CN217658169U - Micropore atomization component and ultrasonic atomization device - Google Patents

Abstract

The application discloses micropore atomization component and ultrasonic atomization device, micropore atomization component includes micropore atomizing piece and circuit board. A microporous nebulizing sheet for nebulizing an aerosol-generating substrate to produce an aerosol; the circuit board is flexibly and electrically connected with the micropore atomization sheet so as to transmit the electric signal of the circuit board to the micropore atomization sheet. The circuit board is connected with the micropore atomization sheet through the flexible material, so that the problems that in the prior art, the performance parameters of the atomization sheet are attenuated, the product consistency is poor and the rejection rate is high when an electric soldering iron is heated and welded on the micropore atomization sheet are solved. Meanwhile, the force generated by vibration atomization of the micropore atomization sheet can be greatly buffered by adopting a flexible connection mode, so that the force acting on the micropore atomization sheet can be ignored, the micropore atomization sheet keeps the natural frequency to do circumferential and radial vibration without attenuation, and the atomization effect is good.

Description

Micropore atomization component and ultrasonic atomization device

Technical Field

The application relates to the technical field of atomization, in particular to a micropore atomization assembly and an ultrasonic atomization device.

Background

In the related art, an ultrasonic atomizing device includes a power supply assembly and a micro-hole atomizing assembly. The atomizing sheet electric signal lead of the micropore atomizing assembly is welded on the atomizing ceramic sheet by heating the electric soldering iron, so that the performance parameters of the atomizing sheet are attenuated, and the consistency of products is poor.

SUMMERY OF THE UTILITY MODEL

In view of this, the application provides a micropore atomization subassembly and ultrasonic atomization device to solve among the prior art electric iron heating welding on atomizing ceramic chip, atomizing piece performance parameter decay, the poor problem of product uniformity.

In order to solve the above technical problem, a first technical solution provided by the present application is: a microporous atomization assembly is provided that includes a microporous atomization sheet and a circuit board. A microporous nebulizing sheet for nebulizing an aerosol-generating substrate to produce an aerosol; the circuit board is flexibly and electrically connected with the micropore atomization sheet so as to transmit the electric signal of the circuit board to the micropore atomization sheet.

And a flexible conductor is arranged between the circuit board and the micropore atomization sheet and is respectively contacted with the circuit board and the micropore atomization sheet so as to realize flexible electric connection between the circuit board and the micropore atomization sheet.

The circuit board and the micropore atomization sheet are fixedly connected through the viscosity of the flexible electric conductor or the viscosity layer on the surface of the flexible electric conductor.

The micropore atomization assembly further comprises a clamping assembly, and the circuit board is fixedly connected with the micropore atomization sheet through the clamping assembly. The clamping assembly comprises: the first rigid fixing piece is arranged on one side of the micropore atomization sheet; and the second rigid fixing piece is arranged on the other side of the micropore atomization sheet and is matched with the first rigid fixing piece to clamp the circuit board and the micropore atomization sheet.

The circuit board is arranged between the micropore atomization sheet and the first rigid fixing piece; the second rigid fixing piece is provided with a first through hole; the micropore atomization assembly further comprises a conductive piece, the conductive piece is arranged in the first through hole, one end of the conductive piece is electrically connected with the circuit board, and the other end of the conductive piece is used for being connected with an external lead.

The surface of the second rigid fixing piece, which is far away from the first rigid fixing piece, is provided with a first groove, and the first through hole is formed in the bottom wall of the first groove; the conductive piece comprises a connecting part and an extending part, and the diameter of the connecting part is larger than that of the extending part; the connecting portion is connected to the first groove, and the extending portion is clamped to the first through hole.

Wherein, the centre gripping subassembly still includes: the first flexible fixing piece is arranged between the first rigid fixing piece and the micropore atomization sheet; and the second flexible fixing piece is arranged between the second rigid fixing piece and the micropore atomization sheet.

The micropore atomization sheet comprises a metal substrate, wherein a plurality of atomization holes are formed in the metal substrate; the first rigid fixing piece, the second rigid fixing piece, the first flexible fixing piece and the second flexible fixing piece are all annular bodies, and the plurality of atomization holes are exposed through holes of the annular bodies.

The flexible electric conductor is conductive rubber or conductive foam.

In order to solve the above technical problem, a second technical solution provided by the present application is: an ultrasonic atomization device is provided that includes a micro-porous atomization assembly, a power supply assembly, and a housing. The microporous atomizing component is any one of the microporous atomizing components; the power supply assembly is connected with the micropore atomization assembly and used for supplying power to the micropore atomization assembly; micropore atomization component set up in on the shell, the shell with micropore atomization component cooperation forms the stock solution storehouse, the stock solution storehouse is used for saving aerosol and generates the matrix.

