Atomization device

Abstract

The invention provides an atomization device, and relates to the technical field of electronic atomization, and the atomization device comprises a first liquid storage assembly used for storing a first atomization matrix; the second liquid storage assembly is used for storing a second atomization substrate; the ultrasonic atomization assembly is in liquid path communication with the first liquid storage assembly, and the ultrasonic atomization assembly is used for conducting ultrasonic atomization on the first atomization matrix and generating first aerosol; the heating and atomizing assembly is in liquid path communication with the second liquid storage assembly, and the heating and atomizing assembly is used for heating and atomizing the second atomizing matrix and generating second aerosol. The atomization device can atomize the first atomization matrix and the second atomization matrix with different components, so that aerosol with different fragrance smells and different functions and effects is provided for a user, and the use experience of the user is improved.

Description

Technical Field

[0001] The present application relates to the technical field of electronic atomization, and in particular to an atomization device. Background Art

[0002] The atomizing device heats the atomizing matrix through the atomizing component and generates an aerosol.

[0003] However, different types of atomizers have different tolerances to temperature. In particular, some atomizers containing specific fragrance ingredients or other temperature-sensitive active ingredients are very likely to deteriorate due to high temperatures, and the fragrance ingredients and active ingredients may become gelatinized when directly heated by the atomizer assembly. This not only affects the quality of the generated aerosol, but also causes the atomizer assembly to become gelatinized. Therefore, a single type of atomizer assembly limits the types of atomizers that can be used by the atomizer device and the efficacy of the generated aerosol, affecting the user experience. Summary of the invention

[0004] The present application provides an atomizing device, which solves the technical problem that the atomizing components of the existing atomizing devices are of a single type, which limits the types of atomizing substrates that can be used by the atomizing device and the efficacy of the aerosols produced. The atomizing device of the present application can atomize a first atomizing substrate and a second atomizing substrate of different components respectively, thereby providing users with aerosols with different fragrances, functions and effects, and improving the user experience.

[0005] In some embodiments of the present application, a nebulizer device is provided, comprising: a first liquid storage component for storing a first nebulizer matrix; a second liquid storage component for storing a second nebulizer matrix; an ultrasonic nebulizer component, which forms a liquid circuit connection with the first liquid storage component, and the ultrasonic nebulizer component is used to ultrasonically nebulize the first nebulizer matrix and generate a first aerosol; a heating nebulizer component, which forms a liquid circuit connection with the second liquid storage component, and the heating nebulizer component is used to heat and nebulize the second nebulizer matrix and generate a second aerosol.

[0006] In some embodiments, the first liquid storage component includes at least two first liquid storage spaces, and different first liquid storage spaces are configured to store first atomization matrices of the same or different fragrance scents; wherein the first atomization matrices are configured to provide a preset fragrance scent.

[0007] In some embodiments, the atomization device also includes a shell having an air inlet and an air outlet, and the first liquid storage component includes: a movable part, which is movably connected in the shell and is configured to be movable relative to the shell, and at least two of the first liquid storage spaces are arranged in the movable part.

[0008] In some embodiments, the first liquid storage component also includes: a first liquid guiding member, the first liquid guiding member having a liquid guiding position and a non-liquid guiding position, the first liquid guiding member being configured to be driven by the movable member to switch between the liquid guiding position and the non-liquid guiding position; and, the first liquid guiding member being configured such that, at the liquid guiding position, a liquid path connects the first liquid storage space and the ultrasonic atomization component.

[0009] In some embodiments, the ultrasonic atomization assembly includes: an ultrasonic transducer, which receives voltage to generate high-frequency vibration to atomize the first atomization matrix to produce the first aerosol; wherein different first liquid guides are respectively in contact with the ultrasonic transducer at the liquid guide position.

[0010] In some embodiments, the first liquid storage space includes: a first liquid storage cavity, used to store the first atomization matrix; a receiving groove, connected to the first liquid storage cavity, used to receive the first liquid guiding member; wherein, the first liquid guiding member is partially received in the receiving groove, and the portion of the first liquid guiding member exposed in the receiving groove is configured to abut against the ultrasonic transducer.

[0011] In some embodiments, the ultrasonic transducer is movably connected in the shell and is configured to vibrate in a confined space; the ultrasonic atomization assembly also includes: at least one elastic member, one end of which abuts against at least a portion of the inner wall of the shell and the other end abuts against the ultrasonic transducer, and the elastic member is used to apply an elastic force to the ultrasonic transducer toward the first liquid-guiding member.

[0012] In some embodiments, the ultrasonic transducer has a fog outlet surface, and the fog outlet surface is substantially consistent with the axial direction of the atomization device.

[0013] In some embodiments, the atomization device also includes: a first air tank, disposed in the shell and connecting the air inlet and the air outlet; the ultrasonic transducer is disposed in the first air tank; and the first liquid guiding member in the liquid guiding position abuts against the ultrasonic transducer in the first air tank.

[0014] In some embodiments, the heating atomization component includes: a second liquid guiding component, which is arranged in the shell and forms a liquid path with the second liquid storage component to adsorb the second atomization matrix; a heating component, which is at least partially abutted against the second liquid guiding component, and the heating component is used to atomize the second atomization matrix and generate the second aerosol.

[0015] The atomization device provided by the present application includes a first liquid storage component, a second liquid storage component, an ultrasonic atomization component and a heating atomization component. The first liquid storage component stores a first atomization matrix, and the second liquid storage component stores a second atomization matrix. The ultrasonic atomization component is connected to the first liquid storage chamber to form a liquid path to ultrasonically atomize the first atomization matrix and generate a first aerosol; the heating atomization component is connected to the second liquid storage chamber to heat and atomize the second atomization matrix and generate a second aerosol.

[0016] The atomization device of the present application adopts two atomization forms, namely ultrasonic atomization and heating atomization, so that the first atomization matrix can be set to an atomization matrix that is not suitable for direct heating, such as some atomization matrices containing specific fragrance components and specific active pharmaceutical ingredients, which are atomized by the ultrasonic atomization component when in use and produce a first aerosol with a preset fragrance smell, specific functions and effects; the second atomization matrix can be set to an atomization matrix suitable for direct heating, such as an atomization matrix containing smoke-generating agent components and tobacco components, which are atomized by the heating atomization component when in use and produce a second aerosol with a specific fragrance smell, specific functions and effects. The first aerosol and the second aerosol can be discharged through the air outlet provided on the atomization device, respectively, so that the atomization device can atomize the first atomization matrix and the second atomization matrix of different components, respectively, thereby providing users with aerosols with different fragrance smells, different functions and effects, and improving the user experience. BRIEF DESCRIPTION OF THE DRAWINGS

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

[0018] Figure 1 It is a schematic diagram of the overall structure of one embodiment of the atomization device of the present application;

[0019] Figure 2 yes Figure 1 A schematic diagram of the cross-sectional structure of the atomizing device;

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

[0021] Figure 4 yes Figure 2 A magnified schematic diagram of the local structure at B in the middle;

[0022] Figure 5 This is a schematic diagram of the structural decomposition of the first liquid storage component of one embodiment of the atomization device of the present application;

[0023] Figure 6 This is a schematic diagram of a structure in which an ultrasonic atomization component and a first liquid storage component form a liquid path connected in one embodiment of the atomization device of the present application;

[0024] Figure 7 It is a schematic diagram of the structure of the movable parts of one embodiment of the atomizing device of the present application;

[0025] Figure 8 yes Figure 6 A schematic diagram of the partial structure of the atomization device after the first liquid storage component is hidden;

[0026] Fig. 9 It is a schematic diagram of the structural decomposition of a heating atomizing component of one embodiment of the atomizing device of the present application;

[0027] Fig.10 yes Figure 2 Schematic diagram of the partial cross-sectional structure when the central air intake adjustment member is in the first position.

