Atomizer and atomizing device

Abstract

This application discloses an atomizer and atomizing device, belonging to the technical field of atomizing devices. The atomizer includes a liquid storage chamber and an atomizing component. The liquid storage chamber and the atomizing component are in liquid-conducting communication. The liquid storage chamber defines an inhalation channel, which extends along a first direction, and the inhalation channel and the atomizing component are in airflow communication along the first direction. The atomizing component has an atomizing surface and a liquid-absorbing surface, wherein the atomizing surface extends along the first direction, and the atomizing surface and the inhalation channel are aligned or have the same direction. The liquid-absorbing surface at least partially defines the liquid storage chamber. In the embodiments of this application, after the aerosol is generated on the atomizing surface, it can be directly inhaled by the user from the inhalation channel. The flow of the aerosol forms a near-linear flow, effectively avoiding eddies, which has the beneficial effect of improving the user experience.

Description

Technical Field

[0001] This application belongs to the technical field of atomizing devices, specifically relating to an atomizer and an atomizing device. Background Technology

[0002] As a healthy and convenient consumer product, atomizers have gained popularity among consumers in recent years. With their increasing popularity, consumers are also demanding more from atomizer users.

[0003] In related technologies, the atomizing component in an atomizer atomizes the atomizing matrix into an aerosol, which is then used by the user from the mouthpiece.

[0004] However, eddies are generated as the airflow from around the atomizing components flows towards the mouthpiece, which can result in a loss of flavor and a poor user experience. Utility Model Content

[0005] The purpose of this application is to provide an atomizer and atomizing device that can solve the problem of poor inhalation and poor user experience in the prior art.

[0006] To solve the above-mentioned technical problems, this application is implemented as follows: In a first aspect, according to embodiments of this application, an atomizer is provided, the atomizer including a liquid storage chamber and an atomizing component, the liquid storage chamber and the atomizing component being in liquid-guiding communication, the liquid storage chamber defining an inhalation channel, the inhalation channel extending along a first direction, and the inhalation channel and the atomizing component being in airflow communication along the first direction; the atomizing component having an atomizing surface and an absorbing surface, wherein the atomizing surface extending along the first direction, the atomizing surface and the inhalation channel being aligned or having the same direction; the absorbing surface at least partially constituting the liquid storage chamber.

[0007] Just as a straight, unobstructed river has low resistance and a smooth flow, a winding river is prone to vortices at bends. In traditional atomizers, if the airflow path has bends, the structure within the atomization area is irregular, or there are obstacles in the airflow path, the airflow is prone to generate eddies due to sudden changes in direction (such as turbulence formed when fluid bypasses an obstacle). In this embodiment, the intake airflow path extends along a first direction (in this application, the first direction is the length direction of the atomizer) and is directly connected to the atomizing component along the same direction, forming a straight airflow path. This arrangement avoids bending, bends, or sudden changes in cross-section of the airflow during the aerosol flow to the mouthpiece, reducing geometric interference with the airflow flow. The atomizing surface of the atomizing component extends along the first direction and is parallel to the extension direction of the intake airflow path. As the core area for aerosol generation, the flat surface of the atomizing surface is aligned with or in the same direction as the airflow, which can reduce the turbulence effect when the airflow comes into contact with the atomizing surface. The liquid absorption surface is designed to absorb the atomizing matrix. The atomizing component atomizes the absorbed atomizing matrix, and the atomizing surface releases the aerosol generated by the atomized matrix. The aerosol can then be released along the inhalation airway.

[0008] Furthermore, the intake duct and atomizing component are linearly connected along the first direction, ensuring that the aerosol flows almost in a straight line from the atomizing component to the nozzle, significantly reducing the conditions for vortex generation caused by changes in direction. The alignment or directional alignment of the atomizing surface with the intake duct allows the atomized aerosol to enter the nozzle along the direction of the intake duct, rather than impacting the airflow perpendicularly or obliquely (the latter easily causes airflow turbulence). This "co-current" design allows for more uniform fusion of the aerosol and the mainstream airflow, avoiding vortices caused by local velocity differences. Furthermore, the atomizing surface acts as an "airflow deflector," and its parallel alignment with the intake duct reduces airflow separation at the edge of the atomizing surface (separation is one of the main causes of vortex generation).