The beneficial effect of this application: unlike the prior art, the microporous atomization assembly of the present application includes a microporous atomization sheet and a circuit board. A microporous nebulizing sheet for nebulizing an aerosol-generating substrate to produce an aerosol; the circuit board is flexibly and electrically connected with the micropore atomization sheet so as to transmit the electric signal of the circuit board to the micropore atomization sheet. The circuit board and the micropore atomization sheet are connected through the flexible material, and the problems that in the prior art, the performance parameters of the atomization sheet are attenuated and the consistency of products is poor when an electric soldering iron is heated and welded on the micropore atomization sheet are solved. Simultaneously, adopt flexible electric connection mode can greatly cushion the power that micropore atomizing piece vibration atomizing produced for the power that is used in micropore atomizing piece can be ignored, makes micropore atomizing piece keep natural frequency to do circumference and radial vibration and not attenuate, and atomization effect is good.

Drawings

In order to more clearly illustrate the technical solutions in the embodiments of the present application, the drawings required to be used in the description of the embodiments are briefly introduced below, and it is obvious that the drawings in the description below are only some embodiments of the present application, and it is obvious for those skilled in the art to obtain other drawings without creative efforts.

FIG. 1 is a schematic structural diagram of an ultrasonic atomizing device provided in the present application;

FIG. 2 is a schematic diagram illustrating an exploded view of a micro-porous atomizing assembly in one embodiment provided herein;

FIG. 3 is a front cross-sectional view of a micro-porous atomizing assembly in one embodiment provided herein;

FIG. 4 is a schematic diagram of a detailed construction of the microporous atomizing assembly provided in FIG. 2;

FIG. 5 is a first perspective view of the first rigid mount provided in FIG. 2;

FIG. 6 is a second perspective view of the first rigid mount provided in FIG. 2;

FIG. 7 is a schematic view of a first perspective of the second rigid mount provided in FIG. 2;

FIG. 8 is a second perspective view of the second rigid mount provided in FIG. 2;

FIG. 9 is a schematic view of a first perspective structure of the second flexible mount provided in FIG. 2;

FIG. 10 is a second perspective view of the second flexible mount provided in FIG. 2;

fig. 11 is a schematic structural diagram of a circuit board according to an embodiment of the present disclosure.

Detailed Description

The technical solutions in the embodiments of the present application will be clearly and completely described below with reference to the drawings in the embodiments of the present application, and it is obvious that the described embodiments are only a part of the embodiments of the present application, and not all of the embodiments. All other embodiments, which can be derived by a person skilled in the art from the embodiments given herein without making any creative effort, shall fall within the protection scope of the present application.

The terms "first", "second", and the like in this application are used for descriptive purposes only and are not to be construed as indicating or implying relative importance or implicitly indicating the number of technical features indicated. Thus, a feature defined as "first," "second," may explicitly or implicitly include at least one of the feature. In the embodiment of the present application, all directional indicators (such as up, down, left, right, front, rear \8230;) are used only to explain the relative positional relationship between the components, the motion situation, etc. at a specific posture (as shown in the drawing), and if the specific posture is changed, the directional indicator is changed accordingly. Furthermore, the terms "include" and "have," as well as any variations thereof, are intended to cover non-exclusive inclusions. For example, a process, method, system, article, or apparatus that comprises a list of steps or elements is not limited to only those steps or elements listed, but may alternatively include other steps or elements not listed, or inherent to such process, method, article, or apparatus.

Reference herein to "an embodiment" means that a particular feature, structure, or characteristic described in connection with the embodiment can be included in at least one embodiment of the application. The appearances of the phrase in various places in the specification are not necessarily all referring to the same embodiment, nor are separate or alternative embodiments mutually exclusive of other embodiments. It is explicitly and implicitly understood by one skilled in the art that the embodiments described herein can be combined with other embodiments.

Referring to fig. 1, fig. 1 is a schematic structural diagram of an ultrasonic atomizing device provided in the present application.