[0028] The reference numerals are as follows:

[0029] 100-atomization device; XX axial direction, YY axial direction, ZZ axial direction;

[0030] 10-first liquid storage component, 1-central axis, 11-movable member, 111-first liquid storage space, 1111-first liquid storage cavity, 1112-accommodating groove, 112-liquid injection port, 113-plug interface, 114-supporting part, 115-axial hole, 116-sealing groove, 12-first liquid guide member, 13-flexible member, 14-sealing ring, 15-outer casing;

[0031] 20-second liquid storage assembly, 21-second liquid storage space, 22-fixed pipe portion, 23-atomization air guide pipe, 24-liquid storage element;

[0032] 30-ultrasonic atomization component, 31-ultrasonic transducer, 32-elastic member;

[0033] 40-heating atomization assembly, 41-atomization core tube, 411-liquid inlet, 412-air avoidance port, 42-second liquid guide member, 421-main body, 4211-atomization airway, 422-extension portion, 43-heating member;

[0034] 50-shell, 501-connecting port, 502-bottom air inlet, 503-top air inlet, 51-air inlet, 52-air outlet, 521-air outlet pipe, 53-fixed seat, 531-first storage space, 532-second storage space, 54-window, 55-first air chamber, 56-installation cavity, 561-rotating shaft, 57-merging cavity, 571-liquid absorbent cotton, 58-accommodation cabin, 59-second air chamber;

[0035] 60-positioning assembly, 61-positioning groove, 62-positioning elastic member;

[0036] 70-control component; 80-power supply module;

[0037] 90 - air intake adjustment member, 91 - first air vent, 92 - second air vent. DETAILED DESCRIPTION

[0038] The technical solution of the present application is further described in detail below by specific implementation methods in conjunction with the accompanying drawings. In the following implementation methods, many detailed descriptions are intended to enable the present application to be better understood. However, those skilled in the art can easily recognize that some of the features can be omitted in different situations, or can be replaced by their components, materials, and methods. In some cases, some operations related to the present application are not shown or described in the specification, in order to avoid the core part of the present application being overwhelmed by too much description, and for those skilled in the art, it is not necessary to describe these related operations in detail, and they can fully understand the related operations based on the description in the specification and the general technical knowledge in the art.

[0039] To facilitate understanding of the technical solution of the present application, the width direction of the atomization device is defined as the X-axis direction, the thickness direction of the atomization device is defined as the Y-axis direction, and the height direction of the atomization device is defined as the Z-axis direction, and the Z-axis direction is consistent with the gravity direction.

[0040] See also Figure 1 to Figure 2 In some embodiments of the present application, an atomization device 100 is provided, and the atomization device 100 includes a first liquid storage component 10, a second liquid storage component 20, an ultrasonic atomization component 30, and a heating atomization component 40. The first liquid storage component 10 is used to store a first atomization matrix, and the second liquid storage component 20 is used to store a second atomization matrix. The ultrasonic atomization component 30 is connected to the first liquid storage component 10 by a liquid path, and the ultrasonic atomization component 30 is used to ultrasonically atomize the first atomization matrix and generate a first aerosol; the heating atomization component 40 is connected to the second liquid storage component 20 by a liquid path, and the heating atomization component 40 is used to heat and atomize the second atomization matrix and generate a second aerosol.

[0041] Ultrasonic atomization can be performed at room temperature, which avoids the damage of high temperature to the effective ingredients such as medicinal ingredients, fragrance ingredients, and bioactive ingredients in the first atomization matrix that are sensitive to temperature, and also avoids the problem of gelatinization of the first atomization matrix caused by high temperature, ensuring the quality, efficacy and suction taste of the first aerosol produced. In addition, compared with the conventional heating atomization method, ultrasonic atomization can be performed at room temperature, and the temperature of the first aerosol produced is lower than the temperature of the second aerosol produced by the heating atomization method, which will not cause burns to users and is safer to use.

[0042] The heating atomization component 40 quickly atomizes the second atomization matrix by heating to form a second aerosol with relatively larger particles. It is suitable for atomizing high-boiling-point liquids, such as liquid tobacco oil containing smoke agent components and tobacco components. The heating atomization method can make the tobacco oil generate a large amount of smoke in a short time for users to inhale.

[0043] When in use, the ultrasonic atomization component 30 and the heating atomization component 40 can work simultaneously or separately, and this application does not limit this. When the ultrasonic atomization component 30 works alone, only the first aerosol is discharged through the air outlet; when the heating atomization component 40 works alone, only the second aerosol is discharged through the air outlet, so that the atomization device 100 can atomize the first atomization matrix and the second atomization matrix of different components respectively, thereby providing the user with aerosols with different fragrances, functions and effects. When the ultrasonic atomization component 30 and the heating atomization component 40 work simultaneously, the first aerosol and the second aerosol can be discharged through the air outlet after merging, so that the atomization device 100 can atomize the first atomization matrix and the second atomization matrix of different components at the same time, thereby providing the user with a mixed fragrance, multiple functions and effects of aerosols, enriching the taste of the aerosol that the atomization device 100 can provide, and improving the suction taste and user experience.

[0044] The first aerosol and the second aerosol can be configured to be discharged through the air outlet 52 respectively, that is, the first aerosol and the second aerosol are not mixed; the first aerosol and the second aerosol can also be configured to be discharged through the air outlet 52 after merging. The present application does not limit this, as long as it can meet the actual use needs of users.

[0045] See also Figure 3 to Figure 4 In some embodiments of the present application, the first liquid storage component 10 includes at least two first liquid storage spaces 111, and different first liquid storage spaces 111 are configured to store first atomized substrates of the same or different fragrances. The first atomized substrate is configured to provide a preset fragrance.

[0046] The first atomization matrix contains fragrance components of a preset fragrance smell, and these fragrance components are released outward with the first aerosol under the atomization of the ultrasonic atomization component 30, and can provide the user with a preset fragrance smell. When different first liquid storage spaces 111 store first atomization matrices of different fragrance smells, the user can be provided with first aerosols of different preset fragrance smells, enriching the taste selection of the first aerosol and satisfying the user's demand for the use of first aerosols with multiple flavors.

[0047] During actual production and manufacturing, different first liquid storage spaces 111 can store first atomization matrices of the same fragrance, or first atomization matrices of different fragrances. The present application does not limit this, and it is sufficient to meet the actual usage needs of users.