[0009] In the embodiments of this application, after the aerosol is generated on the atomizing surface, it can be directly inhaled by the user through the inhalation channel. The flow of the aerosol forms a near "straight flow" which effectively avoids eddies and has the beneficial effect of improving the user experience.

[0010] Optionally, in this embodiment of the application, the projection of the atomizing surface along the first direction is within the projection range of the inhalation airway.

[0011] Optionally, in embodiments of this application, the atomizing surface defines at least a portion of the inhalation airway.

[0012] Optionally, in an embodiment of this application, the atomizer includes a housing and a support assembly. The housing has a mouthpiece, which is inserted into the liquid storage cavity to define the inhalation channel. The support assembly is disposed within the housing and is connected and communicates with the mouthpiece. The support assembly has an installation structure, which is disposed on one side of the air inlet end of the inhalation channel. The atomizing component is snapped into the installation structure.

[0013] Optionally, in this embodiment, along the second direction, the side of the mounting structure near the air intake channel is flush with the inner wall of the nozzle; the atomizing surface protrudes from the mounting structure along the second direction towards the air intake channel; wherein, the second direction intersects the first direction.

[0014] Optionally, in this embodiment of the application, the atomizer further includes a first conductive element, one end of which is electrically connected to the heating element of the atomizing surface, and the other end of which is used to electrically connect to a power supply component; wherein the length direction of the first conductive element is arranged along the first direction.

[0015] Optionally, in this embodiment of the application, the support assembly has a first liquid inlet on the side near the liquid storage chamber, and the mounting structure has a second liquid inlet on the side facing the first liquid inlet. The liquid storage chamber and the atomizing assembly are connected through the first liquid inlet and the second liquid inlet.

[0016] Optionally, in this embodiment of the application, an atomizing device is also provided, including: an atomizer as described above; a power supply component; the power supply component and the atomizer are arranged side by side, and the power supply component and the atomizer are electrically connected to provide operating voltage for the atomizer.

[0017] Optionally, in this embodiment, a liquid storage bottle is also included, which is detachably connected to the bracket assembly of the atomizer.

[0018] Optionally, in an embodiment of this application, the power supply component includes a second conductive element, which is electrically connected to the first conductive element of the atomizer. Attached Figure Description

[0019] Figure 1 This is a schematic diagram of the atomizing device in the embodiments of this application; Figure 2 This is a cross-sectional structural diagram of the atomizing device in the embodiments of this application; Figure 3 This is an embodiment of the present application. Figure 2 A schematic diagram of the structure at point A in the middle.

[0020] Explanation of reference numerals in the attached figures: 10. Atomizer; 11. Atomizing assembly; 111. Atomizing surface; 112. Liquid absorption surface; 12. Housing; 121. Nozzle; 13. Support assembly; 131. Mounting structure; 1311. Second liquid inlet; 132. First liquid inlet; 14. First conductive element; 15. Liquid storage bottle; 20. Power supply assembly; 21. Second conductive element; 30. Inhalation channel; 40. Liquid storage chamber; Y, first direction; X, second direction. Detailed Implementation

[0021] The technical solutions of the embodiments of this application will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of this application, not all embodiments. Based on the embodiments of this application, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of this application.

[0022] The terms "first," "second," etc., used in the specification and claims of this application are used to distinguish similar objects and not to describe a specific order or sequence. It should be understood that such use of data can be interchanged where appropriate so that embodiments of this application can be implemented in orders other than those illustrated or described herein, and the objects distinguished by "first," "second," etc., are generally of the same class and the number of objects is not limited; for example, a first object can be one or more. Furthermore, in the specification and claims, "and / or" indicates at least one of the connected objects, and the character " / " generally indicates that the preceding and following objects are in an "or" relationship.

[0023] The atomizer and atomizing device provided in this application will be described in detail below with reference to the accompanying drawings, through specific embodiments and application scenarios.

[0024] See Figures 1 to 3 An embodiment of this application provides an atomizer 10, which includes a liquid storage chamber 40 and an atomizing component 11. The liquid storage chamber 40 and the atomizing component 11 are in liquid-conducting communication. The liquid storage chamber 40 defines an air intake channel 30, which extends along a first direction Y. The air intake channel 30 and the atomizing component 11 are in airflow communication along the first direction Y. The atomizing component 11 has an atomizing surface 111 and a liquid-absorbing surface 112, wherein the atomizing surface 111 extends along the first direction Y, and the atomizing surface 111 and the air intake channel 30 are aligned or have the same direction. The liquid-absorbing surface 112 at least partially defines the liquid storage chamber 40.