The ultrasonic atomization device can be used for atomization of liquid substrates and comprises a micropore atomization component 1, a power supply component 2 and a shell 3, wherein the power supply component 2 is electrically connected with the micropore atomization component 1 and used for supplying power to the micropore atomization component 1. Micropore atomization component 1 sets up on shell 3, and the closed region that shell 3 and micropore atomization component 1 cooperation formed is stock solution storehouse 5, and stock solution storehouse 5 is used for storing aerosol and generates substrate. The shape and the size of the liquid storage bin 5 are not limited, and the liquid storage bin can be designed according to the requirement. The power supply component 2 is fixedly connected with the shell 3, and under the driving of the power supply component 2, the micropore atomization component 1 vibrates to atomize the liquid aerosol generating substrate in the liquid storage bin 5 to form aerosol which can be sucked by a user, wherein the liquid aerosol generating substrate can be liquid substrates such as liquid medicine, plant grass leaf aerosol generating substrate and the like. The microporous atomizing assembly 1 is particularly useful in different fields, such as medical, cosmetic, leisure, smoking, etc. The power supply module 2 includes a battery (not shown), an airflow sensor (not shown), a controller (not shown), and the like. The battery is used to power the microporous atomizing assembly 1 such that the microporous atomizing assembly 1 is capable of atomizing an aerosol-generating substrate to form an aerosol. The air flow sensor is used for detecting air flow change in the ultrasonic atomization device, and the controller starts the ultrasonic atomization device according to the air flow change detected by the air flow sensor. The housing 3 and the power module 2 may be integrally formed or detachably connected, and are designed according to specific requirements. In this embodiment, the housing 3 and the power supply module 2 are detachably connected, and the micro-hole atomizing module 1 and the power supply module 2 are also detachably connected, for example, the housing 3 and the power supply module 2 may be connected by a snap-fit, or may be connected by providing a magnetic connector in the housing 3 and the power supply module 2, respectively, and the micro-hole atomizing module 1 and the power supply module 2 are connected by an electrode thimble.

The housing 3 is not limited in shape and material and may be made of metal such as aluminium, stainless steel or the like, as long as it does not react with the aerosol-generating substrate to cause it to deteriorate. In one embodiment, an annular groove 4 is formed on the inner side wall of the housing 3, and the edge of the micro-pore atomizing assembly 1 is embedded in the annular groove 4 and fixed to the annular groove 4 by adhesive.

Referring to fig. 2 to 3, fig. 2 is a schematic diagram illustrating an exploded structure of a micro orifice atomizing assembly according to an embodiment of the present disclosure, and fig. 3 is a sectional front view of the micro orifice atomizing assembly according to an embodiment of the present disclosure.

The micro-hole atomizing assembly 1 includes a micro-hole atomizing sheet 10, a circuit board 20, a flexible electric conductor 30, a clamping assembly 40 and a conductive member 50. Therein, a microporous nebulizing sheet 10 is used for nebulizing an aerosol-generating substrate. The circuit board 20 is flexibly electrically connected to the microporous atomization sheet 10 to transmit electrical signals of the circuit board 20 to the microporous atomization sheet 10. The flexible electric conductor 30 is arranged between the circuit board 20 and the microporous atomization sheet 10, and the flexible electric conductor 30 is respectively contacted with the circuit board 20 and the microporous atomization sheet 10 to realize flexible electric connection between the circuit board 20 and the microporous atomization sheet 10. The circuit board 20 and the microporous atomization sheet 10 may be fixedly connected by the clamping assembly 40 or may be fixedly connected in other ways. The conductive member 50 is electrically connected to the circuit board 20 for connecting the power module 2.

Referring to fig. 4, fig. 4 is a schematic structural diagram of the micro-orifice atomizing assembly provided in fig. 2.

In one embodiment, the microporous atomization sheet 10 is a ceramic atomization sheet. The microporous atomization sheet 10 includes a piezoelectric ceramic sheet 11 and a metal substrate 12 which are stacked. The surface of the piezoelectric ceramic plate 11 away from the metal substrate 12 is provided with a first electrode layer, and the electrode layer is usually made of a material with high conductivity, such as a metal material containing silver, copper, and the like. A second electrode layer can also be arranged on the surface of one side of the piezoelectric ceramic piece 11 close to the metal substrate 12; and extending the second electrode layer to the plane of the first electrode layer. This has the advantage that the two flexible conductors 30 can be arranged on the same side to electrically connect the positive and negative electrodes. In other embodiments, the metal substrate 12 may be used as another electrode in conjunction with the first electrode layer. The circuit board 20 and the flexible conductor 30 are disposed on the surface of the piezoceramic sheet 11 remote from the metal substrate 12.

Specifically, as shown in fig. 3 and fig. 4, the piezoelectric ceramic plate 11 is ring-shaped, for example, circular ring-shaped, the metal substrate 12 covers the through hole of the ring-shaped piezoelectric ceramic plate 11, the center of the metal substrate 12 has a protruding portion 122, the protruding portion 122 protrudes toward the piezoelectric ceramic plate 11 and is exposed through the through hole of the piezoelectric ceramic plate 11, and the protruding portion 122 has a plurality of micropores as the atomizing holes 121 of the microporous atomizing plate 10. The microporous atomization sheet 10 vibrationally atomizes the aerosol-generating substrate from the atomization holes 121 to generate an aerosol, which passes through the atomization holes 121 for inhalation by a user. Further, a positioning portion 123 is disposed on a surface of the metal substrate 12 away from the protruding portion 122, so as to ensure accurate positioning of the metal substrate 12 and the piezoelectric ceramic plate 11. The shapes, sizes, dimensions and numbers of the piezoelectric ceramic sheet 11 and the metal substrate 12 may be set as required, and the shape of the atomization hole 121 may be one or any combination of a cone, a rectangle and a circle, as long as the requirement of atomization and derivation of the aerosol generating substrate can be met, which is not limited in the present application.