[0048] In the following embodiments, the first atomization substrate is described by taking a fragrance liquid containing a fragrance component as an example, and the second atomization substrate is described by taking a smoke-generating agent and a tobacco component or a tobacco substitute component as an example. The fragrance liquid provides the user with a first aerosol having a preset fragrance, and the tobacco liquid provides the user with a second aerosol having a tobacco component or a tobacco substitute component.

[0049] See also Figure 1 to Figure 2 In some embodiments, the atomization device 100 also includes a shell 50 having an air inlet 51 and an air outlet 52. The shell 50 is arranged along the Z axis, that is, the direction of gravity. The air outlet 52 is preferably arranged at the upper end of the shell 50 in the direction of gravity, and the air inlet 51 is preferably arranged at the lower end of the shell 50 in the direction of gravity.

[0050] The first liquid storage assembly 10, the second liquid storage assembly 20, the ultrasonic atomization assembly 30, and the heating atomization assembly 40 are all arranged in the housing 50. The first liquid storage assembly 10 and the second liquid storage assembly 20 are preferably arranged along the Y axis, and the first liquid storage assembly 10 and the second liquid storage assembly 20 are arranged side by side in the left and right directions along the X axis inside the housing 50.

[0051] See also Figures 2 to 5 The first liquid storage component 10 includes a movable member 11 , which is movably connected in the shell 50 and is configured to be movable relative to the shell 50 . At least two first liquid storage spaces 111 are provided in the movable member 11 .

[0052] The movable member 11 may be configured to rotate relative to the housing 50 , may be configured to translate relative to the housing 50 , or may be configured to move in multiple directions relative to the housing 50 , and this application does not impose any limitation on this.

[0053] When the fragrances of the first atomization substrates stored in different first liquid storage spaces 111 are different, the user can, according to personal taste preferences, drive the movable part 11 to move the first liquid storage space 111 where the first atomization substrate of the required fragrance is located to form a liquid path connection with the ultrasonic atomization component 30, thereby atomizing the first atomization substrate and generating a first aerosol with a preset fragrance, thereby satisfying the user's demand for autonomous switching of multiple flavors of the first aerosol.

[0054] When the fragrance of the first atomization matrix stored in different first liquid storage spaces 111 is the same, the user can, after the first atomization matrix in the current first liquid storage space 111 is consumed, drive the movable part 11 to move, and move the corresponding first liquid storage space 111 storing the first atomization matrix to form a liquid path connection with the ultrasonic atomization assembly 30, thereby continuing to provide the user with the first aerosol with a preset fragrance, satisfying the user's demand for large-capacity use of the first atomization matrix with a specific fragrance.

[0055] See also Figures 2 to 5 In some embodiments, the first liquid storage component 10 further includes a first liquid guide 12, the first liquid guide 12 has a liquid guide position and a non-liquid guide position, and the first liquid guide 12 is configured to be driven by the movable member 11 to switch between the liquid guide position and the non-liquid guide position. Moreover, the first liquid guide 12 is configured such that in the liquid guide position, the liquid path connects the first liquid storage space 111 and the ultrasonic atomization component 30.

[0056] The first liquid guiding member 12 is used to adsorb the first atomization matrix in the first liquid storage space 111 and transfer it to the ultrasonic atomization assembly 30. The number of the first liquid guiding members 12 can be the same as the number of the first liquid storage spaces 111, and each first liquid storage space 111 is connected to a first liquid guiding member 12. The user can switch any first liquid guiding member 12 to the liquid guiding position by driving the movable member 11 to move, so that the first liquid guiding member 12 is connected to the corresponding first liquid storage space 111 and the ultrasonic atomization assembly 30 in the liquid guiding position, thereby atomizing the first atomization matrix adsorbed on the first liquid guiding member 12 through the ultrasonic atomization assembly 30 and generating a first aerosol.

[0057] The number of first liquid guides 12 may also be different from the number of first liquid storage spaces 111, as long as each first liquid storage space 111 can be connected to at least one first liquid guide 12. For example, one first liquid guide 12 may be connected to two or more first liquid storage spaces 111 at the same time, and all first liquid storage spaces 111 connected to the same first liquid guide 12 may store first atomizing matrices with the same fragrance, which can increase the liquid supply of the ultrasonic atomizing assembly 30, and is beneficial to increasing the fragrance concentration of the generated first aerosol. First atomizing matrices with different fragrances may also be stored in all or part of the first liquid storage spaces 111 connected to the same first liquid guide 12, which can provide users with a first aerosol with a mixed fragrance, enriching the inhalation taste of the first aerosol.

[0058] In the following embodiments, the movable member 11 is configured to be able to rotate around its own central axis 1 (such as Figure 5 The movable member 11 rotates to switch the liquid-conducting position and the non-liquid-conducting position of the first liquid-conducting member 12 through the rotation.

[0059] See also Figure 3 and Figure 6 In some embodiments, the ultrasonic atomization assembly 30 includes an ultrasonic transducer 31, which receives a voltage to generate high-frequency vibrations to atomize the first atomization matrix to generate a first aerosol.

[0060] The different first liquid guiding members 12 are respectively in contact with the ultrasonic transducer 31 at the liquid guiding positions.

[0061] The ultrasonic transducer 31 utilizes the piezoelectric effect to convert the high-frequency oscillating excitation voltage signal into its own high-frequency vibration. This high-frequency vibration propagates in gaseous, solid, liquid and other media to form ultrasonic waves. The ultrasonic atomization assembly 30 utilizes the high-frequency vibration of the ultrasonic transducer 31 and the ultrasonic waves generated to atomize the first atomization matrix on the first liquid guide 12 abutting against the ultrasonic transducer 31 at room temperature without destroying the fragrance components and other effective components in the first atomization matrix.

[0062] In some embodiments, the number of ultrasonic transducers 31 can be one, and the user can rotate the first liquid guiding member 12 corresponding to any first liquid storage space 111 to the liquid guiding position and abut against the ultrasonic transducer 31 by rotating the movable member 11, so as to atomize the first atomization matrix on the first liquid guiding member 12 in the liquid guiding position through the ultrasonic transducer 31, thereby providing the user with a first aerosol with a preset fragrance.

[0063] In some other embodiments, the number of ultrasonic transducers 31 may be two or more. Multiple ultrasonic transducers 31 may be configured to abut against the same first liquid guiding member 12 in the liquid guiding position. Multiple ultrasonic transducers 31 operate simultaneously, which can quickly atomize the first atomization matrix on the first liquid guiding member 12, and can significantly improve the efficiency of generating the first aerosol. Multiple ultrasonic transducers 31 may also be configured to abut against one of the first liquid guiding members 12, respectively, and multiple ultrasonic transducers 31 operate separately. In this way, the ultrasonic transducer 31 that is not in operation can be used as a backup. When one of the ultrasonic transducers 31 fails, other ultrasonic transducers 31 are enabled to work to ensure the normal operation of the atomization device 100.

