Method for infiltrating atomizing core of atomizing device

Abstract

The invention discloses a method for infiltrating an atomizing core of an atomizing device, an atomizing channel is arranged in the atomizing core, and a heating piece is arranged on the inner side wall of the atomizing channel. The method comprises the following steps: providing a static electricity generating device, an electric conductor and an oil injection piece; at least part of one end of the electric conductor extends into the atomization channel and abuts against the heating piece, and the other end of the electric conductor is connected to the static electricity generating device. And the oil injection piece injects the atomization matrix into the atomization core. And starting the static electricity generating device. According to the scheme, adsorption of the porous oil guide piece of the atomizing core on the atomizing substrate can be accelerated, and then the atomizing substrate is prevented from overflowing from the atomizing core in the process of infiltrating the atomizing core.

Description

Technical Field

[0001] The present application relates to the field of atomization devices, and in particular to a method for wetting an atomization core of an atomization device. Background Art

[0002] When manufacturing atomizers, especially those with an oil-core separation function, it is necessary to ensure that the atomizer matrix within the atomizer does not enter the atomizer core before use. Therefore, when using the atomizer device, it is necessary to wait for the atomizer matrix to soak the atomizer core before inhaling to avoid the atomizer core from burning dry and causing a burnt smell. This waiting period affects the user experience. The existing technology chooses to pre-soak the atomizer core, but the soaking process takes a long time. Therefore, how to improve the atomizer core soaking rate during the manufacturing process is a technical problem that urgently needs to be solved in this field. Summary of the Invention

[0003] The embodiment of the present application provides a method for infiltrating an atomizing core of an atomizing device, which can accelerate the adsorption of the atomizing matrix by the atomizing core during the process of the atomizing matrix infiltrating the atomizing core, thereby improving the infiltration rate of the atomizing core.

[0004] In the first aspect, an embodiment of the present application provides a method for infiltrating an atomizing core of an atomizing device, wherein an atomizing channel is provided inside the atomizing core, and a heating element is provided on the inner side wall of the atomizing channel. The steps of the method are as follows: providing an electrostatic generating device, a conductor and an oil injection piece. At least a portion of one end of the conductor is extended into the atomizing channel and abuts against the heating element, and the other end of the conductor is connected to the electrostatic generating device. The oil injection piece is used to inject an atomizing matrix into the atomizing core. The electrostatic generating device is started, and the electrostatic generating device releases static electricity to the conductor connected thereto.

[0005] In this solution, the atomized matrix that infiltrates the atomizer core is charged with static electricity through an electrostatic generator and a conductor. This electrostatic attraction between the charged atomized matrix and the conductor disrupts the oil film formed during the atomized matrix infiltration process, accelerates the atomizer core's adsorption of the atomized matrix, and increases the atomizer core infiltration rate. This also prevents the atomized matrix from overflowing from the sidewalls of the atomizer core before the infiltration process is complete.

[0006] In one implementation of the first aspect, the heating element is a cylindrical structure, and the atomizer core further includes a porous oil guide member surrounding the outer periphery of the heating element. The atomization channel is located on the inner side of the porous oil guide member. The step of "injecting the atomization matrix into the atomizer core through the oil injection member" includes: injecting the atomization matrix into the porous oil guide member through the oil injection member. By establishing an atomizer core including a heating element, a porous oil guide member and an atomization channel, wherein the heating element is a cylindrical structure and the porous oil guide member surrounds the outer periphery of the heating element, it is beneficial for the porous oil guide member of the atomizer core to adsorb the atomization matrix, thereby increasing the infiltration rate of the atomizer core, and ultimately preventing the atomization matrix from overflowing from the atomizer core before the end of the infiltration process.

[0007] In one implementation of the first aspect, the conductor is cylindrical, and the heating element to be shaped is sheet-shaped. The step of "making at least part of one end of the conductor extend into the atomization channel and abut against the heating element" includes: making the conductor abut against the sheet-shaped heating element to be shaped, and the sheet-shaped heating element to be shaped is bent around the outer circumference of the conductor to form the heating element with a cylindrical structure. Making the porous oil-conducting element abut against the heating element with a cylindrical structure and surround the outer circumference of the heating element to form the porous oil-conducting element with a cylindrical structure. By using the conductor to wind the heating element into a cylindrical structure, and then using the cylindrical heating element to wind the porous oil-conducting element into a cylindrical structure, it can be beneficial for the heating element to heat and atomize the atomization matrix.