[0025] Just as a straight and unobstructed river has low resistance and a smooth flow, a winding river is prone to forming eddies at bends. In a traditional atomizer 10, if the airway has bends or irregular structures within the atomization area, or if there are obstacles in the airway, the airflow is prone to generate eddies due to sudden changes in direction (such as turbulence formed when fluid bypasses an obstacle). In this embodiment, the intake airway 30 extends along the first direction Y (in this application, the first direction Y is the length direction of the atomizer 10) and is directly connected to the atomization component 11 in the same direction, forming a straight airflow path. This arrangement avoids bending, cornering, or sudden changes in cross-section of the airflow during the aerosol flow to the nozzle 121, reducing geometric interference with the airflow. The atomization surface 111 of the atomization component 11 extends along the first direction Y and is parallel to the extension direction of the intake airway 30. As the core area for aerosol generation, the flat surface of the atomization surface 111 is aligned with or in the same direction as the airflow, which can reduce the turbulence effect when the airflow comes into contact with the atomization surface. The liquid absorption surface 112 is used to absorb the atomizing matrix. The atomizing component 11 atomizes the absorbed atomizing matrix. After the atomizing surface 111 releases the aerosol generated by the atomized matrix, the aerosol can be released along the inhalation airway.

[0026] Furthermore, the intake airway 30 and the atomizing component 11 are linearly connected along the first direction Y. The path of the aerosol generated from the atomizing component 11 to the nozzle 121 is close to a "straight flow," significantly reducing the conditions for vortex generation caused by changes in direction. The alignment or directional alignment of the atomizing surface 111 with the intake airway 30 allows the atomized aerosol to enter the nozzle 121 in the direction of the intake airway 30, rather than impacting the airflow vertically or obliquely (the latter easily causes airflow turbulence). This "co-current" design makes the fusion of aerosol and mainstream airflow more uniform, avoiding vortices caused by local velocity differences. Furthermore, the atomizing surface 111 acts as an "airflow guide," and its parallel alignment with the intake airway 30 reduces airflow separation at the edge of the atomizing surface (separation is one of the main causes of vortex generation).

[0027] In this embodiment, after the aerosol is generated on the atomizing surface 111, it can be directly inhaled by the user through the inhalation channel 30. The flow of the aerosol forms a near "straight flow" which effectively avoids eddies and has the beneficial effect of improving the user experience.

[0028] Optionally, in this embodiment of the application, the projection of the atomizing surface 111 along the first direction Y is within the projection range of the inhalation airway 30.

[0029] In this embodiment, the area where the atomizing surface 111 generates aerosol is "completely enveloped" by the airway. If the projection of the atomizing surface 111 exceeds the projection of the inhalation airway 30, the edge of the atomizing surface will become a "protruding obstacle" to the airflow. When the airflow passes over it, the boundary layer is prone to separate at the protrusion, forming eddies (similar to the turbulence phenomenon when a fluid bypasses a step). The overlapping projection design ensures that the atomizing surface 111 is enveloped by the airway wall in the first direction Y, allowing the airflow to flow smoothly over the atomizing surface 111 and reducing separation points. Since the projection of the atomizing surface 111 is within the projection of the inhalation airway 30, it means that the aerosol generation area may also coincide with the central axis of the inhalation airway 30. The aerosol can directly enter the airflow "axially" along the direction of the inhalation airway 30, rather than "radially" impacting the airway wall (radial impact easily causes airflow deflection and eddies). This design makes the fusion of aerosol and mainstream airflow more uniform, avoiding turbulence caused by local velocity differences.

[0030] In this embodiment, by setting the projection of the atomizing surface 111 within the projection range of the intake airway 30, without increasing structural complexity, it can work in synergy with the design of "the atomizing surface 111 being parallel to the airway" to form a dual airflow optimization mechanism of "spatial projection + directional parallelism", which has the beneficial effect of reducing vortices in the intake airway 30 and improving user experience.

[0031] Furthermore, the aerosols generated in the above setup can all flow from the inhalation airway 30 to the user without excessive diffusion leading to waste.

[0032] Optionally, in an embodiment of this application, the atomizing surface 111 defines at least a portion of the inhalation airway 30.