[0064] See also Figure 3 , Figure 4 and Figure 7 In some embodiments, the first liquid storage space 111 includes a first liquid storage cavity 1111 and a receiving groove 1112 . The first liquid storage cavity 1111 is used to store the first atomized matrix. The receiving groove 1112 is connected to the first liquid storage cavity 1111 and is used to receive the first liquid guide 12 .

[0065] The first liquid guiding member 12 is partially received in the receiving groove 1112 and partially exposed from the receiving groove 1112 . The portion of the first liquid guiding member 12 exposed from the receiving groove 1112 is configured to abut against the ultrasonic transducer 31 .

[0066] The first liquid storage space 111 stores the first atomizing matrix through the first liquid storage cavity 1111, and accommodates the first liquid guide member 12 through the accommodating groove 1112. The first liquid storage cavity 1111 is connected with the accommodating groove 1112, so that the first atomizing matrix can flow from the first liquid storage cavity 1111 into the accommodating groove 1112 and be adsorbed on the first liquid guide member 12. The first liquid guide member 12 can adsorb a certain amount of the first atomizing matrix. Compared with the method of directly accommodating the first liquid guide member 12 in the first liquid storage cavity 1111, the double-cavity structure design of the first liquid storage space 111 increases the liquid storage space, significantly increases the liquid storage capacity of the first liquid storage space 111, and meets the long-term use requirements of the first atomizing matrix in the first liquid storage component 10.

[0067] The receiving groove 1112 in the first liquid storage space 111 is connected to the lower end of the first liquid storage cavity 1111 in the direction of gravity, so that the first atomization matrix in the first liquid storage cavity 1111 can automatically flow into the receiving groove 1112 under the action of gravity and be adsorbed by the corresponding first liquid guide member 12. The first liquid guide member 12 is partially accommodated in the receiving groove 1112 and partially exposed in the receiving groove 1112, so that the first liquid guide member 12 can be fixed by the movable member 11, and the movable member 11 provides support for the liquid guide member to ensure that when the movable member 11 rotates any first liquid guide member 12 to the liquid guide position, the first liquid guide member 12 can stably and reliably abut against the ultrasonic transducer 31 to ensure the atomization effect.

[0068] See also Figure 5 and Figure 7 In some embodiments, the movable part 11 is configured as a columnar structure extending along the Z-axis direction, that is, extending in the direction of gravity. The movable part 11 is provided with six first liquid storage spaces 111 circumferentially evenly distributed around the central axis 1. Each time the movable part 11 rotates 60° around the central axis 1, it can switch the first liquid storage space 111 that is liquid-connected with the ultrasonic atomization assembly 30.

[0069] The accommodating groove 1112 of the first liquid storage space 111 and the first liquid storage cavity 1111 are arranged in an inner and outer corresponding manner along the radial direction of the movable member 11, so that the accommodating groove 1112 is arranged close to the central axis 1 of the movable member 11, and the first liquid storage cavity 1111 is arranged close to the outer wall of the movable member 11. The outer wall surface of the movable member 11 can be set as a transparent structure, so that the user can observe from the outside and timely understand the storage amount of the first atomized substrate in each first liquid storage cavity 1111.

[0070] The ultrasonic transducer 31 is preferably disposed at the upper end of the movable part 11 in the direction of gravity, and abuts against the first liquid guiding part 12 in the liquid guiding position from the outside, so as to prevent the first atomized matrix adsorbed on the first liquid guiding part 12 from easily leaking out under the action of gravity.

[0071] See also Figure 4 , Figure 5 and Figure 7 In some embodiments, the first liquid storage cavity 1111 and the receiving groove 1112 of each first liquid storage space 111 penetrate the bottom surface of the movable member 11 and form a liquid injection port 112 (such as Figure 7 As shown in FIG. 1 , the first liquid storage chamber 1111 and the accommodating groove 1112 are connected at a position close to the liquid injection port 112 .

[0072] Accordingly, the first liquid storage assembly 10 further includes a flexible member 13 , which is disposed at the bottom of the movable member 11 and closes the liquid injection port 112 .

[0073] After the first atomization matrix in the first liquid storage chamber 1111 is consumed, the user can manually remove the flexible member 13, and then replenish the first atomization matrix into the corresponding first liquid storage chamber 1111 through the liquid injection port 112, thereby realizing the recycling of the first liquid storage component 10, extending the service life of the atomization device 100, and saving the user's usage cost.

[0074] See also Figure 5 and Figure 6 In some embodiments, the receiving groove 1112 of the first liquid storage space 111 axially penetrates the top surface of the movable member 11 and forms an insertion port 113, and the first liquid guiding member 12 can be detachably plugged and fixed in the corresponding receiving groove 1112 through the insertion port 113. The length of the first liquid guiding member 12 is greater than the depth of the receiving groove 1112, so that after being plugged and fixed, a portion of the first liquid guiding member 12 is exposed in the receiving groove 1112, so that the first liquid guiding member 12 in the liquid guiding position can abut against the ultrasonic transducer 31 through its portion exposed in the receiving groove 1112.

[0075] A support portion 114 extending along the central axis 1 is provided at the center of the top surface of the movable part 11, and the upper end of each first liquid guiding part 12 exposed in the accommodating groove 1112 is at least partially abutted against the support portion 114, thereby providing a supporting force along the radial direction of the movable part 11 for each first liquid guiding part 12 through the support portion 114, ensuring that when the movable part 11 rotates the first liquid guiding part 12 corresponding to any first liquid storage space 111 to the liquid guiding position, the ultrasonic transducer 31 can be tightly abutted against the first liquid guiding part 12 in the liquid guiding position from the outside along the radial direction of the movable part 11, thereby ensuring a reliable connection between the ultrasonic transducer 31 and the first liquid guiding part 12.

[0076] See also Figure 3 and Figure 6 In some embodiments, the ultrasonic transducer 31 is movably connected in the housing 50 and configured to vibrate in a confined space.

[0077] The ultrasonic atomization assembly 30 also includes at least one elastic member 32, one end of the elastic member 32 abuts against at least part of the inner wall of the shell 50, and the other end of the elastic member 32 abuts against the ultrasonic transducer 31, and the elastic member 32 is configured to apply an elastic force toward the first liquid guiding member 12 to the ultrasonic transducer 31.

[0078] The atomization device 100 provided in the present application flexibly connects the ultrasonic transducer 31 to the housing 50 , which does not limit the vibration of the ultrasonic transducer 31 and can provide sufficient spatial tolerance for the vibration of the ultrasonic transducer 31 .

[0079] When the ultrasonic transducer 31 vibrates, position displacement may occur. If this position displacement is not corrected in time, it may cause the ultrasonic transducer 31 to separate from the first liquid-conducting member 12, thereby seriously affecting the atomization effect. To solve this problem, the present application flexibly connects the ultrasonic transducer 31 to the housing 50 through at least one elastic member 32, and applies an elastic force toward the first liquid-conducting member 12 in the liquid-conducting position to the ultrasonic transducer 31 through the elastic member 32, so as to ensure that the ultrasonic transducer 31 can always elastically abut against the first liquid-conducting member 12 during operation, and realize adaptive correction of the position displacement of the ultrasonic transducer 31 through the elastic force applied by the elastic member 32, thereby ensuring the atomization effect of the ultrasonic atomization assembly 30 for the first atomization matrix.