[0008] In one implementation of the first aspect, the atomizer core further includes an opening at the first end facing the oil injection piece, and an opening at the second end opposite to the opening at the first end. The line connecting the opening at the first end and the opening at the second end passes through the atomizer core and defines an atomization channel. The step of "making at least part of one end of the conductor extend into the atomization channel" includes: making one end of the conductor extend from the inner side of the opening at the second end of the atomizer core to the inner side of the opening at the first end. By providing openings on the first and second ends of the atomizer core, it is ensured that the conductor extends into the atomization channel of the atomizer core, which is conducive to one end of the conductor being close to the oil injection piece, and then helping the conductor to charge the atomized matrix injected by the oil injection piece with static electricity, thereby increasing the infiltration rate of the atomizer core, and ultimately preventing the atomized matrix from overflowing from the atomizer core before the end of the infiltration process.

[0009] In one implementation of the first aspect, the step of "causing the oil injection member to inject the atomizing matrix into the atomizing core" includes: allowing a portion of the oil injection member to extend from the opening at the first end of the atomizing core into the atomizing channel, spaced apart from one end of the conductor located in the atomizing channel, and injecting the atomizing matrix toward the inner sidewall of the porous oil guide member. Causing a portion of the oil injection member to extend from the opening at the first end of the atomizing core into the atomizing channel and injecting the atomizing matrix toward the inner sidewall of the porous oil guide member facilitates the wetting of the atomizing core by the atomizing matrix, thereby increasing the wetting rate of the atomizing core and ultimately preventing the atomizing matrix from overflowing from the atomizing core before the wetting process is completed.

[0010] In one implementation of the first aspect, the step of "causing the oil injection member to inject the atomizing matrix into the atomizing core" includes: positioning the oil injection member outside the opening at the first end of the atomizing core and injecting the atomizing matrix toward the top wall surface of the porous oil guide member of the atomizing core. Positioning the oil injection member outside the opening at the first end of the atomizing core and injecting the atomizing matrix toward the top wall surface of the porous oil guide member of the atomizing core facilitates the infiltration of the atomizing matrix into the atomizing core, thereby increasing the infiltration rate of the atomizing core and ultimately preventing the atomizing matrix from overflowing from the atomizing core before the infiltration process is completed.

[0011] In one implementation of the first aspect, the oil injection member is located outside the conductor, as projected along the length of the atomizer core. Positioning the oil injection member outside the conductor, as projected along the length of the atomizer core, facilitates the wetting of the atomizer core by the atomizer matrix, thereby increasing the wetting rate of the atomizer core and ultimately preventing the atomizer matrix from overflowing from the atomizer core before the wetting process is complete.

[0012] In one implementation of the first aspect, the oil filling member is made of an insulating material. This eliminates the safety hazards associated with electrostatically charged atomized substrates and facilitates the accumulation of static electricity induced on the atomized substrate, thereby increasing the wetting rate of the atomizer core and ultimately preventing the atomized substrate from overflowing from the atomizer core before the wetting process is complete.

[0013] In one implementation of the first aspect, the electrostatic generating device is activated while the oil injection member injects the atomized matrix into the porous oil guide member. By activating the electrostatic generating device while injecting the atomized matrix into the porous oil guide member, the adsorption of the atomized matrix by the atomizer core can be accelerated, thereby increasing the rate of wetting of the atomizer core and ultimately preventing the atomized matrix from overflowing from the atomizer core before the wetting process is complete.

[0014] In one implementation of the first aspect, the electrostatic generating device includes an electrostatic generator and a power supply, and the electrostatic generator is electrically connected to the power supply. The step of "connecting the other end of the conductor to the electrostatic generating device" includes: connecting the other end of the conductor to the electrostatic generator. By connecting the other end of the conductor to the electrostatic generator and electrically connecting the electrostatic generator to the power supply, the conductor is conducive to charging the atomized matrix with static electricity, thereby increasing the infiltration rate of the atomizer core and ultimately preventing the atomized matrix from overflowing from the atomizer core before the infiltration process is completed. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] Figure 1 2 is a structural schematic diagram showing the infiltration process of the atomizer core of an embodiment of the present application;

[0016] Figure 2 Schematic diagram of the coordination structure of the atomizing assembly and the liquid storage tank in the atomizing device according to an embodiment of the present application;

[0017] Figure 3 Schematic diagram of the structure of the static electricity generating device according to an embodiment of the present application;

[0018] Figure 4 This is a schematic diagram of the principle of the atomization matrix infiltrating the atomization core under the action of the electrostatic generating device in an embodiment of the present application.

