet 41 and the atomizer, and connected in series between the power supply 10 and the atomizing element. When the user inhales to allow air to flow through the microphone, the microphone senses the airflow and causes the power supply 10 to supply power to at least the first atomizing element 212 to atomize the aerosol matrix.

[0106] However, in the above scheme, the airflow sensor 71, which is connected to at least one of the first controller 31 and the second controller 32, is used for gear switching adjustment.

[0107] Taking the signal connection between the first controller 31 and the airflow sensor 71 as an example, the first controller 31 is used to collect the first airflow signal. Through a preset program, the first controller 31 can adjust its setting according to at least one of the duration of the first airflow signal and the frequency of the first airflow signal within the preset duration.

[0108] For example, when two or three consecutive suctions are performed within a preset duration of three seconds, the first controller 31 receives two or three first airflow signals within the preset duration of three seconds under the sensing of the airflow sensor 71. At this time, the first controller 31 automatically switches the gear state according to a preset program, such as increasing or decreasing the gear.

[0109] Alternatively, when a single suction session lasts two to four seconds, the first controller 31 continuously receives a first airflow signal for two to four seconds under the sensing of the airflow sensor 71. At this time, the first controller 31 automatically switches the gear state according to a preset program, such as increasing the gear.

[0110] In the above scheme, the initial gear of the first controller 31 can be set to the lowest gear, so that the gear state of the first controller 31 can be gradually increased in the above manner.

[0111] Taking the signal connection between the second controller 32 and the airflow sensor 71 as an example, the second controller 32 is used to receive and collect the second airflow signal. Through a preset program, the second controller 32 can adjust its setting according to at least one of the duration of the second airflow signal and the frequency of the second airflow signal within the preset duration.

[0112] For example, when two or three consecutive suctions are performed within a preset duration of three seconds, the second controller 32 receives two or three second airflow signals within the preset duration of three seconds, under the sensing of the airflow sensor 71. At this time, the second controller 32 automatically switches the gear state according to a preset program, such as increasing or decreasing the gear.

[0113] Alternatively, when a single suction session lasts two to four seconds, the second controller 32 continuously receives a second airflow signal for two to four seconds under the sensing of the airflow sensor 71. At this time, the second controller 32 automatically switches the gear state according to a preset program, such as increasing the gear.

[0114] In the above scheme, the initial gear of the second controller 32 can be set to the off state, so that the gear state of the second controller 32 can be gradually increased in the above manner.

[0115] In this design, when the first controller 31 and the second controller 32 switch gears via the airflow sensor 71, their preset gear switching adjustments need to be different. For example, the first controller 31 increases the gear based on the frequency of the first airflow signal within a preset duration. The second controller 32 increases the gear based on the duration of the second airflow signal. It should be noted that in the above scheme, the airflow sensor 71 used for gear switching and the microphone structure used to control the atomizer's activation can be the same or different airflow sensors 71, and can be set as needed.

[0116] The first airflow signal and the second airflow signal can be information about the working duration and working frequency of the microphone structure and / or the first atomizer 21.

[0117] In some other embodiments, as shown in FIG9, the atomizing device 100 further includes a gravity sensor 72, and at least one of the first controller 31 and the second controller 32 is connected to the gravity sensor 72 for switching power levels. For example, both the first controller 31 and the second controller 32 are connected to the gravity sensor 72 to control the output power of the power supply 10 and the atomization power of the first atomizer 21 and the second atomizer 22.

[0118] Taking the signal connection between the first controller 31 and the gravity sensor 72 as an example, the first controller 31 is used to receive the first position signal from the gravity sensor 72. Through a preset program, the first controller 31 can adjust its gear according to at least one of the swaying direction and swaying frequency of the first position signal.

[0119] For example, the shaking can be achieved through preset shaking postures (such as arc-shaped shaking, S-shaped shaking, etc.), different shaking directions (such as up-and-down shaking, left-and-right or horizontal shaking), or different shaking frequencies (such as shaking speed per unit time). Under the sensing of the gravity sensor 72, the first controller 31 can receive different first position signals. At this time, the first controller 31 compares the first position signal with preset parameters according to a preset program. When the two are consistent, the first controller 31 automatically switches the gear state, such as increasing the gear or decreasing the gear.