[0080] See also Figure 2 In some embodiments, the ultrasonic transducer 31 has a fog outlet surface, and the axial direction of the fog outlet surface and the atomization device 100 are substantially consistent.

[0081] The ultrasonic transducer 31 can be set as a sheet structure, having an atomizing surface and a fog outlet surface opposite to each other, wherein the atomizing surface is arranged toward the movable member 11, and the fog outlet surface is arranged away from the movable member 11. The ultrasonic transducer 31 abuts against the first liquid guide member 12 in the liquid guide position through its atomizing surface, atomizes the first atomizing matrix adsorbed on the first liquid guide member 12 by high-frequency vibration, and generates a first aerosol, and the generated first aerosol is ejected outward from the fog outlet surface and finally discharged from the air outlet 52.

[0082] See also Figure 6 and Figure 8In some embodiments, a fixing seat 53 is provided in the housing 50 and is located outside the upper end in the gravity direction of the movable member 11. A first receiving space 531 is provided on a side of the fixing seat 53 close to the movable member 11. The ultrasonic transducer 31 is movably connected in the first receiving space 531 and is configured to be reciprocatingly movable in the radial direction of the movable member 11 within the range of the first receiving space 531. At least part of the end of the first receiving space 531 facing the movable member 11 is an open space, so that the atomization surface of the ultrasonic transducer 31 can abut against the first liquid guiding member 12 in the liquid guiding position through the open space.

[0083] A second receiving space 532 is provided at one end of the fixed seat 53 away from the movable member 11. The second receiving space 532 extends in the radial direction of the movable member 11 and is connected to the first receiving space 531. The elastic member 32 is movably connected in the second receiving space 532 in the radial direction of the movable member 11, so that one end of the elastic member 32 abuts against the inner wall surface of the fixed seat 53 away from the movable member 11, and the other end of the elastic member 32 abuts against the ultrasonic transducer 31. The elastic member 32 can be a compression spring, which can apply an elastic force toward the first liquid guide member 12 to the ultrasonic transducer 31, automatically drive the ultrasonic transducer 31 to elastically abut against the first liquid guide member 12 in the liquid guide position, and realize adaptive correction of the position deviation of the ultrasonic transducer 31, with low cost and high reliability.

[0084] See also Figure 6 and Figure 8 In some embodiments, the atomization device 100 further includes a window 54, which is disposed on the shell 50 and configured to expose the movable part 11 at least partially outside the shell 50, so that the movable part 11 can be rotated around the central axis 1 through the window 54, and the first liquid guiding part 12 corresponding to any first liquid storage space 111 can be rotated to abut against the ultrasonic transducer 31, so as to facilitate the user to switch the flavor of the generated first aerosol.

[0085] See also Figure 3 and Figure 4 In some embodiments, the atomizing device 100 further includes a positioning assembly 60, which is disposed between the movable member 11 and the housing 50 and is configured to limit the rotation of the movable member 11. The positioning assembly 60 includes at least two positioning grooves 61 and at least one positioning elastic member 62, wherein the positioning grooves 61 are respectively disposed corresponding to the first liquid storage space 111, and the positioning elastic member 62 is configured to be engaged with the positioning grooves 61.

[0086] Among them, when the first liquid guiding member 12 rotates to the liquid guiding position driven by the movable member 11, the positioning elastic member 62 is at least partially elastically engaged with the corresponding positioning groove 61 to limit the rotation of the movable member 11, thereby realizing the positioning of the movable member 11, avoiding the problem that the first liquid guiding member 12 cannot accurately abut against the ultrasonic transducer 31 due to insufficient or excessive rotation angle of the movable member 11, and avoiding the problem that the movable member 11 is easily rotated due to external force interference during use, thereby causing the flavor of the generated first aerosol to be switched.

[0087] In some embodiments, the atomization device 100 further includes a first airflow channel (not labeled) and a second airflow channel (not labeled), wherein the first airflow channel communicates with the air inlet 51 and the air outlet 52, and is configured for airflow to pass through and for the ultrasonic atomization assembly 30 to form an air path communication with the air inlet 51 and the air outlet 52. The first aerosol is generated in the first airflow channel, and the first aerosol is brought out by the airflow in the first airflow channel, which facilitates the discharge of the first aerosol and ensures the continuous supply of the first aerosol.

[0088] The second airflow channel connects the air inlet 51 and the air outlet 52, and is configured for airflow to pass through and connect the heating atomization assembly 40 with the air inlet 51 and the air outlet 52. The second aerosol is generated in the second airflow channel, and the second aerosol is brought out by the airflow in the second airflow channel.

[0089] During use, the user draws in air through the mouth of the shell 50 to generate negative pressure inside the shell 50. After the air outside the shell 50 enters through the air inlet 51, part of it flows to the first air flow channel, and the first aerosol generated by ultrasonic atomization is discharged from the air outlet 52 in the form of air flow; part of it flows to the second air flow channel, and the second aerosol generated by heated atomization is discharged from the air outlet 52 in the form of air flow.

[0090] See also Figure 2 , Figure 3 and Figure 6 In some embodiments, the atomizing device 100 further includes a first air chamber 55, which is disposed in the housing 50 and communicates with the air inlet 51 and the air outlet 52. The internal space of the first air chamber 55 constitutes a part of the first air flow channel. The ultrasonic transducer 31 is disposed in the first air chamber 55. The first liquid guiding member 12 in the liquid guiding position abuts against the ultrasonic transducer 31 in the first air chamber 55.

[0091] During use, air outside the shell 50 enters the shell 50 through the air inlet 51, brings out the first aerosol generated in the first air chamber 55 when flowing through the first air chamber 55, and is finally discharged from the air outlet 52 for inhalation by the user.

[0092] The first aerosol generated by the ultrasonic transducer 31 atomizing the first atomizing substrate can be gathered in the first air chamber 55, thereby increasing the concentration of the fragrance in the first aerosol and ensuring the inhalation taste. In addition, the first air chamber 55 also provides an accommodation space for the ultrasonic transducer 31, which is conducive to the intensive and miniaturized design of the atomization device 100.

[0093] See also Figure 4 and Figure 8 In some embodiments, the atomization device 100 further includes a mounting cavity 56 , which is disposed in the housing 50 and connects the air inlet 51 with the first air chamber 55 , and the internal space of the mounting cavity 56 constitutes a part of the first air flow channel.

[0094] The movable member 11 is at least partially movable in the mounting cavity 56 and at least partially movable in the first air chamber 55 .

[0095] In some embodiments, the first air chamber 55 is located at the upper end of the installation cavity 56 in the direction of gravity, and a connecting port 501 is provided between the two. The upper end of the movable part 11 extends into the first air chamber 55 through the connecting port 501, and the upper end of the first liquid guiding part 12 exposed in the accommodating groove 1112 can abut against the ultrasonic transducer 31 in the first air chamber 55.