[0033] In this embodiment, the above configuration means that at least a portion of the atomizing surface 111 can directly serve as the inner wall of the inhalation channel 30 (i.e., the boundary between the atomizing surface 111 and the inhalation channel 30 coincides). This structure allows the aerosol to enter the inhalation channel 30 defined by the atomizing surface 111 the instant it is generated, forming a direct flow relationship of "generation into channel", fundamentally shortening the physical path of the aerosol from generation to entry into the inhalation channel 30.

[0034] Furthermore, when the atomizing surface 111 directly serves as at least part of the boundary of the inhalation channel 30, the aerosol generated from the atomizing surface 111 does not need to pass through additional gaps and flows directly within the channel defined by itself. The flow boundary is continuous and smooth, avoiding airflow disturbances caused by gaps and eliminating the basis for vortex generation from a physical structure perspective.

[0035] Furthermore, when the atomizing surface 111 defines at least a portion of the intake airway 30, the cross-sectional shape of the intake airway 30 is more closely matched with the contour of the atomizing surface 111 (e.g., the edge of the atomizing surface 111 directly constitutes part of the cross-section of the intake airway 30), the airflow cross-section smoothly transitions from the atomizing region to the intake airway 30 region, the flow velocity is uniformly distributed, and the eddies caused by abrupt changes in cross-section are reduced.

[0036] Optionally, in this embodiment, the atomizer 10 includes a housing 12 and a support assembly 13. The housing 12 has a nozzle 121, which is inserted into the liquid storage chamber 40 to define an air intake channel 30. The support assembly 13 is disposed inside the housing 12 and is connected and communicates with the nozzle 121. The support assembly 13 has an installation structure 131, which is disposed on one side of the air intake end of the air intake channel 30. The atomizing component 11 is snapped into the installation structure 131.

[0037] In this embodiment, the housing 12 serves as a support frame, with the nozzle 121 at one end forming an air intake channel 30 (a straight cylindrical channel) enclosed by the inner wall. One end of this channel is the air inlet (near the atomizing area 40), and the other end is the user's inhalation end. When the user inhales, the airflow follows the flow logic of "atomizing surface 111 → air inlet → air intake channel 30 → nozzle 121". The support assembly 13 is fixed inside the housing 12. The support assembly 13 is connected to the inlet of the air intake channel 30 of the nozzle 121 by snap-fit ​​or thread, and then sealed by a sealing element. The support assembly 13 also has an installation structure 131 (such as a U-shaped groove or a boss positioning groove) to lock the atomizing assembly 11. The above arrangement allows the aerosol generated by the atomizing surface 111 to flow with the airflow along the first direction Y to the air intake channel 30. The mounting structure 131 is located on one side of the air inlet end of the inhalation channel 30, making the position of the atomizing component 11 closer to the airflow inlet of the inhalation channel 30, forming a "first atomization, then acceleration" transmission mode. The airflow speed is low in the atomization area (due to the buffer formed by the expansion of space), which can uniformly carry the aerosol. After entering the inhalation channel 30, it accelerates due to the cross-sectional contraction and is finally inhaled by the user through the mouthpiece 121 at a stable flow rate, which helps to improve the user experience.

[0038] Furthermore, the design of the mounting structure 131 close to the air intake end shortens the transmission distance of the aerosol from the atomization area to the air intake channel, which has the beneficial effect of reducing condensation loss during transmission and increasing the effective atomization amount inhaled by the user.

[0039] Optionally, in this embodiment, along the second direction X, the side of the mounting structure 131 near the air intake passage 30 is flush with the inner wall of the nozzle 121; the atomizing surface 111 protrudes from the mounting structure 131 along the second direction X towards the air intake passage 30; wherein, the second direction X and the first direction Y intersect.

