Atomization device

Abstract

The invention provides an atomization device, and relates to the technical field of electronic atomization, the atomization device comprises a shell with an air inlet and an air outlet, and further comprises a first liquid storage assembly used for storing a first atomization substrate, and the first atomization substrate is suitable for generating first aerosol above a first preset temperature; the second liquid storage assembly is used for storing a second atomization substrate; the atomization assembly and the second liquid storage assembly form liquid path communication, and the second atomization substrate is heated and atomized to generate second aerosol; the confluence cavity is configured to receive the first aerosol and / or the second aerosol, and the confluence cavity is in airflow communication with the air outlet; one of the first aerosol and the second aerosol is discharged through the converging cavity; or the first aerosol and the second aerosol are discharged after being mixed in the converging cavity. According to the atomization device provided by the invention, different types of atomization matrixes can be used for generating aerosol with different types, smells, functions and effects, the diversified and personalized use requirements of users are met, and the use experience of the users 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 atomizes the atomizing matrix and generates an aerosol through the atomizing component. In the related art, the atomizing component uses direct heating to atomize the atomizing matrix at high temperature, which has high atomization efficiency and large mist generation. However, some atomizing matrices with effective ingredients such as specific fragrance components, bioactive components, and drug components are sensitive to temperature. After being directly heated at high temperature by the atomizing component, it is easy to cause the effective ingredients contained in the atomizing matrix to deteriorate or become ineffective, and it is also easy to cause the atomizing matrix to gelatinize, which is not suitable for use in such atomizing devices, limiting the smell, function and effect of the aerosol that such atomizing devices can provide.

[0003] In addition, the atomization devices in the related art generally only provide aerosols with a single component, a single function and effect, and cannot meet the diversified and personalized usage needs of users. Summary of the invention

[0004] The present application provides an atomizing device, which solves the technical problem that the existing atomizing devices have a single atomizing form and cannot meet the diversified and personalized use needs of users. The atomizing device provided by the present application can generate aerosols of different types, smells, functions and effects, which meets the diversified and personalized use needs of users and improves the user experience.

[0005] The present application provides an atomization device, comprising a shell having an air inlet and an air outlet, the atomization device also comprising: a first liquid storage component, used to store a first atomization matrix, the first atomization matrix being suitable for generating a first aerosol above a first preset temperature; a second liquid storage component, used to store a second atomization matrix; an atomization component, which is connected to the second liquid storage component by a liquid path and is configured to heat and atomize the second atomization matrix and generate a second aerosol; a merging chamber, the merging chamber being configured to receive the first aerosol and / or the second aerosol, and the merging chamber airflow is connected to the air outlet; wherein, one of the first aerosol and the second aerosol is discharged from the air outlet through the merging chamber; or, the first aerosol and the second aerosol are mixed in the merging chamber and then discharged from the air outlet.

[0006] In some embodiments, the second aerosolized substrate is suitable for generating a second aerosol above a second preset temperature, wherein the first preset temperature is lower than the second preset temperature.

[0007] In some embodiments, the merging chamber has a first air inlet end, configured to allow air flow to enter; the first liquid storage component includes: at least two first storage spaces, which are configured to store a first atomized matrix, and the first storage space has an aerosol outlet; a movable member, movably connected in the shell, and the movable member is configured to drive the first storage space to move from a first position to a second position; when at least one of the first storage spaces is in the first position, the aerosol outlet is connected to the first air inlet end through an air path.

[0008] In some embodiments, the movable member includes a rotating member configured to rotate about a central axis to switch the first accommodating space between the first position and the second position.

[0009] In some embodiments, the first atomized matrix is ​​configured to provide a preset fragrance scent, and different first containing spaces are configured to store first atomized matrices of the same or different fragrance scents.

[0010] In some embodiments, at least one first air inlet hole is provided at one end of the rotating member, the first air inlet hole is connected to the corresponding first receiving space, and is configured to allow air flow to enter; at least one aerosol outlet is provided at the other end of the rotating member, the aerosol outlet is connected to the corresponding first receiving space, and is configured to allow air flow to discharge; wherein, the first receiving space in the first position is connected to the air inlet through the first air inlet hole, and is connected to the first air inlet end through the aerosol outlet.

[0011] In some embodiments, at least one of the first receiving spaces is configured as an empty position; wherein the first receiving space configured as an empty position does not store the first atomized substrate.

[0012] In some embodiments, the first liquid storage component further includes: a liquid storage element, disposed in the first containing space, for adsorbing the first atomized matrix; wherein a hollow channel is provided on the liquid storage element, and the hollow channel connects the first air inlet and the aerosol outlet.

[0013] In some embodiments, the merging chamber has a second air inlet end, configured to allow air flow to enter; the second liquid storage component includes: a second accommodating space, which is configured to store the second atomizing matrix; the atomizing component includes: a liquid guiding member, which forms a liquid path connection with the second accommodating space and is used to adsorb the second atomizing matrix; an atomizing airway is provided on the liquid guiding member, and the atomizing airway forms an air path connection with the air inlet and the second air inlet end; a heating element, which is arranged in the atomizing airway and at least partially abuts against the liquid guiding member, and is used to atomize the second atomizing matrix.

[0014] In some embodiments, the atomization device also includes: a first air tank, which is arranged at one end of the first liquid storage component close to the air inlet, the first air tank connects the air inlet and the first accommodating space at the first position, and is configured to supply air from the air inlet to the first accommodating space; a second air tank, which is arranged at one end of the second liquid storage component close to the air inlet, the second air tank connects the air inlet and the atomization air duct, and is configured to supply air from the air inlet to the atomization air duct.

[0015] In some embodiments, the atomization device further includes: an air intake regulating mechanism connected between the air inlet and the first air tank and the second air tank, and configured to regulate the air intake volume of the first air tank and the second air tank.

[0016] In some embodiments, the atomization device also includes: a heating component, which is disposed in the shell and corresponds to the movable member, and is configured to heat the first atomization matrix in the first receiving space at the first position; or an ultrasonic atomization component, which is disposed in the shell and forms a liquid path connection with the first receiving space at the first position, and is configured to ultrasonically atomize the first atomization matrix in the first receiving space.

[0017] The atomization device stores a first atomization matrix suitable for generating a first aerosol above a first preset temperature through a first liquid storage component, heats a second atomization matrix stored in a second liquid storage component through the atomization component and generates a second aerosol, receives the first aerosol and / or the second aerosol output by the first liquid storage component and the second liquid storage component through a merging chamber, so that the first aerosol and the second aerosol can be mixed in the merging chamber and then discharged from an air outlet to provide a mixed aerosol to the user; one of the first aerosol and the second aerosol can also be discharged from the air outlet alone through the merging chamber to provide the first aerosol alone to the user, or to provide the second aerosol alone to the user.