[0096] See also Figure 3 and Figure 5 , the first liquid storage component 10 further includes a sealing ring 14. Accordingly, a sealing groove 116 is arranged around the upper end periphery of the movable part 11 corresponding to the communication port 501, and the sealing ring 14 is sleeved in the sealing groove 116. After the first liquid storage component 10 is assembled in the housing 50, the sealing ring 14 is sealed and clamped between the upper end of the movable part 11 and the communication port 501, and is used to seal the gap between the movable part 11 and the communication port 501, so as to prevent the first aerosol in the first gas chamber 55 from leaking into the installation cavity 56 from the gap between the two.

[0097] See also Figure 4 , Figure 7 and Figure 8 In some embodiments, a rotating shaft 561 arranged along the Z-axis is provided on the bottom surface of the installation cavity 56, and the rotating shaft 561 is arranged coaxially with the communication port 501. In coordination, an axial hole 115 arranged along the central axis 1 is provided at the bottom of the movable member 11, and the movable member 11 is rotatably connected to the rotating shaft 561 through the axial hole 115, so that the movable member 11 can rotate around the central axis 1 relative to the housing 50.

[0098] See also Figure 6 and Figure 8 The window 54 connects the external space of the housing 50 with the installation cavity 56 , so that the user can move the movable part 11 in the installation cavity 56 through the window 54 .

[0099] The first liquid storage assembly 10 further includes an outer shell 15, which is fixedly mounted on the movable member 11 and at least partially exposed from the window 54. The outer shell 15 is preferably made of silicone material with a large friction coefficient, so that the user can easily move the movable member 11 through the outer shell 15.

[0100] See also Figure 8 The bottom of the installation cavity 56 is provided with a bottom air inlet 502, which connects the air inlet 51 with the installation cavity 56, so that the air outside the housing 50 can enter the installation cavity 56 through the air inlet 51 and the bottom air inlet 502. The top of the installation cavity 56 is provided with a top air inlet 503, which connects the installation cavity 56 with the first air chamber 55, so that the air inside the installation cavity 56 can enter the first air chamber 55 through the top air inlet 503.

[0101] See also Figure 2 , Figure 3 , Figure 6 and Figure 8 In some embodiments, the atomization device 100 further includes a merging chamber 57 , which is disposed in the housing 50 and connects the air outlet 52 with the air outlet end of the first air flow channel and the air outlet end of the second air flow channel.

[0102] The atomizing device 100 of the present application connects the air outlet 52 with the air outlet end of the first airflow channel and the air outlet end of the second airflow channel through the merging chamber 57, so that the first aerosol generated in the first airflow channel and the second aerosol generated in the second airflow channel can be merged and mixed in the merging chamber 57 before being discharged, thereby playing the role of mixing the first aerosol and the second aerosol, ensuring that the taste of the discharged mixed aerosol is uniform and consistent, and improving the user experience.

[0103] See also Figure 2 In some embodiments, the merging chamber 57 is provided with a liquid absorbent cotton 571, which can absorb large particle droplets in the first aerosol and the second aerosol, preventing the large particle droplets from being discharged from the air outlet 52 and inhaled by the user, thereby ensuring the suction taste of the discharged aerosol. In addition, the liquid absorbent cotton 571 can also cool the second aerosol to a certain extent, preventing the second aerosol generated by heating and atomization from being burned by the user at high temperature.

[0104] See also Figure 2 , Figure 3 , Figure 6 and Figure 8In some embodiments, the first gas chamber 55 is connected to the merging chamber 57, so that the first aerosol generated in the first gas chamber 55 can enter the merging chamber 57 driven by the airflow and finally be discharged from the air outlet 52. The connection between the merging chamber 57 and the first gas chamber 55 constitutes the air outlet end of the first airflow channel.

[0105] See also Figure 2 , Figure 4 and Fig. 9 In some embodiments, the heated atomization assembly 40 includes a second liquid guide 42 and a heating element 43. The second liquid guide 42 is disposed in the housing 50 and is in fluid communication with the second liquid storage assembly 20 to adsorb the second atomization matrix. The heating element 43 is at least partially in contact with the second liquid guide 42, and is used to atomize the second atomization matrix and generate a second aerosol.

[0106] In some embodiments, an atomizing air channel 4211 is provided on the second liquid guiding member 42 along the Z-axis direction, and the atomizing air channel 4211 constitutes a part of the second air flow channel. The air inlet end of the atomizing air channel 4211 is connected to the air inlet 51, and the air outlet end of the atomizing air channel 4211 is connected to the confluence cavity 57, so that the second liquid guiding member 42 can form an air path connection with the air inlet 51 and the air outlet 52 through the atomizing air channel 4211.

[0107] The heating element 43 is accommodated in the atomizing airway 4211, and at least partially abuts against the inner wall surface of the second liquid guiding element 42. When in use, the second liquid guiding element 42 absorbs the second atomizing matrix in the second liquid storage assembly 20 through its outer wall surface, and transmits the atomizing matrix to its inner wall surface, so that the heating element 43 heats and atomizes and generates a second aerosol in the atomizing airway 4211. The generated second aerosol enters the confluence cavity 57 driven by the airflow in the second airflow channel, and is finally discharged from the air outlet 52.

[0108] The second liquid guiding member 42 can be made of fiber cotton or porous ceramic material, which is not limited in the present application and can be configured accordingly according to user requirements.

[0109] The heating element 43 can be configured to include one or more heating meshes, and the heating meshes are in contact with the inner wall surface of the second liquid guide 42 to ensure the atomization effect. The multiple heating meshes can be configured to heat simultaneously, alternately, or sequentially to adapt to different working modes of the atomization device 100 and bring different atomization effects.

[0110] See also Figure 2 In some embodiments, the atomization device 100 further includes a control component 70 and a power supply module 80. The control component 70 is disposed in the shell 50 and is electrically connected to the heating element 43 and the ultrasonic atomization component 30, respectively, and is configured to control the operation of the heating element 43 and the ultrasonic atomization component 30.

[0111] The power supply module 80 is disposed in the housing 50 and is electrically connected to the control component 70 , the heating element 43 , and the ultrasonic atomization component 30 , respectively, and is configured to supply power to the atomization device 100 .

[0112] The control component 70 can switch different working modes of the ultrasonic atomization component 30 and the heating atomization component 40 by changing the operating power of the heating element 43 and the ultrasonic transducer 31 to achieve different atomization effects. The power supply module 80 is used to provide power support for the entire atomization device 100 to ensure that the device can obtain a continuous and stable energy supply during operation, thereby ensuring the stability and reliability of the atomization effect.

[0113] At least one heating atomization assembly 40 is provided and accommodated in the corresponding second liquid storage space 21, so that the second liquid guide 42 is in liquid communication with the corresponding second liquid storage space 21. The number of heating atomization assemblies 40 is matched with the number of second liquid storage spaces 21, so that the second atomization matrix in the corresponding second liquid storage space 21 is atomized by the heating atomization assembly 40 and a second aerosol is generated.

[0114] The second liquid storage space 21 can be provided with one or more, and the present application does not limit this, as long as it can meet the use needs of the user. The more the second liquid storage space 21 is provided, the greater the storage capacity of the second atomization matrix is, and the longer the use time of the second atomization matrix is.