As shown in fig. 2 and fig. 11, fig. 11 is a schematic structural diagram of a circuit board according to an embodiment of the present disclosure.

The circuit board 20 may be a PCB or an FPC, in this embodiment, the circuit board 20 is a PCB, and the PCB is connected to the micro-porous atomizing sheet 10 through the flexible conductor 30 to realize flexible electrical connection with the micro-porous atomizing sheet 10. In this embodiment, the circuit board 20 is an arc-shaped PCB, and is disposed entirely on the surface of the piezoelectric ceramic plate 11. The circuit board 20 has a positive contact and a negative contact, a flexible conductor 30 is arranged between the positive contact and the piezoelectric ceramic plate 11, another flexible conductor 30 is arranged between the negative contact and the piezoelectric ceramic plate 11, and the materials, shapes and volumes of the two flexible conductors 30 are completely the same. The outer diameter of the circuit board 20 is substantially flush with the outer diameter of the microporous atomization sheet 10, i.e., the outer diameter of the PCB may be just flush with the outer diameter of the microporous atomization sheet 10, or may be slightly larger or shorter than the outer diameter of the microporous atomization sheet 10, as long as it does not exceed the outer sidewall of the clamping assembly 40. In other embodiments, the circuit board 20 may also be a flexible circuit board, and is partially bent to the side of the microporous atomization sheet 10. Meanwhile, the PCB may have other shapes as long as the PCB can be connected to the micro-porous atomization sheet 10 in a matching manner, which is not limited in the present application.

The flexible electrical connection between the circuit board 20 and the microporous atomization sheet 10 is different from rigid connection and welding, and refers to a connection manner in which the circuit board 20 and the microporous atomization sheet 10 are connected by a flexible material without welding, so that the joint between the circuit board 20 and the microporous atomization sheet 10 can be elastically deformed within a certain range. In another prior art, the electrical signal of the microporous atomization sheet 10 is transmitted to the microporous atomization sheet 10 through the metal elastic thimble to make elastic contact with the microporous atomization sheet 10, and the acting force on the microporous atomization sheet 10 is large, so that the electrical parameter of the microporous atomization sheet 10 deviates from the theoretical value, such as the impedance value becomes large, the waveform is disordered, and the resistance value becomes high. In addition, when the microporous atomization sheet 10 works, the metal elastic thimble is in a static state, the microporous atomization sheet 10 is in a high-frequency vibration state, a protective layer on the top of the metal elastic thimble is easy to wear and oxidize, and the service life of the whole machine is greatly shortened. This application adopts flexible electric connection mode can greatly cushion the power that micropore atomizing piece 10 vibration atomizing produced for the power that acts on at micropore atomizing piece can be ignored, has solved above-mentioned technological problem well. Meanwhile, the process of welding wires by an electric soldering iron is omitted, so that the assembly is simpler and the cost is lower. In the prior art, the electric signal of the micropore atomization sheet 10 is transmitted to the ceramic sheet through a welding wire, when the wire is welded, the temperature of an electric soldering iron, the heating time and the diameter and height of a bonding pad are directly related to the electrical performance parameters of the micropore atomization sheet 10, such as the resistance value is increased, the waveform is disordered, the resistance value is increased, and the electrical performance parameters are directly related to the atomization amount of a product and the size of atomized particles. Meanwhile, the factors of the temperature of the electric soldering iron, the welding time and the size and height of the bonding pad are not controllable during manual operation, the experience requirement on operators is high, and the consistency during batch production is difficult to guarantee.

In one embodiment, as shown in fig. 2, the flexible conductive body 30 is a conductive sheet made of a flexible conductive material, which may be flexible conductive rubber, conductive foam, or other flexible glue. The flexible conductive body 30 can be fixedly connected with the circuit board 20 and the micro-porous atomizing sheet 10 by the viscosity of the flexible conductive body itself, or can be fixedly connected with the circuit board 20 and the micro-porous atomizing sheet 10 by arranging an adhesive layer. The circuit board 20 and the microporous atomization sheet 10 are fixedly connected through the adhesive of the flexible electric conductor 30 or the adhesive layer on the surface of the flexible electric conductor 30. Because the flexible conductor 30 is made of flexible material, it can connect the circuit board 20 and the microporous atomization sheet 10 more firmly, and make the microporous atomization sheet 10, the circuit board 20 and the flexible conductor 30 elastically deform to a certain extent. Wherein the adhesive layer may be a conductive adhesive. In other embodiments, a limiting groove or a limiting rib may be disposed on the circuit board 20 or the clamping assembly 4 to fix the flexible electrical conductor 30. The flexible conductor 30 may also be fixed between the circuit board 20 and the microporous atomization sheet 10 by means of a friction force generated by elastic deformation of the flexible conductor.