[0018] The atomization device provided in the present application can use different types of atomization matrices to generate aerosols of different types, smells, functions and effects, thereby meeting the diversified and personalized usage needs of users and improving the user experience. BRIEF DESCRIPTION OF THE DRAWINGS

[0019] The present invention will be further described below with reference to the accompanying drawings and embodiments, in which:

[0020] Figure 1 It is a schematic diagram of the overall structure of one embodiment of the atomization device of the present application;

[0021] Figure 2 It is a schematic diagram of a vertical cross-sectional structure of one embodiment of the atomizing device of the present application;

[0022] Figure 3 yes Figure 2 A magnified schematic diagram of the local structure at S in the middle;

[0023] Figure 4 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;

[0024] Figure 5 This is a partial structural diagram of one embodiment of the atomization device of the present application. Figure 1 ;

[0025] Figure 6 It is a schematic diagram of the structural decomposition of an atomizing assembly of one embodiment of the atomizing device of the present application;

[0026] Figure 7 This is a partial structural diagram of one embodiment of the atomization device of the present application. Figure 2 ;

[0027] Figure 8 It is a structural schematic diagram of an adjustment member of one embodiment of the atomization device of the present application when it is in a first position;

[0028] Fig. 9 It is a structural schematic diagram of an embodiment of the atomization device of the present application when the adjusting member is in the second position;

[0029] Fig.10 It is a schematic structural diagram of an adjustment member of one embodiment of the atomization device of the present application when it is in the second position.

[0030] The reference numerals are as follows:

[0031] 1- Atomization device; XX axial direction, YY axial direction, ZZ axial direction;

[0032] 10-shell, 11-air inlet, 12-air outlet, 13-merging cavity, 131-first air inlet end, 132-second air inlet end, 14-installation cavity, 141-fixed shaft, 142-positioning elastic member, 15-first air chamber, 151-first air inlet hole, 1511-first air inlet hole A, 1512-first air inlet hole B, 16-second air chamber, 161-second air inlet hole, 17-accommodating cavity, 18-adjusting notch, 19-window;

[0033] 20-first liquid storage component, 200-movable member, 21-rotating member, 210-first accommodating space, 211-central axis, 212-first axial hole, 213-first groove, 2131-notch, 214-first air inlet, 215-positioning groove, 22-central axis, 23-first flexible member, 231-aerosol outlet, 232-first sealing ring, 24-second flexible member, 241-first through hole, 242-second axial hole, 243-second sealing ring, 25-liquid storage element, 251-hollow channel;

[0034] 30 - second liquid storage assembly, 31 - second accommodating space, 311 - upper chamber, 312 - lower chamber, 32 - first fixing groove, 321 - first through hole, 33 - second fixing groove, 331 - second through hole, 34 - baffle, 341 - second through hole;

[0035] 40-atomizing assembly, 41-liquid guiding member, 411-first liquid guiding member, 412-second liquid guiding member, 4121-atomizing airway, 42-heating member, 43-first core tube, 431-first liquid inlet, 44-second core tube, 441-second liquid inlet, 45-sealing member, 46-air guiding member, 461-first air guiding hole, 462-air guiding groove;

[0036] 50 - air intake regulating mechanism, 51 - regulating member, 511 - main body, 5111 - first air intake distribution port A, 5112 - first air intake distribution port B, 5113 - second air intake distribution port, 512 - toggle portion. DETAILED DESCRIPTION

[0037] The technical solution of the present application is further described in detail below by specific embodiments in conjunction with the accompanying drawings. In the following embodiments, many details are described 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.

[0038] 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.

[0039] See also Figure 1 to Figure 2 In some embodiments of the present application, an atomization device 1 is provided, which includes a shell 10 having an air inlet 11 and an air outlet 12, and also includes a first liquid storage component 20, a second liquid storage component 30, an atomization component 40, and a confluence chamber 13. The first liquid storage component 20 is used to store a first atomization matrix, and the first atomization matrix is ​​suitable for generating a first aerosol above a first preset temperature.

[0040] The second liquid storage component 30 is used to store the second atomization matrix. The atomization component 40 is in fluid communication with the second liquid storage component 30 and is configured to heat and atomize the second atomization matrix and generate a second aerosol.

[0041] The merging chamber 13 is configured to receive the first aerosol and / or the second aerosol, and the merging chamber 13 is connected to the air outlet 12 in airflow.

[0042] One of the first aerosol and the second aerosol is discharged from the air outlet 12 through the merging cavity 13 ; or the first aerosol and the second aerosol are merged in the merging cavity 13 and then discharged from the air outlet 12 .

[0043] The first atomization matrix may contain a fragrance component with a preset smell to generate a first aerosol with a preset smell above a first preset temperature. The second atomization matrix may contain an active ingredient with a specific function and effect to generate a second aerosol with a specific function and effect after heating and atomization.

[0044] During use, the airflow enters the shell 10 from the air inlet 11. The airflow can be configured to flow only through the first liquid storage component 20, or to flow only through the atomization component 40, or to flow partially through the first liquid storage component 20 and partially through the atomization component 40. All the airflow is finally gathered in the confluence and discharged through the air outlet 12. When the airflow is configured to flow only through the first liquid storage component 20, the first aerosol brought out enters the merging chamber 13 and is finally discharged from the air outlet 12, providing the user with a first aerosol with a preset smell; when the airflow is configured to flow only through the atomization component 40, the second aerosol brought out enters the merging chamber 13 and is finally discharged from the air outlet 12, providing the user with a second aerosol with specific functions and effects; when the airflow is configured to flow partially through the first liquid storage component 20 and partially through the atomization component 40, the first aerosol and the second aerosol are respectively brought out and mixed in the merging chamber 13, and the formed mixed aerosol is finally discharged from the air outlet 12, providing the user with a mixed aerosol with a preset smell, function and effect.

[0045] The atomization device 1 provided in the present application can use different types of atomization matrices to generate aerosols of different types, smells, functions and effects, thereby meeting the diversified and personalized usage needs of users and improving the user experience.

[0046] In some embodiments, the first preset temperature may be a general room temperature, ranging from 10°C to 35°C. The first atomized substrate is suitable for generating the first aerosol in a self-volatile manner at room temperature, and the generation rate of the first aerosol is positively correlated with the ambient temperature. For example, at room temperature of 15°C, the generation rate of the first aerosol is a; at room temperature of 20°C, the generation rate of the first aerosol is b, where b>a. That is, as the temperature increases, the faster the self-volatile rate of the first atomized substrate, the greater the amount of the generated first aerosol.

[0047] In some embodiments, the second aerosolized substrate is adapted to generate a second aerosol above a second preset temperature, wherein the first preset temperature is lower than the second preset temperature.

[0048] The atomizing device 1 of the present application provides two different aerosols at two different preset temperatures, so that the atomizing device 1 can use different types of atomizing matrices, thereby providing users with aerosols with different functions and effects to meet different usage requirements of users.

[0049] In one embodiment, the second atomized substrate generates the second aerosol using the energy conversion of the atomization component, that is, when the atomization component is not started, the second atomized substrate does not generate the second aerosol at room temperature. An exemplary atomization component can be a heating element, and when the temperature of the heating element reaches above 120° C., that is, the second preset temperature is 120° C., the second atomized substrate can be heated to generate a second aerosol with a better taste.