[0115] See also Figure 2 and Figure 4 In some embodiments, the second liquid storage component 20 includes a second liquid storage space 21, which is formed inside the shell 50 and is located on one side of the mounting cavity 56, so that the first liquid storage component 10 and the second liquid storage component 20 are arranged side by side in the X-axis direction.

[0116] The heating atomization assembly 40 is provided with a container which is received in the second liquid storage space 21 and is in fluid communication with the second liquid storage space 21 , so that the second atomization matrix can be transferred to the heating atomization assembly 40 .

[0117] The atomization device 100 also includes a storage chamber 58 and a second gas chamber 59 disposed in the shell 50. The storage chamber 58 is located at the lower end of the weight direction of the first liquid storage component 10 and the second liquid storage component 20. The control component 70 and the power supply module 80 are disposed in the storage chamber 58.

[0118] The air inlet 51 is disposed at the bottom of the shell 50 and connects the accommodating chamber 58 with the external space of the shell 50 , so that air outside the shell 50 can enter the accommodating chamber 58 through the air inlet 51 .

[0119] The accommodating chamber 58 is connected to the installation cavity 56 through the bottom air inlet hole 502, so that part of the air in the accommodating chamber 58 can be diverted to the installation cavity 56 through the bottom air inlet hole 502, and then enter the first air chamber 55 through the top air inlet hole 503, so that the ultrasonic atomization assembly 30 can form an air path connection with the air inlet 51 and the air outlet 52.

[0120] The second air storage tank 59 is located at the lower end of the second liquid storage space 21 , and the second air storage tank 59 connects the accommodating chamber 58 and the atomizing air passage 4211 , so that part of the air in the accommodating chamber 58 can be diverted to the atomizing air passage 4211 through the second air storage tank 59 .

[0121] See also Figure 3 and Figure 4 In some embodiments, the second liquid storage component 20 also includes a fixed tube portion 22 at the bottom of the second liquid storage space 21, the fixed tube portion 22 is coaxially arranged with the air outlet 52, and the lower end of the fixed tube portion 22 is connected to the second air tank 59 to allow the airflow in the second air tank 59 to enter the fixed tube portion 22.

[0122] The heating atomization assembly 40 includes an atomization core tube 41, which extends along the Z-axis direction and is arranged in the second liquid storage space 21. The lower end of the atomization core tube 41 is plugged and fixed on the fixed pipe portion 22 so that the airflow in the second air chamber 59 can enter the atomization core tube 41 through the fixed pipe portion 22.

[0123] The second liquid storage assembly 20 also includes an atomizing air guide tube 23 in the second liquid storage space 21, the atomizing air guide tube 23 extends along the Z axis, the lower end of the atomizing air guide tube 23 is plugged and fixed to the upper end of the atomizing core tube 41, and the upper end of the atomizing air guide tube 23 is connected to the confluence cavity 57. The inner cavity of the fixed tube portion 22, the inner cavity of the atomizing core tube 41, the atomizing air channel 4211, and the inner cavity of the atomizing air guide tube 23 all constitute a part of the second air flow channel, so that the air flow flows from the second air storage 59 to the confluence cavity 57. The connection between the atomizing air guide tube 23 and the confluence cavity 57 constitutes the air outlet end of the second air flow channel.

[0124] See also Fig. 9 At least one liquid inlet 411 is provided through the lower tube wall of the atomizing core tube 41 , so that the second liquid storage space 21 and the inner cavity of the atomizing core tube 41 are connected through the liquid inlet 411 .

[0125] The second liquid guide member 42 is disposed in the inner cavity of the atomizing core tube 41, and the second liquid guide member 42 at least partially blocks the liquid inlet 411, so that the second liquid guide member 42 can adsorb the second atomizing matrix through the liquid inlet 411. The atomizing airway 4211 is connected to the second air storage 59 and the merging cavity 57 through the inner cavity of the atomizing core tube 41 and the atomizing air guide tube 23.

[0126] See also Figure 2The atomizing device 100 further includes an air outlet pipe 521 arranged along the Z-axis direction. The air outlet pipe 521 is located in the shell 50 and extends from the air outlet 52 to the merging cavity 57 to connect the merging cavity 57 with the external space of the shell 50 through the air outlet 52, so that the airflow in the merging cavity 57 can be discharged from the atomizing device 100.

[0127] See also Figures 2 to 4 In some embodiments, the second liquid storage component 20 further includes at least one liquid storage element 24, which is accommodated in the corresponding second liquid storage space 21 and is used to adsorb the second atomized matrix. The liquid storage element 24 is configured to form a liquid path connection with the corresponding second liquid guide 42.

[0128] The number of the liquid storage elements 24 preferably matches the number of the second liquid storage spaces 21 , that is, one liquid storage element 24 is provided in each second liquid storage space 21 .

[0129] The liquid storage element 24 can be made of a porous material with good liquid absorption effect, filled in the second liquid storage space 21 and wrapped in the heating atomization assembly 40, so that the liquid storage element 24 can form a liquid path connection with the second liquid guide 42 accommodated in the atomization core tube 41 through the liquid inlet 411. Compared with the method of directly filling the liquid second atomization matrix into the second liquid storage space 21, the liquid storage element 24 absorbs the second atomization matrix, which can significantly reduce the risk of leakage of the second liquid storage space 21 and improve the user experience.

[0130] See also Fig. 9 In some embodiments, the second liquid guide member 42 includes a main body 421 extending along the Z axis and an extension 422 extending along the Y axis, the atomizing airway 4211 passes through the axis of the main body 421, the extension 422 is radially connected to the main body 421, and the extension 422 at least partially extends out of the atomizing core tube 41 and is inserted into the liquid storage element 24. When in use, the extension can be used as an intermediate connection medium to enable the liquid storage element 24 to form a stable and reliable liquid path connection with the main body 421, ensuring continuous and smooth liquid supply of the heating atomizing assembly 40.

[0131] Correspondingly, a clearance hole 412 for the extension portion 422 to extend out is further provided on the tube wall of the atomizer core tube 41, and the axial upper end of the clearance hole 412 extends to the upper end opening penetrating through the atomizer core tube 41, so as to facilitate the main body 421 of the second liquid guiding member 42 to be axially inserted and fixed into the atomizer core tube 41 from top to bottom, and enable the extension portion 422 to extend into the second liquid storage space 21 through the clearance hole.

[0132] In some embodiments, the second liquid storage assembly 20 includes at least two second liquid storage spaces 21, the second atomization matrix is ​​configured to provide a preset fragrance smell, and different second liquid storage spaces 21 are configured to store second atomization matrices of the same or different fragrance smells.

[0133] When the second liquid storage component 20 has a plurality of second liquid storage spaces 21, a heating atomization component 40 is provided in each second liquid storage space 21 to atomize the second atomization matrix in the corresponding second liquid storage space 21. In actual production, different second liquid storage spaces 21 may store second atomization matrices of the same fragrance or second atomization matrices of different fragrances, and this application does not limit this, as long as it can meet the actual use needs of users.