[0019] Reference numerals:

[0020] 1- atomizing assembly; 2- static electricity generating device; 3- conductor; 4- oil filling part; 5- atomizing matrix; 6- oil film; 7- liquid storage tank; 8- housing;

[0021] 11-atomizing core; 111-heating element; 112-porous oil guide element; 1121-porous structure; 113-atomizing channel; 114-first

[0022] End; 115- second end;

[0023] 12-atomizing tube; 121-through hole;

[0024] 21-static generator; 22-power supply;

[0025] 41-Oil outlet. DETAILED DESCRIPTION

[0026] The directional terms mentioned in the application embodiments, such as "upper", "lower", "front", "back", "left", "right", "inside", "outside", "side", "top", "bottom", etc., are only references to the directions of the drawings. Therefore, the directional terms used are for better and clearer explanation and understanding of the embodiments of the present application, rather than indicating or implying that the referred device or element must have a specific orientation, be constructed and operated in a specific orientation, and therefore cannot be understood as a limitation on the embodiments of the present application.

[0027] It is understood that the atomization device includes an atomization assembly and a power supply assembly, and the power supply assembly supplies power to the atomization assembly so that the atomization assembly can atomize the atomization matrix. Of course, the present application does not limit the atomization assembly and the power supply assembly to be split or integrated, that is, the present application does not limit the situation where the atomization assembly and the power supply assembly are located at different positions in the same housing, nor does it limit the situation where the atomization assembly and the power supply assembly are separately located in a housing and then assembled.

[0028] Figure 1 1 is a structural schematic diagram showing the infiltration process of the atomizer core 11 of the atomizer assembly 1 in the atomizer device of the embodiment of the present application. Figure 2 Schematic diagram of the coordination structure of the atomizing assembly 1 and the liquid storage tank 7 in the atomizing device according to an embodiment of the present application. Figure 3 Schematic diagram of the structure of the electrostatic generating device 2 according to an embodiment of the present application.

[0029] Combine Figure 1 , Figure 2 and Figure 3 As shown, it exemplarily includes an atomizing component 1, which is provided with an atomizing channel 113 inside, so that after the atomizing component 1 atomizes the atomizing matrix, the generated aerosol can flow out of the atomizing component 1 through the atomizing channel 113 for the user to inhale.

[0030] Specifically, the atomizer assembly 1 may include a housing 8, an atomizer core 11, and an atomizer tube 12. Furthermore, the atomizer channel 113 is disposed within the atomizer core 11. Of course, in conjunction with the aforementioned description of the integrated and split types, the housing 8 of the atomizer assembly 1 may be a separate housing or a shared housing with the power supply assembly.

[0031] To facilitate understanding of the present invention, the following describes the assembly process of the atomizer device. During the assembly process, to prevent leakage of the atomizer matrix and contamination of other components, the addition of the atomizer matrix or the wetting of the atomizer core 11 is typically performed after the atomizer core 11 is secured or installed within the atomizer assembly 1. Specifically, the atomizer core 11 to be wetted can be injected into the atomizer core 11 to achieve wetting, in order to prevent the atomizer matrix from leaking and contaminating other components.

[0032] The shell 8 is located at the periphery of the atomizer tube 12. Optionally, the atomizer tube 12 is located in the middle of the shell 8 of the atomizer assembly 1. Then the space defined between the shell 8 and the atomizer tube 12 is a liquid storage tank 7. The liquid storage tank 7 can be used to receive and store the atomizer matrix after the atomizer core is installed. Of course, in addition to the shell 8 and the periphery of the atomizer tube 12 of this embodiment, the liquid storage tank 7 can also have a separate outer shell, which is inserted into the space defined between the shell 8 and the atomizer tube 12. The atomizer tube 12 is provided with a through hole 121. The atomizer core 11 located on the inside of the atomizer tube 12 can be connected to the liquid storage tank 7 located on the outside of the atomizer tube 12 through the through hole 121. The liquid storage tank 7 can store the atomizer matrix. When the user is inhaling, the atomizer matrix can enter the atomizer tube 12 from the liquid storage tank 7 through the through hole 121, and then be replenished to the atomizer core 11, so that the user can continue to inhale and use it.