[0050] When the first atomization matrix is ​​set to generate the first aerosol in a self-volatile manner above a first preset temperature (such as room temperature), the first atomization matrix can be set to a fragrance liquid having volatile fragrance components, or the first atomization matrix can be set to have components that are sensitive to temperature and are not suitable for direct heating by a heating element, such as biologically active components, medicinal components, etc., to provide users with a first aerosol that is not directly heated by a heating element and has specific functions and effects.

[0051] When the second atomization substrate is set to generate the second aerosol by direct heating at a temperature above the second preset temperature (such as 120°C), the second atomization substrate can be set to be a smoke oil having a smoke agent component, a tobacco component or a tobacco substitute component, so as to provide the user with a second aerosol having smoke and a tobacco component or a tobacco substitute component generated by direct heating of the heating element.

[0052] See also Figure 2 and Figure 4 In some embodiments, the merging chamber 13 has a first air inlet end 131 , and the first air inlet end 131 is configured to supply air flow into the merging chamber 13 .

[0053] The first liquid storage assembly 20 includes at least two first accommodating spaces 210, a movable member 200 (such as Figure 2 As shown in FIG. 1 , the first storage space 210 is configured to store the first atomized matrix, and the first storage space 210 has an aerosol outlet 231. The movable member 200 is movably connected in the housing 10, and the movable member 200 is configured to drive the first storage space 210 to move from the first position to the second position. When at least one first storage space 210 is in the first position, the aerosol outlet 231 is connected to the first air inlet end 131 through an air path, so that the first aerosol can enter the confluence cavity 13 through the aerosol outlet 231 and the first air inlet end 131, and then be discharged from the air outlet 12.

[0054] The movable member 200 can be configured to rotate relative to the shell 10, or can be configured to translate relative to the shell 10, or can be configured to move in multiple directions relative to the shell 10. This application does not limit this, and it only needs to be able to drive the first accommodating space 210 to move from the first position to the second position.

[0055] In addition, the first accommodation space 210 may be a physical feature or a non-physical feature, which is not limited in the present application.

[0056] The first atomization matrix can be any one or more physical forms of solid, semi-solid, liquid, and the present application does not limit this, and it can generate the first aerosol at a first preset temperature (such as room temperature). The second atomization matrix is ​​liquid, flows from the second liquid storage component 30 to the atomization component 40 via the liquid path, and is then directly heated and atomized by the atomization component 40 to generate the second aerosol.

[0057] In some embodiments, the movable member 200 includes a rotating member 21, which is configured to rotate about a central axis 211 (eg, Figure 4 The first accommodating space 210 is rotated (as shown in FIG. 21 ) to switch the first accommodating space 210 between the first position and the second position. The first position is a position where the first accommodating space 210 is connected to the first air inlet end 131 through the aerosol outlet 231, and the second position is a position where the aerosol outlet 231 of the first accommodating space 210 is not connected to the first air inlet end 131. The user can drive the first accommodating space 210 to switch between the first position and the second position by rotating the rotating member 21, which is simple and convenient to operate.

[0058] The first atomizing matrix is ​​configured to provide a preset fragrance smell, and different first containing spaces 210 are configured to store first atomizing matrices of the same or different fragrance smells.

[0059] In some embodiments, the first storage spaces 210 can be evenly distributed on the rotating member 21 around the central axis 211, and different first storage spaces 210 store first atomization substrates with different fragrances. When the airflow entering the air inlet 11 is configured to flow partially through the first liquid storage component 20 and partially through the atomization component 40, the user can switch the first storage space 210 in the first position by rotating the rotating member 21 to discharge the first aerosol with different fragrances through the air outlet 12, realize the switching of the fragrance type of the first aerosol, and make the first aerosol mix with the second aerosol in the confluence cavity 13, realize the combination of different fragrance types of the first aerosol and multiple flavors of the second aerosol, meet the diversified and personalized use needs of users, and improve the user experience.

[0060] In the following embodiments, different first storage spaces 210 are described by storing first atomization substrates with different fragrances. The first atomization substrate is described by taking fragrance liquid containing volatile fragrance components as an example. The first atomization substrate evaporates the first aerosol in a self-volatile manner under room temperature conditions; the second atomization substrate is described by taking e-liquid containing a smoke generator and a tobacco component or a tobacco substitute component as an example. The fragrance liquid provides the user with a first aerosol with a preset fragrance; the e-liquid provides the user with a second aerosol with a tobacco component or a tobacco substitute component and smoke.

[0061] See also Figure 2 In the following embodiments, the movable member 200 is described by taking the rotating member 21 as an example. The rotating member 21 can rotate around the central axis 211 to switch the first accommodation space 210 between the first position and the second position. At least one first air inlet 214 is provided at one end of the rotating member 21. The first air inlet 214 is communicated with the corresponding first accommodation space 210 and is configured to supply airflow into the first accommodation space 210.

[0062] The other end of the rotating member 21 is provided with at least one aerosol outlet 231, which is communicated with the corresponding first accommodation space 210 and configured to allow airflow to be discharged from the first accommodation space 210. The aerosol outlet 231 constitutes the first aerosol output end of the first liquid storage component 20.

[0063] Among them, the first containing space 210 in the first position is connected with the air inlet 11 through the first air inlet hole 214, and is connected with the first air inlet end 131 through the aerosol outlet 231, so that the airflow entering through the air inlet 11 can flow into the first containing space 210 in the first position through the first air inlet hole 214, and bring out the first aerosol volatilized in the first containing space 210 and then be discharged from the aerosol outlet 231.

[0064] The first storage space 210 in the first position can form an air path connection with the air inlet 11 and the merging chamber 13 through the corresponding first air inlet hole 214 and the aerosol outlet 231, and the first aerosol volatilized in the first storage space 210 is taken out by the air flow passing through. The air flow carrying the first aerosol enters the merging chamber 13 through the first air inlet end 131, and finally is discharged from the air outlet 12 alone, or is discharged from the air outlet 12 after merging with the second aerosol in the merging chamber 13. The first storage space 210 outside the first position (i.e., the second position) cannot form an air path connection with the air inlet 11 and the merging chamber 13, so as to prevent the first storage space 210 outside the first position from releasing the first aerosol outward, thereby avoiding odor contamination and prolonging the service life of the first atomization substrate.

[0065] See also Figure 2 In a specific embodiment, the housing 10 is arranged along the Z-axis, that is, the gravity direction, the air inlet 11 is arranged at the bottom of the housing 10, and the air outlet 12 is arranged at the top of the housing 10. The housing 10 is formed with a mounting cavity 14 (such as Figure 5 As shown in FIG. 1 , the first liquid storage assembly 20 is movably connected in the mounting cavity 14 , and the second liquid storage assembly 30 and the first liquid storage assembly 20 are arranged side by side on the left and right sides along the X-axis inside the housing 10 .