[0134] When in use, the control component 70 can be used to control the specific heating atomization component 40 to work independently, so as to atomize the second atomization matrix in the corresponding second liquid storage space 21, and provide the user with a second aerosol with a specific fragrance.

[0135] See also Figure 2 , Fig.10 In some embodiments, the atomization device 100 further includes an air intake adjustment member 90 , which connects the air intake port 51 and the accommodating chamber 58 and is configured to adjust the air intake volume of the air intake port 51 .

[0136] In some embodiments, the air inlet adjustment member 90 is movably connected in the accommodation chamber 58 and at least partially closes the air inlet 51. The air inlet adjustment member 90 is configured to be able to reciprocate left and right along the X-axis between a first position and a second position within the opening range of the air inlet 51. The first position is taken as an example of the position where the adjustment member 90 is moved to the right end of the air inlet 51, and the second position is taken as an example of the position where the adjustment member 90 is moved to the left end of the air inlet 51.

[0137] A first vent hole 91 and a second vent hole 92 are formed through the left and right ends of the air intake adjusting member 90 .

[0138] See also Fig.10 When the air intake adjustment member 90 is in the first position, the first air vent 91 moves to the opening range of the air inlet 51. At this time, the second air vent 92 is blocked by the inner wall of the shell 50 on the right side of the air inlet 51. The air outside the shell 50 enters the accommodating chamber 58 through the first through hole, and is then diverted to the first air flow channel and the second air flow channel.

[0139] When the air intake adjustment member 90 is in the second position, the second air vent 92 moves to the opening range of the air inlet 51. At this time, the first air vent 91 is blocked by the inner wall of the shell 50 on the left side of the air inlet 51. The air outside the shell 50 enters the accommodating compartment 58 through the second through hole, and is then diverted to the first air flow channel and the second air flow channel.

[0140] When the air intake adjustment member 90 is in the middle position between the first position and the second position, the first air vent 91 and the second air vent 92 move together to the opening range of the air inlet 51, and the external air of the shell 50 enters the accommodating compartment 58 through the first air vent 91 and the second air vent 92, and is then diverted to the first air flow channel and the second air flow channel.

[0141] When the air intake adjustment member 90 is in the middle position, the first air vent 91 and the second air vent 92 take in air at the same time. At this time, the total air intake in the accommodating chamber 58 is the largest, and the air volume diverted to the first air flow channel and the second air flow channel is also the largest. It is suitable for air intake when the atomizing device 100 is operating under lung inhalation conditions. At this time, the heating element 43 and the ultrasonic transducer 31 can be configured to operate in maximum power mode to increase the amount of aerosol generated.

[0142] When the air intake adjustment member 90 is in the first position or the second position, air is taken in from one of the first air vent 91 and the second air vent 92. At this time, the total air intake in the accommodating chamber 58 is relatively smaller, and the airflow diverted to the first air flow channel and the second air flow channel is also relatively smaller, which is suitable for the atomization device 100 to take in air under mouth-inhalation conditions. At this time, the heating element 43 and the ultrasonic transducer 31 can be configured to operate in a low-power mode to reduce the amount of aerosol generated.

[0143] The air intake amounts of the first air vent 91 and the second air vent 92 can be set to be different, so that when the air intake adjustment member 90 is in the first position and the second position, the atomization device 100 has different air intake amounts to adapt to different working modes of the heating element 43 and the ultrasonic transducer 31.

[0144] The above specific examples are used to illustrate the technical solution of this application, which is only used to help understand the content of this application and is not intended to limit this application. For technicians in the technical field to which this application belongs, they can also make some simple deductions, deformations or substitutions based on the ideas of this application.

Claims

1. An atomizing device, characterized in that: include: A first liquid storage component, used for storing a first atomized matrix; A second liquid storage component, used for storing a second atomized matrix; An ultrasonic atomization component, which is in fluid communication with the first liquid storage component, and is used for ultrasonically atomizing the first atomization matrix and generating a first aerosol; The heating atomization component is in liquid communication with the second liquid storage component, and the heating atomization component is used to heat and atomize the second atomization matrix and generate a second aerosol.

2. The atomizing device according to claim 1, characterized in that The first liquid storage component comprises at least two first liquid storage spaces, and different first liquid storage spaces are configured to store first atomized substrates of the same or different fragrances; Wherein, the first atomization matrix is ​​configured to provide a preset fragrance smell.

3. The atomizing device according to claim 2, characterized in that The atomizing device further comprises a housing having an air inlet and an air outlet, and the first liquid storage assembly comprises: A movable member is movably connected in the shell and is configured to be movable relative to the shell, and at least two of the first liquid storage spaces are arranged in the movable member.

4. The atomizing device according to claim 3, characterized in that The first liquid storage component also includes: a first liquid-conducting member, the first liquid-conducting member having a liquid-conducting position and a non-liquid-conducting position, the first liquid-conducting member being configured to be driven by the movable member to switch between the liquid-conducting position and the non-liquid-conducting position; Furthermore, the first liquid guiding member is configured such that, at the liquid guiding position, a liquid path connects the first liquid storage space and the ultrasonic atomization assembly.

5. The atomizing device according to claim 4, characterized in that: The ultrasonic atomization component comprises: An ultrasonic transducer, wherein the ultrasonic transducer receives a voltage and generates high-frequency vibration to atomize the first atomization matrix to generate the first aerosol; Wherein, different first liquid guiding members are respectively in contact with the ultrasonic transducer at the liquid guiding position.

6. The atomizing device according to claim 5, characterized in that The first liquid storage space comprises: A first liquid storage chamber, used for storing the first atomized matrix; an accommodating groove, communicated with the first liquid storage cavity, and used for accommodating the first liquid guiding member; Part of the first liquid-conducting member is accommodated in the accommodating groove, and the part of the first liquid-conducting member exposed outside the accommodating groove is configured to be able to abut against the ultrasonic transducer.

7. The atomizing device according to claim 5, characterized in that: The ultrasonic transducer is movably connected in the housing and configured to vibrate in a confined space; The ultrasonic atomization assembly also includes: At least one elastic member has one end abutting against at least a portion of the inner wall of the shell and the other end abutting against the ultrasonic transducer, and the elastic member is used to apply an elastic force toward the first liquid guiding member to the ultrasonic transducer.

8. The atomizing device according to claim 7, characterized in that: The ultrasonic transducer has a fog outlet surface, and the fog outlet surface is substantially consistent with the axial direction of the atomizing device.

9. The atomizing device according to claim 5, characterized in that: The atomizing device also includes: A first air chamber, disposed in the housing and connected to the air inlet and the air outlet; The ultrasonic transducer is disposed in the first air chamber; The first liquid guiding member located at the liquid guiding position abuts against the ultrasonic transducer in the first air chamber.

10. The atomizing device according to any one of claims 1 to 9, characterized in that: The heating atomizing assembly comprises: A second liquid guide member is disposed in the housing and is in liquid communication with the second liquid storage assembly to absorb the second atomized matrix; A heating element is at least partially in contact with the second liquid guiding element, and is used to atomize the second atomization matrix and generate the second aerosol.

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