[0040] In this embodiment, along the second direction X, the side of the mounting structure 131 closest to the intake airway 30 is flush with the inner wall of the nozzle 121, meaning that their projected boundaries on the cross-section (the plane perpendicular to the first direction Y) coincide, forming a smooth inner wall profile. The atomizing surface protrudes along the second direction X towards the central axis of the intake airway 30, meaning the projection of the atomizing surface on the cross-section extends beyond the profile of the mounting structure 131 and is directly exposed to the airflow in the intake airway 30. The flush alignment of the mounting structure 131 with the inner wall of the nozzle 121 ensures that the inner wall of the intake airway 30 forms a continuous and smooth curved surface (without steps or grooves) in the second direction X, allowing the airflow boundary layer (the low-speed airflow layer close to the wall) to adhere stably and preventing eddies and boundary layer separation caused by abrupt changes in the wall surface. The protruding atomizing surface 111 allows the aerosol generated on the atomizing surface 111 to directly enter the inhalation airway 30. In this embodiment, the combination of the protruding atomizing surface 111 and the flush mounting structure 131 allows the user to intuitively feel the "resistance-free" airflow during inhalation, similar to the smooth experience of drinking a liquid beverage, which has the beneficial effect of improving the user experience.

[0041] Optionally, in this embodiment of the application, the atomizer 10 further includes a first conductive element 14, one end of which is electrically connected to the heating element of the atomizing surface 111, and the other end of which is used to electrically connect to the power supply assembly 20; wherein, the length direction of the first conductive element 14 is arranged along the first direction Y.

[0042] In this embodiment, the resistance of the conductive element is proportional to its length (R=ρL / S). The first conductive element 14 is arranged along the first direction to minimize its length, thereby reducing the resistance. For example, if a detour is used to connect the power supply component and the heating element, the length of the conductive element increases, the resistance increases, and more electrical energy is converted into heat energy and consumed in the wires instead of being used to heat the atomizing matrix.

[0043] Furthermore, the air intake channel 30 extends along the first direction Y, occupying the main longitudinal space inside the atomizer 10. If the first conductive element 14 adopts a path other than the first direction Y (such as transverse or oblique), it may need to bypass the air intake channel 30, resulting in structural redundancy or increased volume. By arranging the first conductive element 14 along the first direction Y, and making it parallel to the first conductive element 14 in the longitudinal space, the remaining space around the air intake channel 30 can be fully utilized, achieving space reuse and reducing the overall volume of the atomizer 10.

[0044] Furthermore, the first direction Y serves as the common extension direction of the intake duct 30 and the first conductive component 14, ensuring that their assembly directions are consistent. For example, during production, the components surrounding the intake duct 30 can be assembled first along the first direction Y, and then the first conductive component 14 can be installed along the same direction, avoiding the complexity caused by multi-directional operations and reducing assembly difficulty and cost.

[0045] It should be noted that if the first conductive element 14 is positioned in a direction other than the first Y, it may need to penetrate or bypass the airway wall of the intake airway 30, resulting in discontinuities in the airway wall (such as openings or protrusions), which in turn interferes with the airflow. Positioning the first conductive element 14 along the first Y direction allows it to be arranged in the intake airway 30 or at a position parallel to the intake airway 30, maintaining the smoothness and integrity of the inner wall of the airway and continuing to reduce the turbulence effect.

[0046] In this embodiment, the first conductive element 14 is arranged along the first direction Y. By constructing the shortest conductive path, optimizing space utilization, and coordinating airflow design, multiple goals are achieved, including efficient power transmission, compact structure, improved safety and reliability, and optimized atomization performance. This design reflects the systematic optimization of the atomizer 10 in terms of electricity, mechanics, and fluid dynamics, and is a key technical detail for improving user experience.

[0047] Optionally, in this embodiment, the support assembly 13 has a first liquid inlet 132 on the side near the liquid storage chamber 40, and the mounting structure 131 has a second liquid inlet 1311 on the side facing the liquid inlet. The liquid storage chamber 40 and the atomizing assembly 11 are connected through the first liquid inlet 132 and the second liquid inlet.

[0048] In this embodiment, the support assembly 13 is a structural support component inside the atomizer 10. A first liquid inlet 132 is provided on the side near the liquid storage chamber 40 to allow the atomized matrix from the liquid storage chamber 40 to be discharged. The mounting structure 131 is typically used to fix the atomizing assembly 11 (including the atomizing surface 111 and the liquid absorption surface 112). A second liquid inlet 1311 is provided on the side facing the first liquid inlet 132 to precisely guide the atomized matrix to the atomizing assembly 11 (especially the area where the liquid absorption surface 112 is located). Together, they form a unique path: "liquid storage chamber 40 → first liquid inlet 132 → second liquid inlet 1311 → atomizing assembly 11," preventing the atomized matrix from spreading disorderly inside the atomizer 10 (such as seeping into the circuit area or airway gaps).