[0066] The merging cavity 13 is located at the upper part of the second liquid storage assembly 30 and the first liquid storage assembly 20 , and the first air inlet end 131 is located at the right side of the merging cavity 13 , and is a through hole connecting the merging cavity 13 and the installation cavity 14 .

[0067] See also Figure 2 and Figure 4 The first liquid storage assembly 20 further includes a central shaft 22, which is fixedly connected to the mounting cavity 14 along the Z axis. A first shaft hole 212 (such as Figure 4 As shown in FIG. 2 , the rotating member 21 is rotatably connected to the central shaft 22 through the first shaft hole 212. Eight first accommodation spaces 210 are provided, and the eight first accommodation spaces 210 are evenly arranged around the first shaft hole 212 in the circumferential direction.

[0068] The first air inlet hole 214 is arranged at the lower end of the rotating part 21 facing the air inlet 11, and the aerosol outlet 231 is arranged at the upper end of the rotating part 21 facing the merging chamber 13, and the number of the first air inlet holes 214 and the aerosol outlet 231 is preferably matched with the number of the first accommodating spaces 210, that is, an aerosol outlet 231 and a first air inlet hole 214 are respectively arranged at the upper and lower ends of each first accommodating space 210.

[0069] During use, the user manually drives the rotating part 21 to rotate 45° around the central axis 22 to switch the first accommodating space 210 that is connected to the air inlet 11 and the converging cavity 13 to form an air path, thereby changing the fragrance smell of the first aerosol discharged from the air outlet 12 to achieve fragrance conversion. The operation of fragrance switching is simple and convenient, which improves the user experience.

[0070] See also Figure 4 In a specific embodiment, eight first grooves 213 are provided on the rotating member 21 and are evenly distributed around the first axial hole 212. The first groove 213 has a notch 2131 formed at the axial upper end of the rotating member 21. The first air inlet hole 214 passes through the bottom surface of the first groove 213 so that the airflow entering from the air inlet 11 can enter the corresponding first groove 213 through the first air inlet hole 214.

[0071] The first liquid storage component 20 further includes a first flexible member 23, which is detachably connected to the upper end of the rotating member 21 and closes the notch 2131, and defines a first accommodation space 210 between the first flexible member 23 and the first groove 213. The aerosol outlet 231 is arranged through the first flexible member 23, so that the airflow in the first accommodation space 210 can be discharged through the corresponding aerosol outlet 231. The upper end of the central shaft 22 movably abuts against the inner wall surface of the first flexible member 23.

[0072] During use, if the first atomization matrix in a first storage space 210 is consumed or the fragrance smell is weakened, the user can remove the first flexible member 23 and add the first atomization matrix to the corresponding first groove 213 through the notch 2131 to realize the recycling of the first liquid storage component 20, thereby reducing the user's use cost and extending the service life of the atomization device 1.

[0073] The first flexible member 23 is made of a flexible material and has a certain elasticity. The flexible material can be selected from silicone material, rubber material, soft plastic material, etc., and this application does not limit this. The upper end surface of the first flexible member 23 facing the confluence cavity 13 is at least partially sealed against the top surface of the installation cavity 14, so that the aerosol outlet 231 corresponding to the first accommodating space 210 outside the first position can be closed by the top surface of the installation cavity 14, so as to prevent the first atomization matrix in the first accommodating space 210 in the non-use state from volatilizing the first aerosol outward.

[0074] See also Figure 4 and Figure 5In cooperation, the first liquid storage assembly 20 further includes a second flexible member 24, which is fixedly connected to the bottom of the installation cavity 14 and at least partially abuts against the bottom surface of the rotating member 21. The second flexible member 24 is made of a flexible material and has a certain elasticity. The flexible material can be selected from silicone material, rubber material, soft plastic material, etc., and this application does not limit this.

[0075] A first through hole 241 is provided on the second flexible member 24 along the Z-axis direction. The first through hole 241 is configured to connect the air inlet 11 with the first air inlet hole 214 corresponding to the first accommodation space 210 at the first position.

[0076] A fixed shaft 141 extending along the Z axis is provided on the bottom surface of the installation cavity 14, and the lower end of the central shaft 22 is plugged and fixed on the fixed shaft 141. A second shaft hole 242 is provided through the center of the second flexible member 24, and the fixed shaft 141 at least partially passes through the second shaft hole 242 and is fixedly connected to the central shaft 22. The upper end surface of the second flexible member 24 facing the rotating member 21 is at least partially sealed against the bottom surface of the rotating member 21, so that the first air inlet 214 corresponding to the first accommodating space 210 outside the first position can be closed by the second flexible member 24, so as to prevent the first atomization matrix in the first accommodating space 210 in the non-use state from volatilizing the first aerosol outward.

[0077] The first flexible member 23 cooperates with the top surface of the mounting cavity 14 to achieve sealing of the air outlet end of the first accommodating space 210 outside the first position; the second flexible member 24 cooperates with the bottom surface of the rotating member 21 to achieve sealing of the air inlet end of the first accommodating space 210 outside the first position, which can prevent the first accommodating space 210 from releasing the first aerosol outward when not in use, thereby increasing the shelf life of the first atomization matrix and extending the service life of the first atomization matrix.

[0078] See also Figure 4 In some embodiments, a first sealing ring 232 is provided on the upper end surface of the first flexible member 23 facing the air outlet 12, the number of the first sealing rings 232 matches the number of the first accommodating spaces 210, and the first sealing rings 232 are respectively provided at the periphery of the corresponding aerosol outlets 231. The first sealing ring 232 seals against the top surface of the installation cavity 14 to cooperate with the top surface of the installation cavity 14 to seal the aerosol outlets 231 corresponding to the first accommodating spaces 210 outside the first position. The first sealing ring 232 corresponding to the first accommodating spaces 210 in the first position seals the gap between the first air inlet end 131 and the aerosol outlet 231 to prevent the airflow discharged from the first accommodating spaces 210 in the first position from leaking into the installation cavity 14 from the gap between the first air inlet end 131 and the aerosol outlet 231.

[0079] See also Figure 4 , in coordination, a second sealing ring 243 is provided on the top surface of the second flexible member 24 facing the rotating member 21, the number of the second sealing rings 243 matches the number of the first accommodating spaces 210, and the second sealing rings 243 are respectively provided at the peripheries of the corresponding first air inlet holes 214. One of the second sealing rings 243 is provided at the first through hole 241, and abuts against the periphery of the first air inlet hole 214 corresponding to the first accommodating space 210 in the first position. The remaining second sealing rings 243 abut against the peripheries of the first air inlet holes 214 corresponding to the first accommodating space 210 outside the first position, so as to cooperate with the top surface of the second flexible member 24 to seal the air inlet end of the first accommodating space 210 in the non-use state.

[0080] In some embodiments, at least one of the first accommodating spaces 210 is set to an empty position, wherein the first accommodating space 210 configured as an empty position does not store the first atomized substrate. In actual use, when the user only needs the atomization device 1 to provide a second aerosol, the empty first accommodating space 210 that does not store the first atomized substrate only needs to be rotated to the first position.