[0033] The atomizer core 11 can be disposed within the atomizer tube 12. The atomizer core 11 has a first end 114 and a second end 115 opposite the first end. The first end 114 and the second end 115 are each provided with an opening. The line connecting the openings at the first end 114 and the second end 115 passes through the atomizer core 11 and defines the atomization channel 113.

[0034] The atomizer core 11 may include a heater 111, a porous oil guide 112, and an atomization channel 113. Furthermore, the atomization channel 113 is formed between the opening of the first end 114 and the opening of the second end 115, and connects the first end 114 and the second end 115. Accordingly, the heater 111 is positioned within the atomization channel 113 to atomize the atomized substrate on the inner surface of the atomization channel 113.

[0035] Furthermore, the porous oil guide member 112 can be, for example, a tubular structure, or can be described as a hollow cylindrical structure. The porous oil guide member 112 can adsorb the atomized matrix. Schematically, the porous oil guide member 112 can include a porous structure 1121, and the porous structure 1121 has a plurality of micropores, which are used to adsorb the atomized matrix. Of course, the porous oil guide member 112 itself can also be an integrated porous structure. Schematically, the material of the porous oil guide member 112 can be oil-absorbing cotton. In some embodiments where the heating element and the porous oil guide member are separately assembled to form an atomization core, the porous oil guide member 112 can be porous ceramic. The atomization channel 113 can be located on the inner side of the porous oil guide member 112. Thus, since the heating element 111 is arranged on the inner side of the porous oil guide member 112, the atomized matrix that can flow in the atomization channel 113 can be heated and atomized.

[0036] The heating element 111 can be arranged in the atomization channel 113, and the heating element 111 can be, for example, a cylindrical structure. Of course, in the present application, the cylindrical heating element 111 refers to the state after it is shaped and installed, or the heating element 111 itself can be a cylindrical structure. The heating element 111 can heat and atomize the atomization matrix. Schematically, the heating element 111 can be a heating mesh, or it can be a spiral cylindrical structure formed by a single heating wire. Of course, in the field of atomization, the heating element 111 can also be called MESH, which has the properties of conductivity and heat generation.

[0037] The following describes a method for wetting the atomizer core 11.

[0038] like Figure 1 As shown, this embodiment can use the oil injection member 4, the conductor 3 and the static electricity generating device 2 to achieve the rapid infiltration of the atomizing matrix by the atomizing core 11. This will be explained below.

[0039] This embodiment provides a method for wetting the atomizer core 11 of an atomizer device, which may include:

[0040] S1: Provide an electrostatic generating device 2, a conductor 3 and an oil filling part 4.

[0041] S2: Extend at least a portion of one end of the conductor 3 into the atomizing channel 113 and abut against the heating element 111 , and connect the other end of the conductor 3 to the static electricity generating device 2 ;

[0042] S3: The oil injection part 4 injects the atomizing matrix 5 into the atomizing core 11;

[0043] S4: Start the static electricity generating device 2 to release static electricity to the conductive body connected to it.

[0044] Of course, the above numbers do not represent the order of the methods, but are only used to distinguish different methods. Figure 2As shown, in this embodiment, a portion of the conductor 3 can be inserted into the atomization channel 113 and abut the heating element 111, and the other portion of the conductor 3 can be exposed outside the atomization device. Specifically, in one embodiment, the atomization core 11 has a first end 114 facing the oil filling piece 4, and a second end 115 opposite to the first end 114, and openings can be provided on both the first end 114 and the second end 115. The conductor 3 can enter the interior of the atomization core 11 through the opening of the second end 115 of the atomization core 11, and can move along the atomization channel 113 inside the atomization core 11, and can eventually stop on the inner side of the opening of the first end 114. One end of the conductor 3 outside the atomization device can be electrically connected to the electrostatic generating device 2. Schematically, the conductor 3 can be a conductive component such as a steel rod.