[0049] Furthermore, the liquid-absorbing surface 112 at least partially defines the liquid storage cavity 40. It is understood that the liquid-absorbing surface 112 is the boundary structure between the liquid storage cavity 40 and the atomizing area, and is also the core area where the atomizing matrix needs to directly contact. The second liquid inlet 1311 is opened facing the first liquid inlet 132, and its position can be precisely aligned with the layout of the liquid-absorbing surface 112 (e.g., the atomizing matrix requirement area directly opposite the liquid-absorbing surface 112), ensuring that the atomizing matrix directly acts on the liquid-absorbing surface 112 after passing through the two holes, providing a continuous atomizing matrix for the atomizing assembly 11 (e.g., the heating element).

[0050] In this embodiment, the design of the first liquid inlet 132 and the second liquid inlet 1311, by constructing a directional and controllable liquid guiding path, not only ensures the continuous demand of the atomizing component 11 for the atomizing matrix (avoiding dry burning), but also coordinates with the layout of the intake airway 30 and the atomizing surface 111 to reduce interference with airflow and atomization effect.

[0051] Optionally, this application embodiment also provides an atomizing device, including: an atomizer 10 as described above; a power supply component 20; the power supply component 20 and the atomizer 10 are arranged side by side, and the power supply component 20 and the atomizer 10 are electrically connected to provide operating voltage for the atomizer 10.

[0052] In this embodiment, the atomizing device includes a power supply component 20 and an atomizer 10, with the atomizer 10 connected to one end of the power supply component 20. Specifically, the structure of the atomizer 10 can be referred to in the above embodiments. The power supply component 20 also includes a power source, such as a battery, which is configured to supply power to the atomizing device to enable its functionality. Since the atomizing device employs all the technical solutions of all the above embodiments of the atomizer 10, it possesses at least all the beneficial effects brought about by the technical solutions of the above embodiments, which will not be elaborated upon here.

[0053] Furthermore, the atomizer 10 and the power supply assembly 20 are arranged side by side. This side-by-side arrangement allows for a large e-liquid volume in the atomizer 10 without increasing the overall height of the product, effectively meeting users' requirements for miniaturized atomizing devices. The atomizer 10 is detachably connected to one side of the power supply assembly 20. By detachably connecting the atomizer 10 to the power supply assembly 20, users can easily replace the atomizer 10 as needed, extending the lifespan of the electronic atomizing device and improving the user experience.

[0054] Furthermore, the atomizing device in this application can be applied to various atomization scenarios. For example, it can be used in medical aesthetics, nicotine delivery, and daily life atomization scenarios. The aerosol atomization matrix can be pharmaceutical powder, fragrance, nicotine preparations, or aerosol matrices that can produce special odors. Those skilled in the art will understand that the atomizing device can have various application scenarios, and the embodiments of this application do not limit the application scenarios of the atomizing device.

[0055] Optionally, in this embodiment of the application, the atomizing device further includes a liquid storage bottle 15, which is disposed inside the housing 12, and the liquid storage bottle 15 and the support assembly 13 are detachably connected.

[0056] In this embodiment, compared to traditional atomizing devices that require waiting for the atomizing matrix to be injected and for the liquid-conducting material (such as a cotton wick) to permeate, the replacement time for the detachable liquid storage bottle 15 is only a few seconds (e.g., a plugging and unplugging action). Furthermore, the liquid-conducting channel of the new liquid storage bottle 15 is pre-filled with liquid, allowing for immediate use after replacement, significantly improving efficiency. In addition, users can store multiple liquid storage bottles 15 pre-filled with different flavors to quickly switch atomization flavors (e.g., using different flavors in different scenarios), eliminating the need for frequent cleaning or replacement of the entire device, thus expanding the product's application scenarios. If the liquid storage bottle 15 is damaged (e.g., cracked or leaking), only the liquid storage bottle 15 itself needs to be replaced; there is no need to replace the entire atomizer 10 or the support assembly 13, significantly reducing maintenance costs.

[0057] Optionally, in this embodiment of the application, the power supply component 20 includes a second conductive element 21, which is electrically connected to the first conductive element 14 of the atomizer 10.

[0058] In this embodiment, the second conductive element 21 may be a conductive spring. One end of the conductive spring is connected to the power supply in the power supply assembly 20, and the other end can be electrically connected to the first conductive element 14 through a wire, so as to realize the power supply assembly 20 to supply power to the atomizer 10.