[0120] Taking the signal connection between the second controller 32 and the gravity sensor 72 as an example, the second controller 32 is used to receive the second position signal from the gravity sensor 72. Through a preset program, the second controller 32 can adjust its setting according to at least one of the swaying direction and swaying frequency of the second position signal.

[0121] For example, the shaking can be achieved through preset shaking postures (such as arc-shaped shaking, S-shaped shaking, etc.), different shaking directions (such as up-and-down shaking, left-and-right or horizontal shaking), or different shaking frequencies (such as shaking speed per unit time). Under the sensing of the gravity sensor 72, the second controller 32 can receive different first position signals. At this time, the second controller 32 compares the first position signal with preset parameters according to a preset program. When the two are consistent, the second controller 32 automatically switches the gear state, such as increasing the gear or decreasing the gear.

[0122] In the above scheme, the initial gear of the first controller 31 can be set to the lowest gear. The initial gear of the second controller 32 can be set to the off state. The gear states of the first controller 31 and / or the second controller 32 can be gradually increased in the above manner.

[0123] In some embodiments, as shown in FIG7, the viscosity of the aerosol matrix in the second atomizer 22 is greater than the viscosity of the aerosol matrix in the first atomizer 21.

[0124] By setting the viscosity of the aerosol matrix in the first atomizer 21 to be lower, the aerosol matrix in the first atomizer 21 is made easier to atomize. That is, at the same atomization concentration, the output power of the first atomizer 21 is lower, which helps to reduce the atomization power of the first atomizer 21, thereby extending the single-use time of the power supply 10 and providing a better user experience.

[0125] In some embodiments, as shown in FIG8, the control assembly 30 further includes a main control circuit board 36. Referring to FIG3, one end of the main control circuit board 36 near the air inlet 41 is connected to the sliding adjustment part 35 of the tail plate structure, which facilitates the assembly and installation of the sliding adjustment part 35 and makes it electrically connected to the first controller 31 (as shown in FIG1).

[0126] When installing the main control circuit board 36 and the display module 34 (such as the display screen 342), referring to Figures 7 and 8, the display module 34, the main control circuit board 36, the second atomizer 22, and the first atomizer 21 are sequentially fixed along the Y direction (i.e., the first straight line direction). That is, the display module 34, the main control circuit board 36, the second atomizing chamber 221, and the first atomizing chamber 211 are sequentially fixed along the Y direction (i.e., the first straight line direction).

[0127] Compared to the first atomizing chamber 211, the second atomizing element 222 inside the second atomizing chamber 221 has lower heating power and shorter heating time. Therefore, placing the main control circuit board 36 and the display module 34 close to the second atomizing chamber 221 improves heat dissipation for both, thus enhancing the stability of their operation.

[0128] Furthermore, since the main control circuit board 36 and the display module 34 are relatively small in size, they are arranged on the side of the second atomizing chamber 221 away from the first atomizing chamber 211. Compared with the technical solution of setting them on the same side of the first atomizing chamber 211 and the second atomizing chamber 221, this helps to reduce the thickness of the atomizing device 100.

[0129] As shown in Figure 8, the display module 34 may include a display screen 341 and a display mask 343. The display mask 343 is installed on the side of the display screen 341 away from the second atomizer 22 (as shown in Figure 7). The display mask 343 is a light-transmitting mask and is used to protect the display screen 341.

[0130] In this embodiment, the first controller 31 and the second controller 32 may be two functional partitions of an integrated chip on the main control circuit board 36.

[0131] Alternatively, the main control circuit board 36 may have two integrated chips, one of which is the first controller 31 and the other is the second controller 32.

[0132] This allows the first controller 31 and the second controller 32 to be flexibly arranged and installed in the atomizing device 100.

[0133] Secondly, embodiments of this application also provide a power adjustment method for an atomizing device. This power adjustment method includes:

[0134] Receive the first adjustment command and adjust the output power of the first atomizer according to the first adjustment command.

[0135] Receive the second adjustment command and adjust the output power of the second atomizer according to the indicated second adjustment command.