[0045] In another embodiment, the atomizing core 11 and the atomizing channel 113 are not pre-formed. For example, a heating element to be shaped and a conductor may be provided. The heating element to be shaped may be placed against the conductor 3 and wound in a predetermined direction, for example, counterclockwise, so that the heating element to be shaped may be wound around the outer periphery of the conductor 3. Specifically, the conductor 3 may be cylindrical. Then, the step of "making at least a portion of one end of the conductor 3 extend into the atomizing channel 113 and place against the heating element 111" in S2 may include: making the conductor 3 abut against the sheet-like heating element to be shaped, and using the outer peripheral surface of one end of the conductor 3 to bend the sheet-like heating element to be shaped and surround the outer peripheral surface to form a heating element 111 with a cylindrical structure. The sheet-like porous oil-conducting member to be shaped is placed against the outer circumferential surface of the heating element 111, and the outer circumferential surface of the heating element 111 is used to bend the sheet-like porous oil-conducting member to be shaped and surround the outer circumferential surface of the heating element 111 to form a porous oil-conducting member 112 with a cylindrical structure. The conductor 3 only occupies a portion of the inner circumferential surface of the heating element 111, that is, during the process of assembling and wetting the atomizer core 11, the conductor 3 always occupies a portion of the space of the atomizer channel 113, that is, one end of the conductor 3 is located in the space defined by the inner sides of the first end opening and the second end opening of the atomizer core 11.

[0046] It should be understood that during the subsequent assembly process, the conductor 3 must remain within the inner circumference of the heater 111 to maintain its shape. This provides support for the atomizer core 11 and prevents deformation. Only after the atomizer tube 12, seal, and housing are assembled and the atomizer core 11 is wetted should the conductor 3 be removed from the inner circumference of the heater 111. The space previously occupied by the conductor 3 becomes part of the atomization channel 113.

[0047] The conductor 3 can extend entirely into the atomization assembly 1. A portion of the oil injection piece 4 can be inserted into the atomization channel 113 through the first end opening of the atomization core 11, and one end of the atomization channel 113 is extended close to the conductor 3, and is spaced apart from one end of the conductor 3 so that the oil injection piece 4 can inject the atomization matrix toward the inner wall of the porous oil guide 112. The oil injection piece 4 can inject the atomization matrix into the porous oil guide 112. Schematically, the oil injection piece 4 can be an insulating material, such as a plastic piece, such as ABS, PC, PVC, etc. Schematically, the oil injection piece 4 can be a plastic oil injection needle. In another embodiment of the present application, the oil injection piece 4 can be any device that can inject liquid into a pipeline.

[0048] It is understood that since the oil injection member 4 can be made of an insulating material, arcing between the oil injection member 4 and the conductor 3, which are in close proximity to each other, can be avoided when the static electricity generating device 2 is operating at high voltage, thereby safely injecting the atomized substrate into the atomizer core 11. In addition, the insulating oil injection member 4 can also concentrate static electricity induced on the atomized substrate on the atomized substrate, making it difficult to transfer through the oil injection member 4.

[0049] In this embodiment, step S2 is performed before step S4, that is, the conductor 3 is first inserted into the atomization channel 113 and placed against the heating element 111, and the other end of the conductor 3 is connected to the static electricity generating device 2, and then the static electricity generating device 2 is activated so that the static electricity generating device 2 can release static electricity to the conductor 3. More specifically, in one embodiment, the process of activating the static electricity generating device 2 to release static electricity to the conductor 3 is performed after the atomizer core 11 is assembled with the atomizer tube 12, the seal, the housing and other components. In this application, the wetting process of the atomizer core 11 is performed after the atomizer core 11 is assembled. On the contrary, if the atomizer core 11 is wetted in advance, the wetted atomizer core 11 is easily squeezed during the assembly process, causing the atomized matrix to overflow from the atomizer core 11 and contaminate other components.

[0050] In this embodiment, the order of step S3 and step S4 is not limited. For example, step S3 and step S4 can be performed substantially simultaneously, i.e., the electrostatic generating device 2 is activated when the atomizing matrix 5 is injected into the atomizing core 11 through the oil injection member 4; or, step S3 can be performed first, followed by step S4, i.e., the atomizing matrix 5 is injected first and then the electrostatic generating device 2 is activated; or, step S4 can be performed first, followed by step S3, i.e., the electrostatic generating device 2 is activated before the atomizing matrix 5 is injected.