[0081] In some other embodiments, an independently controllable one-way valve or switch may be provided on the first air inlet end 131, and the one-way valve or switch is configured to close the air outlet end of the first accommodation space 210 at the first position under the pure atomization and smoking condition of the atomization device 1. In addition, an independently controllable one-way valve or switch may also be provided on the first through hole 241 at the same time, so as to simultaneously close the air inlet end and the air outlet end of the first accommodation space 210 at the set position under the pure atomization and smoking condition of the atomization device 1.

[0082] Compared with the technical solution of setting at least one first containing space 210 to an empty position, closing the first containing space 210 in the first position by a one-way valve or a switch is beneficial to increasing the storage capacity of the first atomization matrix of different fragrance scents in the first liquid storage component 20 and increasing the fragrance types of the first aerosol.

[0083] See also Figure 2 and Figure 4 In some embodiments, the first liquid storage component 20 further includes a liquid storage element 25, and the liquid storage element 25 is disposed in the first receiving space 210 for adsorbing the first atomized matrix.

[0084] The liquid storage element 25 is provided with a hollow channel 251 , and the hollow channel 251 is connected to the first air inlet 214 and the aerosol outlet 231 .

[0085] The liquid storage element 25 is made of porous material and absorbs liquid through its own liquid absorption characteristics, so that the first atomization matrix in liquid state can be stored in the first accommodation space 210, reducing the risk of the first atomization matrix leaking outward from the first air inlet 214 and the aerosol outlet 231. Compared with the solid and semi-solid first atomization matrix, the solubility of the fragrance component in the liquid first atomization matrix is ​​higher, and the duration of fragrance volatilization is longer, which is conducive to extending the service life of the first atomization matrix, and there will be no solid residue after the fragrance volatilizes, which is more environmentally friendly.

[0086] During assembly, the liquid storage element 25 is inserted into the corresponding first groove 213 through the notch 2131, and the first atomizing matrix is ​​adsorbed on the liquid storage element 25. The liquid storage elements 25 in different first accommodating spaces 210 adsorb first atomizing matrices of different fragrances.

[0087] During use, the airflow flows into the first receiving space 210 at the first position through the first through hole 241 and the first air inlet 214, and then flows through the liquid storage element 25 through the hollow channel 251, which is conducive to the airflow to quickly pass through the first receiving space 210 and bring out the first aerosol, thereby improving the volatilization efficiency of the first aerosol and ensuring the supply of the first aerosol.

[0088] In addition, if Figure 2 As shown in FIG. 1 , the first accommodating space 210 which is set to be an empty position does not have a liquid storage element 25 disposed therein.

[0089] See also Figure 2 In some embodiments, the merging chamber 13 has a second air inlet end 132 , and the second air inlet end 132 is configured to supply air flow into the merging chamber 13 .

[0090] The second liquid storage assembly 30 includes a second accommodating space 31 , and the second accommodating space 31 is configured to store a second atomized substrate.

[0091] See also Figure 3 The atomizing assembly 40 includes a liquid guide 41 and a heating element 42. The liquid guide 41 is connected to the second accommodation space 31 by a liquid path for adsorbing the second atomizing matrix. The liquid guide 41 is provided with an atomizing airway 4121, which is connected to the air inlet 11 and the second air inlet end 132 by an air path.

[0092] The heating element 42 is disposed in the atomizing air channel 4121 and at least partially abuts against the liquid guiding element 41 , so as to atomize the second atomizing matrix.

[0093] See also Figure 2In some embodiments, the atomization device 1 further includes a first air tank 15 and a second air tank 16. The first air tank 15 is disposed at the lower end of the first liquid storage component 20 near the air inlet 11. The first air tank 15 connects the air inlet 11 and the first accommodating space 210 at the first position, and is configured to supply air from the air inlet 11 to the first accommodating space 210 at the first position.

[0094] The second air bin 16 is disposed at the lower end of the second liquid storage assembly 30 close to the air inlet 11 . The second air bin 16 connects the air inlet 11 and the atomizing air passage 4121 and is configured to supply air from the air inlet 11 to the atomizing air passage 4121 .

[0095] The atomization device 1 of the present application realizes air path communication between the first storage space 210 at the first position and the air inlet 11 and the converging chamber 13 through the first air storage 15, and realizes air path communication between the atomization airway 4121 and the air inlet 11 and the converging chamber 13 through the second air storage 16, so that a part of the airflow entering through the air inlet 11 can flow to the first storage space 210 at the first position under the guidance of the first air storage 15, and a part of the airflow can flow to the atomization airway 4121 under the guidance of the second air storage 16, thereby carrying out the first aerosol volatilized in the first storage space 210 and carrying out the second aerosol generated in the atomization airway 4121.

[0096] See also Figure 1 In some embodiments, the atomization device 1 further includes an air intake regulating mechanism 50 , which is connected between the air inlet 11 and the first air tank 15 and the second air tank 16 , and is configured to regulate the air intake volume of the first air tank 15 and the second air tank 16 .

[0097] The atomizing device 1 of the present application adjusts the air intake amount of the first air chamber 15 and the second air chamber 16 through the air intake regulating mechanism 50, so that the user can independently control the airflow size flowing through the first accommodating space 210 and the atomizing air duct 4121 through the air intake regulating mechanism 50 to adapt to different working conditions of the atomizing device 1.

[0098] When the user only needs the atomization device 1 to provide a second aerosol, the airflow entering the air inlet 11 can be completely distributed to the second air tank 16 through the air intake adjustment mechanism 50. At this time, the air intake volume of the first air tank 15 can be zero, and the heating element 42 can be configured to be in a powered-on state to heat the second atomization matrix transmitted from the liquid guide element 41 to the atomization airway 4121 and generate a second aerosol.

[0099] When the user requires the atomizing device 1 to provide a mixed aerosol including the first aerosol and the second aerosol, the airflow entering the air inlet 11 can be partially distributed to the first air chamber 15 and partially distributed to the second air chamber 16 through the air intake adjustment mechanism 50. At this time, airflow enters both the first air chamber 15 and the second air chamber 16, and the heating element 42 can be configured to be in a powered-on state. Further, the heating element 42 can be configured to operate at different heating powers to adapt to different working conditions of the atomizing device 1.

[0100] See also Figure 2 In one embodiment, the second accommodation space 31 is formed in the housing 10 and arranged in parallel with the mounting cavity 14. The atomizing assembly 40 is accommodated in the second accommodation space 31 and defines a liquid storage cavity with the inner wall surface of the second accommodation space 31, and the second atomizing matrix is ​​stored in the liquid storage cavity.

[0101] The merging cavity 13 is located above the second accommodating space 31 and the installation cavity 14 , and the second air inlet end 132 is located on the left side of the merging cavity 13 , and is a through hole connecting the merging cavity 13 and the second accommodating space 31 .