[0136] The second atomizer is used to contain the flavor-adjusting aerosol matrix.

[0137] Since this power control method is the method-side solution corresponding to the atomizing device in the first aspect, it possesses all the beneficial effects of the atomizing device in the first aspect, which will not be elaborated here.

[0138] In some embodiments, adjusting the output power of the second atomizer according to the second adjustment command further includes:

[0139] The second adjustment command indicates that the display module displays the current power information of the second atomizer.

[0140] While adjusting the output power of the second atomizer via the second adjustment command, the display module simultaneously displays the current power information of the second atomizer, allowing users to clearly and intuitively understand the current power information of the second atomizing device, providing a better user experience. Furthermore, by increasing or decreasing the output power of the second atomizer, the atomization concentration of the flavor-adjustable aerosol matrix can be increased or decreased accordingly, enabling the atomizing device to offer a variety of different flavor characteristics. This helps to expand the product's target audience and thus enhance its competitiveness.

[0141] By adjusting the output power of the first atomizer using the first adjustment command, the atomization concentration of the basic aerosol matrix can be adjusted, thereby increasing the adjustment range of the atomization device's taste characteristics.

[0142] Since the second atomizing element is used to atomize the flavor-adjusting aerosol matrix, it has a significant impact on the taste characteristics. Therefore, by setting a second adjustment command to regulate the output power of the second atomizing element, the concentration of the flavor aerosol can be adjusted at multiple concentration gradient levels, further increasing the diversity of the atomization device's taste characteristics. Furthermore, the current power level of the second atomizing element is simultaneously displayed on the display module, making it convenient for the user to adjust.

[0143] In addition, the display module can be configured to simultaneously display the current power information of the first atomizer, which also makes it easy for users to obtain the current power status of the atomizer.

[0144] It should be noted that the current power information can be the current power level of the second atomizer and / or the first atomizer. Alternatively, the display module can be configured to directly display the real-time power of the first atomizer and / or the second atomizer, meaning the current power information is real-time power information.

[0145] In some embodiments, the second atomizing element has at least three power levels, and the display module has at least three display sections, the number of which is the same as the number of power levels of the second atomizing element.

[0146] Based on this, the power regulation method also includes:

[0147] The power level of the second atomizing element is increased or decreased according to the second adjustment command, which correspondingly increases or decreases the number of lights on the display section.

[0148] For example, the number of display units can be three, four, five, or more. The power levels of the second atomizing element can be three, four, five, or more. The number of display units is the same as the number of power levels of the second atomizing element.

[0149] Taking a scenario with three displays and three power levels for the second atomizer as an example: When the second atomizer is off (at power level zero, excluding this level), all displays are off. When the second atomizer is at power level one (the lowest power level), only one display is lit. When the second atomizer is at power level two, only two displays are lit. When the second atomizer is at power level three (the highest power level), all three displays are lit. This allows users to clearly and intuitively observe the current power level of the second atomizer.

[0150] The shape of the display section can be an ice cube-shaped structure, a flame-shaped structure, etc., and there is no limitation on it.

[0151] In another embodiment, the second atomizing element has at least three power levels, and the display module has at least three display units, with the at least three power levels of the second atomizing element corresponding one-to-one with the at least three display units.

[0152] Based on this, the power regulation method also includes:

[0153] The power level of the second atomizer is increased or decreased according to the second adjustment command, and the display of the corresponding power level of the second atomizer is lit up.

[0154] Taking a scenario with three displays and three power levels for the second atomizer as an example, the three displays sequentially indicate the power levels: 1, 2, and 3. When the second atomizer is off (at power level 0, excluding that level), all displays are off. When the second atomizer is at power level 1 (the lowest power level), the display indicating "1" is lit. When the second atomizer is at power level 2, the display indicating "2" is lit. When the second atomizer is at power level 3 (the highest power level), all displays indicating "3" are lit. This allows the user to clearly and intuitively observe the current power level of the second atomizer.

[0155] The display section indicates the gear position information as one, two, and three. The markings for one, two, and three can be Arabic numerals, Roman numerals, or other symbols, and there are no restrictions on this.