In one embodiment, as shown in fig. 2 and 3, the clamping assembly 40 is used to clamp the circuit board 20 and the microporous atomization sheet 10 to achieve a secure connection between the circuit board 20 and the microporous atomization sheet 10. The clamping assembly 40 includes a first rigid mount 41, a second rigid mount 42, a first flexible mount 43, and a second flexible mount 44. The first rigid fixing member 41, the second rigid fixing member 42, the first flexible fixing member 43 and the second flexible fixing member 44 are all annular bodies, and the plurality of atomization holes 121 are exposed through holes of the annular bodies, so that the aerosol can pass through the through holes of the annular bodies. The first rigid fixing member 41 is disposed on one side of the microporous atomization sheet 10, the second rigid fixing member 42 is disposed on the other side of the microporous atomization sheet 10, and the second rigid fixing member 42 and the first rigid fixing member 41 cooperate to clamp the circuit board 20 and the microporous atomization sheet 10. The first flexible fixing member 43 is disposed between the first rigid fixing member 41 and the microporous atomization sheet 10, the second flexible fixing member 44 is disposed between the second rigid fixing member 42 and the microporous atomization sheet 10, and both the first flexible fixing member 43 and the second flexible fixing member 44 are used for buffering the force generated by the vibration between the first rigid fixing member 41 or the second rigid fixing member 42 and the circuit board 20 and the microporous atomization sheet 10. The surface and the side surface of the microporous atomization sheet 10 are fixed in the first flexible fixing piece 43 and the second flexible fixing piece 44, so that the natural frequency is kept to vibrate in the circumferential direction and the radial direction without attenuation, and the atomization effect of the microporous atomization sheet 10 is not influenced.

Specifically, the circuit board 20 is disposed between the micro-porous atomization sheet 10 and the first rigid fixing member 41, and one side of the circuit board 20 is fixed to the micro-porous atomization sheet 10 by the first rigid fixing member 41. The first rigid fixing member 41 and the second rigid fixing member 42 are both ring-shaped bodies and are made of rigid fixing materials, such as ceramics, steel, iron, and the like. The first rigid fixing member 41 and the second rigid fixing member 42 are detachably fixed by means of buckling, clamping or screws, which on one hand facilitates the detachment, and on the other hand, the positions of the circuit board 20 and the microporous atomization sheet 10 are relatively and fixedly maintained within the range formed after the first rigid fixing member 41 and the second rigid fixing member 42 are connected, thereby avoiding a large displacement between the circuit board 20 and the microporous atomization sheet 10.

Referring to fig. 3, 5 and 6, fig. 5 is a first perspective structural view of the first rigid fixing member provided in fig. 2; figure 6 is a second perspective view of the first rigid mount provided in figure 2.

The first rigid mount 41 includes a coaxially disposed first annular body 410, a first collar 4111, and a second collar 4121. The first annular body 410 has a first surface 411 and a second surface 412 disposed opposite to each other, the first surface 411 is a surface far away from the microporous atomization sheet 10, and the second surface 412 is a surface close to the microporous atomization sheet 10. The first ring 4111 protrudes away from the first surface 411, the second ring 4121 protrudes away from the second surface 412, and the first ring 4111 and the second ring 4121 protrude in opposite directions and are annular. The first raised ring 4111 has the same inner diameter as the first annular body 410 to facilitate egress of an aerosol substrate produced from the microporous atomizing sheet 10. The outer diameter of the second male ring 4121 is the same as the outer diameter of the first annular body 410. In this embodiment, it is preferable that the second protruding ring 4121 can extend along the outer diameter of the first annular body 410 away from the second surface 412 to a position where it meets the second rigid fixing member 42, so as to make the connection between the first rigid fixing member 41 and the second rigid fixing member 42 tighter, thereby improving the stability of the micro-porous atomization assembly 1. In other embodiments, the second collar 4121 may extend radially outward of the first annular body 410 away from the second surface 412 or may extend only to the end of the outer diameter of the first annular body 410. The extending position and the extending direction of the second protruding ring 4121 may also be set as needed, which is not limited in this application.