[0102] The first air bin 15 is located at the lower part of the installation cavity 14 , the air inlet end of the first air bin 15 is connected to the output end of the air inlet regulating mechanism 50 , and the air outlet end of the first air bin 15 is connected to the first accommodating space 210 at a set position through the first through hole 241 .

[0103] The second air bin 16 is located at the lower part of the second accommodating space 31 , and is arranged in parallel with the first air bin 15 on the left and right inside the housing 10 . The air inlet end of the second air bin 16 is connected to the output end of the air inlet regulating mechanism 50 .

[0104] See also Figures 2 to 3 The second liquid storage assembly 30 further includes a first fixed groove 32 and a second fixed groove 33 arranged along the Z-axis direction. The first fixed groove 32 is arranged at the bottom of the second accommodating space 31, and the second fixed groove 33 is arranged at the top of the second accommodating space 31. The first fixed groove 32 and the second fixed groove 33 are arranged coaxially, and a first through hole 321 is arranged through the first fixed groove 32, and a second through hole 331 is arranged through the second fixed groove 33. Among them, the first through hole 321 is connected to the air outlet end of the second air bin 16, and is configured to supply air from the second air bin 16 to the second accommodating space 31; the second through hole 331 is connected to the second air inlet end 132, and is configured to supply air out of the second accommodating space 31. The second air vent constitutes the output end of the second liquid storage assembly.

[0105] The atomizer assembly 40 is fixedly connected between the first fixed groove 32 and the second fixed groove 33 along the Z axis, the atomizer air channel 4121 axially penetrates the liquid guide member 41, and the air inlet end of the atomizer air channel 4121 is connected with the second air bin 16 and the air inlet 11 through the first through hole 321, and the air outlet end of the atomizer air channel 4121 is connected with the confluence cavity 13 and the air outlet 12 through the second through hole 331 and the second air inlet end 132, so as to realize the air path connection between the atomizer assembly 40 and the air inlet 11 and the air outlet 12.

[0106] The atomizing assembly 40 is accommodated in the second accommodating space 31, which is beneficial to improving the utilization rate of the internal space of the atomizing device 1, and is beneficial to the liquid guiding member 41 to absorb the second atomizing matrix from the liquid storage chamber, thereby ensuring the continuous and stable supply of the second atomizing matrix and the continuous and stable generation of the second aerosol.

[0107] See also Figure 3 and Figure 6 In a specific embodiment, the atomization assembly 40 further includes a first core tube 43, a second core tube 44, and a sealing member 45, and the liquid guide member 41 includes a first liquid guide member 411 and a second liquid guide member 412. The lower end of the first core tube 43 is plugged and fixed in the first fixing groove 32, the upper end of the first core tube 43 is plugged and fixed in the second fixing groove 33, the second core tube 44 is accommodated in the first core tube 43, the sealing member 45 is sealed and clamped between the bottom of the first core tube 43, the bottom of the second core tube 44 and the bottom surface of the first fixing groove 32, the first liquid guide member 411 is fixedly clamped between the first core tube 43 and the second core tube 44, and the second liquid guide member 412 is accommodated in the second core tube 44.

[0108] A plurality of first liquid inlets 431 are provided on the tube wall of the first core tube 43, a plurality of second liquid inlets 441 are provided on the tube wall of the second core tube 44, the first liquid guide 411 at least partially closes the first gas inlet 11 from the inside, at least partially closes the second liquid inlet 441 from the outside, and the second liquid guide 412 at least partially closes the second liquid inlet 441 from the inside. The second liquid guide 412 is connected to the liquid storage cavity through the second liquid inlet 441, the first liquid guide 411, and the first liquid inlet 431 to form a liquid path.

[0109] The atomizing air channel 4121 penetrates the second liquid guiding member 412 along the Z-axis direction. The heating member 42 is accommodated in the atomizing air channel 4121 and at least partially abuts against the inner wall surface of the second liquid guiding member 412 to heat and atomize the second atomizing matrix transmitted from the second liquid guiding member 412 to its inner wall surface, and generate a second aerosol in the atomizing air channel 4121.

[0110] During use, the airflow in the second air chamber 16 can enter the atomization assembly 40 through the first through hole 321 , flow through the atomization airway 4121 and carry out the generated second aerosol, and then flow from the second through hole 331 to the merging chamber 13 .

[0111] The liquid guiding member 41 of the atomizing assembly 40 adopts an inner and outer double-layer structure design, which has a larger liquid absorption capacity, better liquid guiding effect and liquid locking effect, and can reduce the risk of liquid leakage of the atomizing assembly 40.

[0112] During actual manufacturing, the external first liquid guiding member 411 and the internal second liquid guiding member 412 can be made of porous materials with different materials and different porosities, so that the first liquid guiding member 411 and the second liquid guiding member 412 have different liquid absorption and liquid guiding properties, so as to improve the liquid guiding efficiency and enhance the atomization effect.

[0113] See also Figure 3 and Figure 6 In some embodiments, the atomizer assembly 40 further includes an air guide 46, which is received in the second core tube 44 and is located at the air inlet end of the second core tube 44. A first air guide hole 461 is axially provided on the air guide 46, and a plurality of air guide grooves 462 are circumferentially provided on the outer wall surface of the air guide 46, and the air guide grooves 462 are arranged in a continuous tooth groove shape in the circumferential direction of the air guide 46. A plurality of second air guide holes are defined between the air guide grooves 462 and the inner wall surface of the second core tube 44. Part of the airflow entering through the first through hole 321 flows to the atomizing air duct through the first air guiding through hole 461, and part of it flows to the atomizing air duct through the second air guiding through hole, thereby realizing multi-channel air intake of the atomizing component 40. The airflow velocity flowing through the first air guiding through hole 461 is faster, and the airflow velocity flowing through the second air guiding through hole is relatively slower, and the flow rate is smaller, so that the atomizing component 40 can have multi-channel air intake and form a flow rate difference, thereby reducing the risk of oil explosion caused by the airflow directly passing through the atomizing air duct.

[0114] See also Figures 2 to 3 In some embodiments, the atomization device 1 further comprises a baffle 34, which is disposed in the liquid storage chamber and is configured to separate the liquid storage chamber into an upper chamber 311 and a lower chamber 312. The baffle 34 is provided with a second through hole 341, which is configured to connect the upper chamber 311 and the lower chamber 312. The first liquid inlet 431 is in the lower chamber 312.

[0115] The atomizer device of the present application divides the liquid storage chamber into an upper chamber 311 and a lower chamber 312 through a baffle 34, and guides part of the second atomizer matrix in the upper chamber 311 to the lower chamber 312 through the second through hole 341, and forms a blocking effect on the second atomizer matrix through the baffle 34, thereby reducing the fluctuation amplitude of the second atomizer matrix and the generation of shock waves, effectively alleviating the impact of the second atomizer matrix on the liquid guide member 41 when the atomizer device 1 shakes or vibrates, significantly reducing the risk of leakage of the atomizer assembly 40, and improving the user experience.