[0059] It should be noted that, in this document, the terms "comprising," "including," or any other variations thereof are intended to cover non-exclusive inclusion, such that a process, method, article, or apparatus that comprises a list of elements includes not only those elements but also other elements not expressly listed, or elements inherent to such a process, method, article, or apparatus. Without further limitations, an element defined by the phrase "comprising one..." does not exclude the presence of other identical elements in the process, method, article, or apparatus that includes that element. Furthermore, it should be noted that the scope of the methods and apparatuses in the embodiments of this application is not limited to performing functions in the order shown or discussed, but may also include performing functions substantially simultaneously or in the reverse order, depending on the functions involved. For example, the described methods may be performed in a different order than described, and various steps may be added, omitted, or combined. Additionally, features described with reference to certain examples may be combined in other examples.

[0060] The embodiments of this application have been described above with reference to the accompanying drawings. However, this application is not limited to the specific embodiments described above. The specific embodiments described above are merely illustrative and not restrictive. Those skilled in the art can make many other forms under the guidance of this application without departing from the spirit and scope of the claims, and all of these forms are within the protection scope of this application.

Claims

1. An atomizer (10) characterized by, The atomizer (10) includes a liquid storage chamber (40) and an atomizing component (11). The liquid storage chamber (40) and the atomizing component (11) are in liquid-guiding communication. The liquid storage chamber (40) defines an inhalation channel (30). The inhalation channel (30) extends along a first direction (Y), and the inhalation channel (30) and the atomizing component (11) are in airflow communication along the first direction (Y). The atomizing component (11) has an atomizing surface (111) and a liquid-absorbing surface (112), wherein the atomizing surface (111) extends along the first direction (Y), and the atomizing surface (111) and the inhalation channel (30) are aligned or have the same direction; The liquid-absorbing surface (112) at least partially constitutes a liquid storage cavity (40).

2. The atomizer (10) according to claim 1, characterized in that Along the first direction (Y), the projection of the atomizing surface (111) is within the projection range of the inhalation airway (30).

3. The atomizer (10) of claim 1, characterized in that, The atomizing surface (111) defines at least a portion of the inhalation airway (30).

4. The atomizer (10) of claim 2, characterized in that The atomizer (10) includes a housing (12) and a support assembly (13). The housing (12) has a mouthpiece (121) which is inserted into the liquid storage chamber (40) to define the air intake channel (30). The support assembly (13) is disposed in the housing (12) and is connected and communicates with the mouthpiece (121). The support assembly (13) has an installation structure (131) which is disposed on one side of the air intake end of the air intake channel (30). The atomizing component (11) is snapped into the installation structure (131).

5. The atomizer (10) according to claim 4, characterized in that, Along the second direction (X), the side of the mounting structure (131) near the air intake passage (30) is flush with the inner wall of the nozzle (121); The atomizing surface (111) protrudes from the mounting structure (131) along the second direction (X) toward the direction of the inhalation airway (30); The second direction (X) intersects with the first direction (Y).

6. The atomizer (10) according to claim 1, characterized in that, The atomizer (10) further includes a first conductive element (14), one end of which is electrically connected to the heating element of the atomizing surface (111), and the other end of which is electrically connected to the power supply assembly (20); wherein, The length direction of the first conductive element (14) is set along the first direction (Y).

7. The atomizer (10) according to claim 4, characterized in that, The support assembly (13) has a first liquid inlet (132) on the side near the liquid storage chamber (40), and the mounting structure (131) has a second liquid inlet (1311) on the side facing the first liquid inlet (132). The liquid storage chamber (40) and the atomizing assembly (11) are connected through the first liquid inlet (132) and the second liquid inlet (1311).

8. An atomizing device, characterized in that, include: Atomizer (10) as described in any one of claims 1 to 7; Power supply components (20); The power supply component (20) and the atomizer (10) are arranged side by side and are electrically connected to provide operating voltage to the atomizer (10).

9. The atomizing device according to claim 8, characterized in that, It also includes a reservoir (15) which is detachably connected to the support assembly (13) of the atomizer (10).

10. The atomizing device according to claim 8, characterized in that, The power supply component (20) includes a second conductive element (21), which is electrically connected to the first conductive element (14) of the atomizer (10).

Images