Optionally, the second surface 412 of the first annular body 410 has a second groove 4122 for accommodating the first flexible fixing member 43, so that vibration generated when the microporous atomization sheet 10 atomizes the aerosol-generating substrate is greatly reduced when being transmitted to the first rigid fixing member 41 through the first flexible fixing member 43, and the vibration is buffered through the first flexible fixing member 43, so that vibration generated by the microporous atomization sheet 10 is not reduced immediately when encountering the first rigid fixing member 41, but is gradually reduced through the first flexible fixing member 43, which not only can avoid the problem that the vibrating force generated by the microporous atomization sheet 10 directly frequently strikes the first rigid fixing member 41 to cause abrasion and oxidation of the microporous atomization sheet 10, which affects the service life of the microporous atomization sheet 10, but also can not affect the atomization effect of the microporous atomization sheet 10.

Referring to fig. 2, fig. 3, fig. 7 and fig. 8, fig. 7 is a schematic view of a first perspective structure of the second rigid fixing member provided in fig. 2; fig. 8 is a second perspective view of the second rigid mount provided in fig. 2.

In particular, the second rigid mount 42 comprises a second annular body 420, a third collar 423, coaxially arranged. The second annular body 420 has a third surface 421 and a fourth surface 422 arranged oppositely, the third surface 421 being the surface close to the first rigid mount 41 and the fourth surface 422 being the surface far from the first rigid mount 41. The third surface 421 contacts and connects to the second collar 4121 of the first rigid retainer 41 on the side near the outer diameter of the second annular body 420. The third surface 421 has a third convex ring 423, and the third convex ring 423 protrudes to a direction close to the first rigid fixing member 41. The second rigid mount 42 has a first through hole 4231, the first through hole 4231 passing through the second annular body 420 and the third male ring 423. Preferably, the third surface 421 further has a third groove 4211, the third groove 4211 is used for connecting the second flexible fixing element 44, and the second flexible fixing element 44 is correspondingly provided with a fourth protruding ring 444, and the fourth protruding ring 444 is matched and connected with the third groove 4211, so as to enhance the connection stability of the second flexible fixing element 44 and the second rigid fixing element 42. It is understood that third groove 4211 may be formed in second flexible fastener 44 and fourth collar 444 may be formed on third surface 421, so long as the mating connection of second flexible fastener 44 to second rigid fastener 42 is achieved. In other embodiments, the third groove 4211 and the fourth convex ring 444 in the present application may not be provided, and the present application is not limited thereto.

Specifically, the second protruding ring 4121 of the first rigid fixing member 41 has a plurality of hooks 424 on a side thereof close to the second flexible fixing member 44, and the plurality of hooks 424 are used for connecting the micro-porous atomizing sheet 10 and a temperature sensor (not shown). The specific size of the buckle 424 can be set as required, as long as the matching connection with the micropore atomization sheet 10, the temperature sensor and other components can be realized, and the application does not limit the size.

Optionally, an annular sealing member 45 is disposed at a joint of the first rigid fixing member 41 and the second rigid fixing member 42, and the sealing member 45 is disposed at the joint of the first rigid fixing member 41 and the second rigid fixing member 42 in an attaching manner to seal a gap at the joint, so that the first rigid fixing member 41 and the second rigid fixing member 42 are connected more tightly, and stability of the micro-pore atomizing assembly 1 is improved. In this embodiment, the sealing member 45 may be made of a flexible material, such as: the sealing performance of the connection between the first rigid fixing member 41 and the second rigid fixing member 42 can be improved by soaking cotton or rubber, and the structure of the first rigid fixing member 41 and the second rigid fixing member 42 can not be extruded, so that the whole position of the clamping assembly 40 is prevented from moving.

Optionally, the fourth surface 422 of the second rigid fixing member 42 has a first indent 4221 and an annular recess 4222, the first indent 4221 extends from the fourth surface 422 towards the third surface 421, and a bottom wall of the first indent 4221 is communicated with the first through hole 4231. Wherein the diameter of the first groove 4221 is larger than the diameter of the first through hole 4231. The first groove 4221 and the first through hole 4231 are used for installing the conductive member 50, and the annular recess 4222 is used for connecting the second flexible fixing member 44.

As described above, the first flexible mount 43 is disposed between the microporous atomization sheet 10 and the first rigid mount 41, and is engaged between the microporous atomization sheet 10 and the first rigid mount 41 through the second groove 4122 of the first rigid mount 41. The first flexible fixing element 43 may be a smooth-surfaced annular body, or may be a rough annular body with a plurality of bumps or lugs on the surface. When the surface of the first flexible fixing member 43 is smooth, it is convenient to connect and install it with the first rigid fixing member 41. When the surface of the first flexible fixing member 43 is in a rough state, the friction force between the surface and the microporous atomization sheet 10 and the first rigid fixing member 41 can be increased, and the connection stability can be enhanced. The selection can be specifically performed according to needs, and the application is not limited to this.