[0051] Of course, further, a bracket can be provided to fix the position of the oil injection member 4 so that the opening of the first end 114 of the atomizer core 11 faces the oil injection member 4. When the relative position of the oil injection member 4 and the atomizer core 11 reaches a preset position, the assembled atomizer assembly 1 is fixed and the static electricity generating device 2 is turned on. Alternatively, the assembled atomizer assembly 1 is fixed first, and the oil injection member 4 is moved toward the atomizer assembly 1 so that the two reach a predetermined relative position.

[0052] It can be understood that the relative positions of the two are different depending on the direction of the oil injection member 4 for injecting the atomized matrix. For example, when the oil injection member 4 is linear, it does not extend into the atomization channel 113, but is located outside the opening of the first end 114 of the atomization core 11. Figure 2 As shown, the oil injection piece 4 is located above the porous oil guide 112 and injects the atomized matrix toward the top wall of the porous oil guide 112. Furthermore, along the projection of the length direction of the atomizer core 11, the oil injection piece 4 is located outside the conductor 3. It can be understood that the atomizer core 11 is roughly hollow cylindrical. Along the projection of its length direction, the atomizer core 11 is annular. Since the conductor 3 is partially located in the atomization channel 113, the conductor 3 is located in the inner circle in the projection in the aforementioned direction, and the oil injection piece 4 is located on the annular ring, so that the liquid injected by the oil injection piece 4 can penetrate from the first end of the atomizer core to the second end of the atomizer core. When the oil injection piece 4 is L-shaped, it extends into the atomization channel 113 and faces the inner side wall of the porous oil guide 112.

[0053] Figure 4 This is a schematic diagram of the principle of the atomizing matrix 5 infiltrating the atomizing core 11 under the action of the electrostatic generating device 2 in the embodiment of the present application. Figure 4 , Figure 1 and Figure 2 As shown, the oil injection piece 4 includes an oil outlet 41. The atomized matrix 5 in the oil injection piece 4 can drip from the oil outlet 41 onto the porous oil guide piece 112, so that the atomized matrix 5 infiltrates the porous oil guide piece 112. In the process of the atomized matrix 5 infiltrating the porous oil guide piece 112, an oil film 6 is likely to appear in the porous structure 1121 of the oil outlet 41 and the porous oil guide piece 112. The oil film 6 generates resistance to the movement of the atomized matrix 5, thereby reducing the adsorption efficiency of the porous oil guide piece 112 on the atomized matrix 5, increasing the wetting time of the atomizing component 1, and affecting production efficiency. As the oil injection piece 4 continuously injects the atomized matrix 5, and the adsorption rate of the porous oil guide piece 112 on the atomized matrix 5 is lower than the injection rate of the atomized matrix 5, the atomized matrix 5 may overflow from the inner wall or outer wall of the atomizing core 11 of the atomizing component 1, contaminating other components that have been assembled with the atomizing component 1, such as seals, air ducts, etc.

[0054] When the static electricity generating device 2 is activated, the static electricity generator 21 can charge one end of the conductor 3 located in the atomizing channel 113 with static electricity; this static electricity can generate electrostatic induction on the atomizing matrix 5 injected by the oil injection piece 4, thereby inducing opposite charges on the atomizing matrix 5. Electrostatic adsorption can be generated between the static electricity on the end of the conductor 3 close to the atomizing core 11 and the static electricity on the atomizing matrix 5. Electrostatic adsorption can enable the atomizing matrix 5 to overcome the resistance brought about by the oil film 6 generated near the oil outlet 41 of the oil injection piece 4 due to capillary force and the oil film 6 generated within the porous structure 1121 of the porous oil guide 112, thereby allowing the atomizing matrix 5 to move toward the porous oil guide 112 faster and be adsorbed by the porous oil guide 112 faster, thereby increasing the infiltration rate of the atomizing core 11 and ultimately preventing the atomizing matrix 5 from overflowing from the atomizing core 11 before the infiltration process is completed.