[0156] In the above power adjustment method, adjusting the output power of the first atomizer according to the first adjustment command includes:

[0157] The output power of the first atomizer and the air intake area of ​​the air inlet are increased or decreased synchronously according to the first adjustment command.

[0158] For atomizing devices, a larger air intake area means a larger air intake volume per unit time. To maintain a good taste in air mixed with atomized aerosol matrix, the atomization volume of aerosol matrix needs to be increased accordingly, so that the content of atomized aerosol matrix in the air is not too low and thus reduces the taste.

[0159] In other words, if the air intake area needs to be increased, the atomization power of the atomizer must be increased accordingly to atomize more aerosol matrix in the same amount of time, thereby keeping the content of the atomized aerosol matrix in a relatively stable state. Based on this, the solution in this application configures the first controller and the air intake regulator to be in a synchronous adjustment state, meaning that the two can be adjusted synchronously and are in a positively correlated linear relationship. This means that a single operation can simultaneously increase or decrease the air intake area and the output power of the first atomizer, facilitating user operation.

[0160] In addition, the first controller and the air intake regulator can be configured to be in a process synchronization state by means of position sensors or laser sensors, so as to synchronously increase or decrease the output power of the first atomizer and the air intake area of ​​the air intake hole under the instruction of the first adjustment command.

[0161] In some embodiments, adjusting the output power of the second atomizing element according to the second adjustment command includes:

[0162] The output power of the second atomizer is increased and the output power of the first atomizer is decreased according to the second adjustment command.

[0163] The output power of the second atomizer is reduced and the output power of the first atomizer is increased according to the second adjustment command.

[0164] Wherein, with the power setting of the first atomizer unchanged, the total output power of the first atomizer and the second atomizer is set within a preset range, that is, the total output power of the first atomizer and the second atomizer fluctuates within the preset range.

[0165] With the power setting of the first atomizer unchanged, the total output power of the first and second atomizers remains stable. After activating the second atomizer, the atomized content of the flavor-adjusting aerosol matrix increases. By reducing the output power of the first atomizer, the atomized content of the basic aerosol matrix decreases, meaning the total atomized amount of the aerosol matrix remains approximately constant. While achieving a unique flavor profile, the relatively stable total atomized amount of the aerosol matrix ensures that the atomization device maintains the stability of other flavor characteristics while enhancing flavor, resulting in a better user experience.

[0166] It should be noted that the preset range may be due to errors. For example, if the total output power of the first and second atomizers fluctuates within the preset error range, and the total output power of the first and second atomizers remains relatively stable during the adjustment of the power level of the second atomizer, that is, fluctuates within the preset error range (such as 0.1w-2w), it can be regarded as the total output power remaining relatively stable.

[0167] For example, the preset error can be 0.1w, 0.2w, 0.3w, 0.4w, 0.5w, 0.6w, 0.7w, 0.8w, 0.9w, 1w, 1.1w, 1.2w, 1.3w, 1.4w, 1.5w, 1.6w, 1.7w, 1.8w, 1.9w, and 2w.

[0168] In this embodiment of the application, the first adjustment command and the second adjustment command can be corresponding button adjustment commands or other forms of adjustment commands.

[0169] For example, the adjustment command further includes at least one of an attitude parameter command and a sway frequency parameter command. At least one of the first adjustment command and the second adjustment command includes an attitude parameter command and a sway frequency parameter command.

[0170] Correspondingly, the first adjustment command also includes at least one of attitude parameter command and sway frequency parameter command. The power adjustment method also includes:

[0171] The output power of the first atomizer is adjusted according to at least one of the posture parameter command and the oscillation frequency parameter command.

[0172] The second adjustment command also includes at least one of attitude parameter command and sway frequency parameter command. The power adjustment method also includes:

[0173] The output power of the second atomizer is adjusted according to at least one of the attitude parameter command and the oscillation frequency parameter command.