Referring to fig. 2, fig. 3, fig. 9 and fig. 10, fig. 9 is a schematic view of a first perspective structure of the second flexible fixing member provided in fig. 2; fig. 10 is a second perspective view of the second flexible mount provided in fig. 2.

In this embodiment, the second flexible mount 44 includes a third annular body 440, a fifth raised ring 443, and a sixth raised ring 445, which are coaxially disposed. The third annular body 440 has a fifth surface 441 and a sixth surface 442 disposed opposite to each other, wherein the fifth surface 441 is in contact with the microporous atomization sheet 10, and at least a portion of the microporous atomization sheet 10 covers the fifth surface 441, or the microporous atomization sheet 10 can completely cover the fifth surface 441. The outer diameter of the third annular body 440 is connected to the fifth raised ring 443 facing the first rigid mount 41, and the fifth raised ring 443 extends to a position near the circuit board 20 between the third raised ring 423 of the second rigid mount 42 and the microporous atomization sheet 10. The inner diameter of the third annular body 440 is connected to a sixth raised ring 445 facing the fourth surface 422 of the second rigid mount 42. The fifth raised ring 443 has the same outer diameter as the third annular body 440 and the sixth raised ring 445 has the same inner diameter as the third annular body 440. Further, the sixth collar 445 may also extend transversely to the direction of the fourth surface 422 to engage with the annular recess 4222 on the fourth surface 422. That is, the sixth protruding ring 445 forms a corner extending toward the fourth surface 422, and wraps the inner sidewall of the annular body of the second flexible fixing member 44 and the fourth surface 422, so as to achieve the maximum protection effect on the second rigid fixing member 42 and prevent the atomized liquid from leaking onto the second rigid fixing member 42. In other embodiments, the extending direction and the extending position of the fifth convex ring 443 and the sixth convex ring 445 may be set as needed, which is not limited in this application.

Optionally, the inner side wall of the annular body of the second flexible fixing member 44 may be provided with a plurality of annular protrusions 446, and the plurality of annular protrusions 446 may be used to hermetically connect the microporous atomizing assembly 1 with the reservoir 5, so that liquid leakage is avoided during introduction of the aerosol-generating substrate into the atomizing sheet 10.

As shown in fig. 3, in one embodiment, the conductive member 50 is made of metal, such as copper or iron. The conductive member 50 has one end electrically connected to the circuit board 20 through the first through hole 4231 and the other end for connecting an external wire.

Specifically, the conductive member 50 includes a connecting portion 51 and an extending portion 52, wherein a diameter of the connecting portion 51 is larger than a diameter of the extending portion 52. The connecting portion 51 is connected to the first groove 4221, and the extending portion 52 is engaged with the first through hole 4231. In an embodiment, the connection portion 51 may be substantially flush with the fourth surface 422 of the second rigid fixing member 42, or may be significantly beyond the fourth surface 422, as long as the connection with the external wire can be achieved, which is not limited in the present application. Likewise, the extension 52 may extend to just contact the circuit board 20 to achieve connection with the circuit board 20, or may extend to pass through the circuit board 20 to connect with the circuit board 20, and may be disposed as required. When the extension portion 52 extends to pass through the circuit board 20, the circuit board 20 correspondingly has a second through hole 201 matching the size and the number of the extension portion 52, so as to realize the matching connection of the circuit board 20 and the extension portion 52.

In the present embodiment, as shown in fig. 2, the conductive members 50 are provided in four, two of which are used for connecting external wires, and the other two are used for connecting temperature sensors (not shown), the temperature sensors are provided at one end of the circuit board 20 close to the micro-hole atomizing sheet 10 and are disposed on the micro-hole atomizing sheet 10 through the circuit board 20, for example, the temperature sensors may be disposed on the circuit board 20 by soldering. The temperature sensor is electrically connected with a controller (not shown) of the ultrasonic atomization device through a circuit board 20, the temperature sensor can measure the temperature of the micropore atomization sheet 10, and the controller can control the micropore atomization sheet 10 to work according to the temperature measurement result fed back by the temperature sensor. The Temperature sensor may be one or more of a Positive Temperature Coefficient thermistor (PTC), a Negative Temperature Coefficient thermistor (NTC), and a thermocouple, and may also be other Temperature sensing elements. The temperature sensor is connected with the control circuit to perform ADC conversion processing, and the temperature of the micropore atomization sheet 10 can be obtained. The controller outputs a control signal to change the voltage of the atomization driving booster circuit according to the temperature of the micropore atomization sheet 10, thereby realizing the automatic adjustment of the atomization power.