[0055] In another embodiment of the present application, the shape of the heating element 111 can be shaped without using the conductor 3. For example, a heating element 111 having a cylindrical structure can be manufactured through a manufacturing method, and then the cylindrical heating element 111 can be installed on the inner side wall of the atomization channel 113 of the atomizer core 11. The shape of the porous oil guide member 112 can also be shaped without using the heating element 111. For example, a porous oil guide member 112 having a cylindrical structure can be manufactured through a manufacturing method, and then the cylindrical porous oil guide member 112 can be installed on the outer circumference of the cylindrical heating element 111.

[0056] The above method can be used to wet the atomizer core of an atomizer device. It can also be used in any situation where an insulating liquid is needed to wet a component. This method can utilize electrostatic adsorption to accelerate the rate at which the insulating liquid wets the component.

[0057] As described above, the above embodiments are only used to illustrate the technical solutions of the present application, rather than to limit them. Although the present application has been described in detail with reference to the above embodiments, those skilled in the art should understand that they can still modify the technical solutions described in the above embodiments, or make equivalent replacements for some of the technical features therein. However, these modifications or replacements do not cause the essence of the corresponding technical solutions to deviate from the scope of the technical solutions of the embodiments of the present application.

Claims

1. A method for wetting an atomizer core of an atomizer device, wherein an atomizer core is provided with an atomization channel, and an inner side wall of the atomization channel is provided with a heating element, characterized in that: include: Provide static electricity generating device, conductor and oil filling parts; Extend at least a portion of one end of the conductor into the atomizing channel and abut against the heating element, and connect the other end of the conductor to the static electricity generating device; Allowing the oil injection piece to inject atomizing matrix into the atomizing core; The static electricity generating device is activated to release static electricity to the conductor connected thereto.

2. The method according to claim 1, characterized in that The heating element is a cylindrical structure, and the atomizing core further includes a porous oil guide member surrounding the outer periphery of the heating element; the atomizing channel is located inside the porous oil guide member; The “enabling the oil injection piece to inject the atomizing matrix into the atomizing core” includes: injecting the atomizing matrix into the porous oil guide piece through the oil injection piece.

3. The method according to claim 2, characterized in that The conductor is cylindrical, and the heating element to be shaped is sheet-shaped. The step of “making at least a portion of one end of the conductor extend into the atomizing channel and abut against the heating element” includes: The conductor is placed against the sheet-shaped heating element to be shaped, and the sheet-shaped heating element to be shaped is bent around the outer circumference of the conductor to form the heating element with a cylindrical structure; The porous oil guide member is placed against the heating member of the cylindrical structure and surrounds the outer peripheral surface of the heating member to form the porous oil guide member of the cylindrical structure.

4. The method according to claim 3, characterized in that The atomizing core further includes an opening at a first end and an opening at a second end opposite to the opening at the first end; A line connecting the opening at the first end and the opening at the second end passes through the atomizer core and defines the atomization channel; The step of “extending at least a portion of one end of the conductor into the atomization channel” includes extending one end of the conductor from the inner side of the opening of the second end of the atomization core to the inner side of the opening of the first end.

5. The method according to claim 4, characterized in that The step of "causing the oil injection member to inject the atomizing matrix into the atomizing core" includes causing a portion of the oil injection member to extend from the opening at the first end of the atomizing core into the atomizing channel, and being spaced apart from one end of the conductor located in the atomizing channel, and the oil injection member to inject the atomizing matrix toward the inner sidewall of the porous oil guide member.

6. The method according to claim 4, characterized in that The step of “enabling the oil injection member to inject the atomizing matrix into the atomizing core” includes positioning the oil injection member outside the opening of the first end of the atomizing core and injecting the atomizing matrix toward the top wall of the porous oil guide member of the atomizing core.

7. The method according to claim 6, characterized in that The oil injection piece is located outside the conductor in a projection along the length direction of the atomizer core.

8. The method according to claim 5 or 6, characterized in that The oil injection piece is made of insulating material.

9. The method according to claim 8, characterized in that When the oil injection member injects the atomized matrix into the porous oil guide member, the static electricity generating device is started.

10. The method according to any one of claims 1 to 4, characterized in that The static electricity generating device includes a static electricity generator and a power supply, and the static electricity generator is electrically connected to the power supply; The “connecting the other end of the conductor to the static electricity generating device” includes: connecting the other end of the conductor to the static electricity generator.

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