[0116] See also Figures 2 to 3In one specific embodiment, the baffle 34 is fixedly connected between the outer wall of the first core tube 43 and the inner wall of the second accommodation space 31. The baffle 34 is arranged near the first liquid inlet 431 and extends obliquely from one end of the first core tube 43 to one end of the inner wall of the first accommodation space, so that the baffle 34 is horizontally placed in the liquid storage cavity in a downwardly inclined posture. The baffle 34 extending obliquely downward is conducive to the flow of the second atomization matrix in the upper chamber 311 into the lower chamber 312, ensuring the continuous liquid supply of the second liquid storage assembly 30 to the atomization assembly 40.

[0117] See also Figure 2 In some embodiments, the atomization device 1 further includes a accommodating chamber 17 , which is located at the lower part of the first air chamber 15 and the second air chamber 16 , and the air inlet 11 connects the accommodating chamber 17 with the external space of the shell 10 .

[0118] See also Figure 7 At least one first air inlet hole 151 is provided at the bottom of the first air bin 15, and at least one second air inlet hole 161 is provided at the bottom of the second air bin 16, wherein the first air inlet hole 151 connects the accommodating chamber 17 with the first air bin 15, and the second air inlet hole 161 connects the accommodating chamber 17 with the second air bin 16.

[0119] The air intake adjustment mechanism 50 includes an adjustment member 51, which is movably connected in the accommodating chamber 17 and is configured to be in a first position (such as Figure 8 ), the second position (as shown in Fig. 9 ), the third position (as shown in Fig.10 ) to distribute the airflow in the accommodating cavity 17 to the first air inlet through hole 151 and / or the second air inlet through hole 161. In this embodiment, the first position is taken as an example of the adjustment member 51 moving to the left end along the X-axis direction, the third position is taken as an example of the adjustment member 51 moving to the right end along the X-axis direction, and the second position is taken as an example of the middle position between the first position and the third position.

[0120] See also Figure 8 When the adjusting member 51 moves to the first position on the left side, part of the airflow in the accommodating chamber 17 is distributed to the first air inlet hole 151, and part of the airflow is distributed to the second air inlet hole 161. The air intake volume of the first air inlet hole 151 can be smaller than the air intake volume of the second air inlet hole 161. At this time, the heating element 42 can be configured to operate at the maximum heating power, and the atomization device 1 is in the lung inhalation condition.

[0121] See also Fig. 9When the adjusting member 51 moves to the second position in the middle, part of the airflow is distributed to the first air inlet hole 151 and part of the airflow is distributed to the second air inlet hole 161. The air intake of the second air inlet hole 161 is less than the air intake when the adjusting member 51 is in the first position. At this time, the heating element 42 can be configured to operate at a smaller heating power, and the atomization device 1 is in a mouth-suction condition.

[0122] See also Fig.10 When the adjusting member 51 moves to the third position on the right side, all the airflow in the accommodating chamber 17 is distributed to the first air inlet hole 151. At this time, the heating element 42 can be configured to be powered off and stopped, and the atomizing device 1 only provides the first aerosol.

[0123] During use, the user can manually adjust the position of the adjustment member 51 according to actual use requirements to adjust the air intake of the first air chamber 15 and the second air chamber 16 under different working conditions of the atomization device 1, which is simple and convenient to use.

[0124] See also Figure 7 In a specific embodiment, two first air inlet holes 151 are provided, and the opening sizes are different, wherein the one with a relatively larger opening size is recorded as the first air inlet hole A1511, and the one with a relatively smaller opening size is recorded as the first air inlet hole B1512. Two second air inlet holes 161 are provided, and the opening sizes are the same, and they are arranged in parallel along the X-axis. The opening size of the second air inlet hole 161 is the same as the opening size of the first air inlet hole B1512.

[0125] See also Figure 7 An adjustment slot 18 is provided on the front wall surface of the shell 10 to connect the accommodating cavity 17 with the external space of the shell 10 , and the adjustment slot 18 extends along the X-axis.

[0126] See also Figures 8 to 10 The adjusting member 51 includes a main body 511 arranged horizontally and a toggle part 512 arranged vertically. The main body 511 is a plate-shaped structure, and is movably abutted against the bottom of the first gas chamber 15 and the second gas chamber 16. The toggle part 512 is fixedly connected to the front end of the main body 511, and is movably located in the adjusting slot 18. When the adjusting member 51 is in the first position, the left end of the toggle part 512 is movably abutted against the inner wall surface of the left end of the adjusting slot 18. When the adjusting member 51 is in the third position, the right end of the toggle part 512 is movably abutted against the inner wall surface of the right end of the adjusting slot 18, thereby limiting the position of the adjusting member 51.

[0127] The main body 511 is provided with a first air inlet distribution port A5111 , a first air inlet distribution port B5112 , and a second air inlet distribution port 5113 , wherein the first air inlet distribution port B5112 and the second air inlet distribution port 5113 both extend along the X-axis direction.

[0128] See also Figure 8 When the adjusting member 51 moves to the first position on the left side, the two second air inlet holes 161 are all within the opening range of the second air inlet distribution port 5113, the first air inlet hole A1511 is closed by the main body 511, and the first air inlet hole B1512 is within the opening range of the first air inlet distribution port B5112. At this time, the two second air inlet holes 161 take in air at the same time, and the air intake of the second air chamber 16 is the largest, and is greater than the air intake of the first air chamber 15.

[0129] See also Fig. 9 When the adjusting member 51 moves to the second position in the middle, only one second air inlet hole 161 is within the opening range of the second air inlet distribution port 5113, the first air inlet hole A1511 is closed by the main body 511, and the first air inlet hole B1512 is within the opening range of the first air inlet distribution port B5112. At this time, only one second air inlet hole 161 takes in air, and the air intake volume of the second air chamber 16 is smaller than that when the adjusting member 51 is in the first position, and the air intake volume of the second air chamber 16 is the same as that of the first air chamber 15.

[0130] See also Fig.10 When the adjusting member 51 moves to the third position on the right side, the two second air inlet holes 161 and the first air inlet hole B1512 are both closed by the main body 511, and the first air inlet hole A1511 is within the opening range of the first air inlet distribution port A5111. At this time, only the first air inlet hole A1511 takes in air, the air intake of the first air chamber 15 is the largest, and the second air chamber 16 does not take in air.

[0131] In some embodiments, the atomization device 1 further includes a heating component (not shown), which is disposed in the housing 10 and corresponds to the movable member 200 and is configured to heat the first atomization substrate in the first accommodating space 210 at the first position.

[0132] The heating component is arranged corresponding to the movable member 200 and does not directly contact the first atomization matrix. It can heat the first atomization matrix in the first accommodating space 210 rotated to the first position by thermal radiation, promote the molecular thermal motion of the first atomization matrix, and compared with the first atomization matrix volatilizing the first aerosol at room temperature, it can significantly increase the volatilization speed and volatilization amount of the first aerosol, promote the generation of the first aerosol, ensure the richness of the aroma of the aerosol during each puff, and enhance the user experience.