In other embodiments, the number and the position of the conductive elements 50 may be specifically set according to the needs, for example, the conductive elements 50 may be disposed on the first surface 411 of the first rigid fixing member 41 and extend to the circuit board 20 to connect with the circuit board 20, or may be disposed on the outer sidewall of the first rigid fixing member 41 to connect the first rigid fixing member 41 with the circuit board 20, etc. This is not limited by the present application.

The disclosed micropore atomization assembly comprises a micropore atomization sheet and a circuit board. A microporous nebulizing sheet for nebulizing an aerosol-generating substrate to produce an aerosol; the circuit board is flexibly and electrically connected with the micropore atomization sheet so as to transmit the electric signal of the circuit board to the micropore atomization sheet. The circuit board and the micropore atomization sheet are connected through the flexible material, and the problems that performance parameters of the atomization sheet are attenuated, the product consistency is poor and the rejection rate is high when an electric soldering iron is heated and welded on the micropore atomization sheet in the prior art are solved. Simultaneously, adopt flexible electric connection mode can greatly cushion the power that micropore atomizing piece vibration atomizing produced for the power that is used in micropore atomizing piece can be ignored, makes micropore atomizing piece keep natural frequency to do circumference and radial vibration and not attenuate, and atomization effect is good.

The above description is only for the purpose of illustrating embodiments of the present application and is not intended to limit the scope of the present application, and all modifications of equivalent structures and equivalent processes, which are made by the contents of the specification and the drawings of the present application or are directly or indirectly applied to other related technical fields, are also included in the scope of the present application.

Claims (11)

1. A microporous atomizing assembly, comprising:

a microporous nebulizing sheet for nebulizing an aerosol-generating substrate to produce an aerosol;

and the circuit board is flexibly and electrically connected with the micropore atomization sheet so as to transmit the electric signal of the circuit board to the micropore atomization sheet.

2. The microporous atomizing assembly of claim 1, wherein a flexible electrical conductor is disposed between the circuit board and the microporous atomizing sheet, and the flexible electrical conductor is in contact with the circuit board and the microporous atomizing sheet, respectively, to achieve flexible electrical connection between the circuit board and the microporous atomizing sheet.

3. The microporous atomizing assembly of claim 2, wherein the circuit board and the microporous atomizing sheet are fixedly connected by an adhesive of the flexible electrical conductor or an adhesive layer on a surface of the flexible electrical conductor.

4. The microporous atomizing assembly of claim 2, further comprising:

the circuit board and the micropore atomization sheet are fixedly connected through the clamping assembly.

5. The micro-well atomization assembly of claim 4 in which the clamping assembly comprises:

the first rigid fixing piece is arranged on one side of the micropore atomization sheet;

and the second rigid fixing piece is arranged on the other side of the micropore atomization sheet and is matched with the first rigid fixing piece to clamp the circuit board and the micropore atomization sheet.

6. The microporous atomizing assembly of claim 5, wherein the circuit board is disposed between the microporous atomizing sheet and the first rigid mount; the second rigid fixing piece is provided with a first through hole;

the microporous atomizing assembly further comprises:

and the conductive piece is arranged in the first through hole, one end of the conductive piece is electrically connected with the circuit board, and the other end of the conductive piece is used for connecting an external wire.

7. The microporous atomizing assembly of claim 6, wherein the surface of the second rigid mount remote from the first rigid mount has a first groove, and the first through hole is disposed in a bottom wall of the first groove; the conductive piece comprises a connecting part and an extending part, and the diameter of the connecting part is larger than that of the extending part; the connecting portion is connected to the first groove, and the extending portion is clamped to the first through hole.

8. The micro-well atomization assembly of claim 5, wherein the clamping assembly further comprises:

the first flexible fixing piece is arranged between the first rigid fixing piece and the micropore atomization sheet;

and the second flexible fixing piece is arranged between the second rigid fixing piece and the micropore atomization sheet.

9. The microporous atomizing assembly of claim 8, wherein the microporous atomizing sheet comprises:

the device comprises a metal substrate, wherein a plurality of atomization holes are formed in the metal substrate; the first rigid fixing piece, the second rigid fixing piece, the first flexible fixing piece and the second flexible fixing piece are all annular bodies, and the plurality of atomization holes are exposed through holes of the annular bodies.

10. The microporous atomizing assembly of claim 2, wherein the flexible electrical conductor is a conductive rubber or a conductive foam.

11. An ultrasonic atomizing device, comprising:

a microporous atomizing assembly of any one of claims 1-10;

the power supply assembly is connected with the micropore atomization assembly and used for supplying power to the micropore atomization assembly;

a housing, micropore atomization component set up in on the housing, the housing with micropore atomization component cooperation forms the stock solution storehouse, the stock solution storehouse is used for saving aerosol and generates the matrix.

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