[0174] For example, posture parameter commands can be obtained through preset shaking postures (such as arc-shaped shaking, S-shaped shaking, etc.) and different shaking directions (such as up-and-down shaking, left-and-right shaking, or horizontal shaking). Shaking is performed according to preset different shaking frequencies (such as shaking speed per unit time) to obtain shaking frequency parameters. Under the sensing of the gravity sensor, the controller (such as the first controller and the second controller) can receive different position signals. At this time, the controller compares the posture parameter commands and shaking frequency parameter commands formed by the position signals with preset parameters according to a preset program. When the two match, the controller automatically switches the power level of the corresponding atomizing component (such as the first atomizer and / or the second atomizer), such as increasing or decreasing the power level.

[0175] In some embodiments, the adjustment command further includes at least one of an atomizer ventilation duration command and a ventilation frequency command. At least one of the first and second adjustment commands includes the atomizer ventilation duration command and the ventilation frequency command.

[0176] Correspondingly, the first adjustment command also includes at least one of a first atomizer ventilation duration command and a ventilation frequency command. The power adjustment method further includes:

[0177] The output power of the first atomizer is adjusted according to at least one of the ventilation duration command and ventilation frequency command.

[0178] The second adjustment command also includes at least one of the first atomizer's ventilation duration command and ventilation frequency command. The power adjustment method also includes:

[0179] The output power of the second atomizer is adjusted according to at least one of the ventilation duration command and ventilation frequency command.

[0180] For example, taking two or three consecutive inhalations within a preset three-second duration can activate the corresponding atomizing element two or three times consecutively. Under the sensing of the airflow sensor, the controller receives airflow signals (i.e., ventilation frequency commands) from the microphone two or three times consecutively within the preset three-second duration. At this time, the controller automatically switches the power level according to the preset program, such as increasing or decreasing the power level.

[0181] Alternatively, when a single suction session lasts two to four seconds, the controller continuously receives airflow signals (i.e., ventilation duration instructions) for two to four seconds under the sensing of the airflow sensor. At this time, the controller automatically switches the power level according to the preset program, such as increasing the power level.

[0182] Thirdly, embodiments of this application also provide a computer-readable storage medium including program data. When executed by a processor, the program data is used to implement the power regulation control method of the second aspect.

[0183] The above examples illustrate this application only to aid understanding and are not intended to limit its scope. Those skilled in the art to which this application pertains can make various simple deductions, modifications, or substitutions based on the ideas presented.

Claims

1. A method for adjusting the power of an atomizing device, wherein, The power regulation method includes: Receive a first adjustment command and adjust the output power of the first atomizer according to the first adjustment command; Receive a second adjustment command and adjust the output power of the second atomizer according to the second adjustment command; The second atomizer is used to contain a flavor-characteristic matrix.

2. The power regulation method according to claim 1, wherein, The step of adjusting the output power of the second atomizer according to the second adjustment command further includes: The display module displays the current power information of the second atomizer according to the second adjustment command.

3. The power regulation method according to claim 2, wherein, The second atomizer has at least three power levels, and the display module has at least three display units, the number of which is the same as the number of power levels of the second atomizer; The power regulation method further includes: According to the second adjustment command, the power level of the second atomizer is increased or decreased, and the number of lights on the display unit is increased or decreased accordingly.

4. The power regulation method according to claim 2, wherein, The second atomizer has at least three power levels, and the display module has at least three display units, with each of the at least three power levels of the second atomizer corresponding to one of the at least three display units. The power regulation method further includes: The second adjustment command increases or decreases the power level of the second atomizer and illuminates the display corresponding to the power level of the second atomizer.

5. The power regulation method according to any one of claims 1 to 4, wherein, The step of adjusting the output power of the first atomizer according to the first adjustment command includes: The air intake area can be increased or decreased according to the first adjustment command.

6. The power regulation method according to any one of claims 1 to 4, wherein, The step of adjusting the output power of the second atomizer according to the second adjustment command includes: The output power of the second atomizer is increased and the output power of the first atomizer is decreased according to the second adjustment command; or, The second adjustment command reduces the output power of the second atomizer and increases the output power of the first atomizer.

7. The power regulation method according to any one of claims 1 to 4, wherein, The first adjustment command further includes at least one of attitude parameter command and sway frequency parameter command; the power adjustment method further includes: The output power of the first atomizer is adjusted according to at least one of the posture parameter command and the shaking frequency parameter command; And / or, the second adjustment command further includes at least one of attitude parameter command and sway frequency parameter command; the power adjustment method further includes: The output power of the second atomizer is adjusted according to at least one of the attitude parameter command and the oscillation frequency parameter command.