[0133] In some other embodiments, the atomization device 1 may also include an ultrasonic atomization component (not shown), which is disposed in the shell 10 and is fluidically connected to the first storage space 210 at the first position, and is configured to ultrasonically atomize the first atomization matrix in the first storage space 210.

[0134] Compared with the method in which the atomizing component 40 directly heats the second atomizing matrix to atomize, ultrasonic atomization can be performed at room temperature, thereby avoiding the damage of high temperature to effective ingredients such as medicinal ingredients, fragrance ingredients, and bioactive ingredients in the first atomizing matrix that are more sensitive to temperature, and also avoiding the problem of gelatinization of the first atomizing matrix caused by high temperature, thereby ensuring the quality, efficacy, and inhalation taste of the first aerosol generated by ultrasonic atomization.

[0135] See also Figures 4 to 5 In some embodiments, the atomization device further includes a positioning assembly, which is disposed between the rotating member 21 and the inner wall of the mounting cavity 14 and is configured to limit the rotation of the rotating member 21. The positioning assembly includes a positioning groove 215 (such as Figure 4 ) and the positioning elastic member 142 (as shown in Figure 5 ), the number of the positioning grooves 215 preferably matches the number of the first accommodation spaces 210, and the positioning grooves 215 are arranged on the outer wall of the rotating member 21 and correspond to the first accommodation spaces 210. At least one positioning elastic member 142 is provided, fixedly connected to the bottom surface of the installation cavity 14, and configured to cooperate with the positioning groove 215 for clamping.

[0136] Among them, when the rotating member 21 rotates any one of the first accommodating spaces 210 to the first position, the positioning elastic member 142 is at least partially elastically engaged with the corresponding positioning groove 215 to limit the rotation of the rotating member 21, thereby realizing the positioning of the rotating member 21, and avoiding the problem that the first accommodating space 210 cannot form an air path connection with the air inlet 11 and the confluence cavity 13 due to insufficient or excessive rotation angle of the rotating member 21. It can also avoid the problem that the rotating member 21 is easily rotated due to external force during use, resulting in the misalignment of the first accommodating space 210 and the accidental switching of the fragrance smell of the first aerosol generated during use.

[0137] See also Figure 1 In some embodiments, the atomization device 1 further includes a window 19, which is formed on the shell 10 and connects the mounting cavity 14 with the external space of the shell 10. The rotating member 21 is at least partially exposed from the window 19, so that the user can move the rotating member 21 through the window 19, which is convenient for the user to use.

[0138] 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, comprising a housing having an air inlet and an air outlet, characterized in that: The atomizing device also includes: A first liquid storage component, used for storing a first atomized substrate, wherein the first atomized substrate is suitable for generating a first aerosol above a first preset temperature; A second liquid storage component, used for storing a second atomized matrix; an atomizing assembly, which is in fluid communication with the second liquid storage assembly and is configured to heat and atomize the second atomizing matrix to generate a second aerosol; a merging chamber, the merging chamber being configured to receive the first aerosol and / or the second aerosol, and the airflow of the merging chamber being connected to the air outlet; Wherein, one of the first aerosol and the second aerosol is discharged from the air outlet through the merging cavity; or, the first aerosol and the second aerosol are mixed in the merging cavity and then discharged from the air outlet.

2. The atomizing device according to claim 1, characterized in that The second atomizing substrate is suitable for generating a second aerosol above a second preset temperature, wherein the first preset temperature is lower than the second preset temperature.

3. The atomizing device according to claim 1, characterized in that The merging cavity has a first air inlet end configured to allow air flow to enter; The first liquid storage component comprises: At least two first storage spaces are configured to store a first atomized substrate, wherein the first storage spaces have an aerosol outlet; A movable member, movably connected in the housing, the movable member being configured to drive the first accommodation space to move from a first position to a second position; When at least one of the first accommodating spaces is in the first position, the aerosol outlet is connected to the first air inlet end through an air path.

4. The atomizing device according to claim 3, characterized in that The movable member includes a rotating member configured to rotate about a central axis to switch the first accommodation space between the first position and the second position.

5. The atomizing device according to claim 4, characterized in that: The first atomization matrix is ​​configured to provide a preset fragrance scent, and different first containing spaces are configured to store first atomization matrices of the same or different fragrance scents.

6. The atomizing device according to claim 4, characterized in that: At least one first air inlet hole is provided at one end of the rotating member, the first air inlet hole is communicated with the corresponding first accommodation space and is configured to allow air flow to enter; The other end of the rotating member is provided with at least one aerosol outlet, the aerosol outlet is communicated with the corresponding first containing space and is configured to allow airflow to be discharged; The first accommodating space at the first position is connected to the air inlet through the first air inlet hole, and is connected to the first air inlet end through the aerosol outlet.

7. The atomizing device according to claim 6, characterized in that At least one of the first accommodating spaces is set to an empty position; The first containing space configured as an empty position does not store the first atomized matrix.

8. The atomizing device according to claim 6, characterized in that: The first liquid storage component also includes: A liquid storage element, disposed in the first containing space, and used for absorbing the first atomized matrix; Wherein, the liquid storage element is provided with a hollow channel, and the hollow channel is connected with the first air inlet and the aerosol outlet.

9. The atomizing device according to claim 3, characterized in that: The merging cavity has a second air inlet end configured to allow air flow to enter; The second liquid storage component comprises: A second containing space is configured to store the second atomized substrate; The atomizing assembly comprises: A liquid guide member, which is in liquid communication with the second accommodating space and is used for adsorbing the second atomized matrix; an atomized airway is provided on the liquid guide member, and the atomized airway is in air communication with the air inlet and the second air inlet end; A heating element is disposed in the atomizing airway and at least partially abuts against the liquid guiding element, and is used for atomizing the second atomizing matrix.

10. The atomizing device according to claim 9, characterized in that: The atomizing device also includes: A first gas bin is disposed at one end of the first liquid storage assembly close to the air inlet, the first gas bin is connected to the air inlet and the first accommodation space at the first position, and is configured to allow air to flow from the air inlet to the first accommodation space; The second gas bin is arranged at one end of the second liquid storage component close to the air inlet. The second gas bin is connected to the air inlet and the atomizing airway and is configured to supply air from the air inlet to the atomizing airway.

11. The atomizing device according to claim 10, characterized in that The atomizing device also includes: The air intake regulating mechanism is connected between the air intake port and the first air chamber and the second air chamber, and is configured to regulate the air intake amount of the first air chamber and the second air chamber.

12. The atomizing device according to any one of claims 3 to 11, characterized in that: The atomizing device also includes: a heating assembly, disposed in the housing, corresponding to the movable member, and configured to heat the first atomized substrate in the first accommodation space at the first position; Alternatively, an ultrasonic atomization component is disposed in the housing, is fluidically connected to the first accommodation space at the first position, and is configured to ultrasonically atomize the first atomization matrix in the first accommodation space.

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