8. The power regulation method according to any one of claims 1 to 4, wherein, The first adjustment command further includes at least one of the ventilation duration command and ventilation frequency command for the first atomizer; the power adjustment method further includes: The output power of the first atomizer is adjusted according to at least one of the ventilation duration command and the ventilation frequency command; And / or, the second adjustment command further includes at least one of the ventilation duration command and ventilation frequency command for the second atomizer; the power adjustment method further includes: The output power of the second atomizer is adjusted according to at least one of the ventilation duration command and the ventilation frequency command.

9. An atomizing device, comprising: First atomizer; Second atomizer; A control component, which is electrically connected to the first atomizer to control the output power of the first atomizer; The control component is electrically connected to the second atomizer to control the output power of the second atomizer; The second atomizer is used to contain a flavor-characteristic matrix.

10. The atomizing device according to claim 9, wherein, The control component includes a first controller and a second controller. The first controller is electrically connected to the first atomizer to control the output power of the first atomizer. The second controller is electrically connected to the second atomizer to control the output power of the second atomizer.

11. The atomizing device according to claim 9, wherein, The flavor matrix contained in the second atomizer does not include the following ingredients: flavorings and nicotine.

12. The atomizing device according to claim 9, wherein, The viscosity of the flavor matrix in the second atomizer is greater than the viscosity of the aerosol matrix in the first atomizer.

13. The atomizing device according to claim 10, wherein, The first controller has multiple settings, at least for adjusting the output power of the first atomizer; The second controller has multiple settings, at least for controlling the second atomizer to be in an on or off state.

14. The atomizing device according to claim 13, wherein, The atomizing device also includes: The housing is provided with an air inlet. An air intake regulator, which is slidably disposed and used to adjust the air intake area of ​​the air intake port; And a sliding adjustment part, the first controller is electrically connected to the sliding adjustment part, the air intake adjustment component is fixedly connected to the sliding adjustment part, and when the air intake adjustment component moves, it drives the sliding adjustment part to switch between at least a first position state and a second position state; When the air intake adjustment component slides to the maximum air intake area of ​​the air intake hole, the sliding adjustment part is in the first position state, and the first controller adjusts the output power of the first atomizer to the maximum level; When the air intake adjustment component slides to the minimum air intake area of ​​the air intake hole, the sliding adjustment part is in the second position state, and the first controller adjusts the output power of the first atomizer to the minimum level.

15. The atomizing device according to claim 9, wherein, The volume of the first atomizer is greater than that of the second atomizer, and the output power of the first atomizer is greater than that of the second atomizer.

16. The atomizing device according to any one of claims 9 to 15, wherein, The atomizing device also includes: The operation unit is a button module, and the second controller is electrically connected to the operation unit for adjusting the output power of the second atomizer; And / or, a display module, wherein the output power of the second atomizer has at least three power levels, and the display module is provided with at least three display sections; the second controller is electrically connected to the display sections and displays the current power level of the second atomizer through the display sections.

17. The atomizing device according to any one of claims 9 to 15, wherein, The atomizing device also includes: An airflow sensor is provided, and the controller assembly is electrically connected to the airflow sensor. The controller assembly is used to control the start-up and shutdown of the first atomizer and the second atomizer.

18. The atomizing device according to claim 10, wherein, At least one of the first controller and the second controller is configured to acquire airflow signals; The airflow signal includes at least one of the airflow duration information and airflow frequency information of the first atomizer.

19. The atomizing device according to any one of claims 10 to 15, wherein, The atomizing device further includes a gravity sensor, and at least one of the first controller and the second controller is electrically connected to the gravity sensor and receives the position signal output by the gravity sensor; The position signal includes at least one of the attitude parameter information and shaking frequency information of the atomizing device.

20. The atomizing device according to claim 19, wherein, The first controller and the second controller are two functional partitions of an integrated chip on the main control circuit board; Alternatively, the main control circuit board may have two integrated chips, one of which is the first controller and the other is the second controller.

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