CN115336798A - Atomizing child lock structure and electronic atomizer - Google Patents

Abstract

The present application provides an atomization child lock structure and an electronic atomizer. The above atomized child lock structure includes a base and a child lock assembly; the base is provided with a child lock track through hole; the child lock assembly includes a child lock air guide and a child lock switch, the child lock air guide is connected to the base, and the child lock guide The air part has a first child lock channel that communicates with the inside of the housing. The child lock switch is movably connected to the base. The child lock switch is located on the side of the base away from the child lock air guide and covers the through hole of the child lock track. The child lock switch The child lock switch is provided in the through hole of the child lock track and slides against the child lock air guide. The child lock switch has a second child lock channel. When unlocking, move the child lock switch to the designated position, align the second child lock channel with the first child lock channel, so that the second child lock channel and the first child lock channel are connected to each other, so that the second child lock channel The channel and the first child lock channel jointly form an air intake channel to realize the unlocking of the air channel of the electronic atomizer.

Description

Atomization child lock structure and electronic atomizer

technical field

The invention relates to the technical field of electronic atomization, in particular to an atomization child lock structure and an electronic atomizer.

Background technique

With the rapid development of electronic atomizers, the sales of electronic atomizers in the society are also increasing year by year. Electronic atomizers with good quality and good brands are very popular among consumers and occupy a large market share. In actual use, in order to prevent misuse by minors, child lock electronic chips are usually used for locking.

However, the cost of traditional child lock chips is too high, which will easily lead to excessive production costs of electronic atomizers.

Contents of the invention

The object of the present invention is to overcome the disadvantages of the prior art, and provide an atomization child lock structure and an electronic atomizer which can effectively reduce the manufacturing cost.

The purpose of the present invention is achieved through the following technical solutions:

An atomization child lock structure, comprising: a base and a child lock assembly; the base is used to connect with the shell of an electronic atomizer, and the base is provided with a child lock track through hole; the child lock assembly includes a child lock guide An air part and a child lock switch part, the child lock air guide part is connected to the base, at least part of the child lock air guide part is located in the housing, and the child lock air guide part has a The first child lock channel in communication, the child lock switch part is movably connected with the base, the child lock switch part is located on the side of the base away from the child lock air guide and covers the child lock track channel hole, the child lock switch part passes through the child lock track through hole and slides against the child lock air guide part, the child lock switch part has a second child lock channel, the second child lock channel The lock channel is used to isolate from the first child lock channel when locked.

In one of the embodiments, the projected area of the child lock switch on the base is larger than the through hole area of the child lock track through hole.

In one embodiment, the ratio of the projected area of the child lock switch element on the base to the through hole area of the child lock track through hole is 5 to 10.

In one embodiment, the child lock switch has a sliding abutment surface, the sliding abutment surface is arranged parallel to the base, and the sliding abutment surface is attached to the base.

In one embodiment, the child lock switch includes a switch slide plate and a switch slide bar connected to each other, the switch slide plate slides against the base, and the switch slide bar passes through the child lock track The through hole is in contact with the child lock air guide.

In one of the embodiments, the switch sliding plate is provided with a first through hole, the switch sliding rod is provided with a second through hole communicating with the first through hole, and the first through hole is connected with the second through hole. The through hole forms the second child lock channel.

In one of the embodiments, the second child lock channel is opened on the switch slide plate.

In one of the embodiments, the child lock air guide is provided with a sliding groove communicated with the first child lock channel, the sliding groove is also communicated with the through hole of the child lock track, and the switch slide bar The part is slidably arranged in the sliding groove.

In one of the embodiments, the diameter of the sliding slot is equal to the diameter of the switch sliding rod.

An electronic atomizer, comprising the atomization child lock structure described in any one of the above embodiments.

Compared with the prior art, the present invention has at least the following advantages:

In the locked state, the second child lock channel is not connected to the first child lock channel; and when unlocked, the child lock switch needs to be moved to the designated position to align the second child lock channel with the first child lock channel , so that the second child lock channel and the first child lock channel communicate with each other, so that the second child lock channel and the first child lock channel together form an air intake channel, which facilitates the communication between the interior of the electronic atomizer and the external environment, thereby It is convenient to introduce gas into the interior of the electronic atomizer to realize the unlocking of the air channel of the electronic atomizer.

Description of drawings

In order to illustrate the technical solutions of the embodiments of the present invention more clearly, the accompanying drawings used in the embodiments will be briefly introduced below. It should be understood that the following drawings only show some embodiments of the present invention, and thus It should be regarded as a limitation on the scope, and those skilled in the art can also obtain other related drawings based on these drawings without creative work.

Fig. 1 is a schematic diagram of the atomized child lock structure in an embodiment;

Fig. 2 is a cross-sectional view of the atomized child lock structure shown in Fig. 1 along the direction A-A;

Fig. 3 is another cross-sectional view of the atomized child lock structure shown in Fig. 1;

Fig. 4 is another cross-sectional view of the atomizing child lock structure shown in Fig. 1 .

Detailed ways

In order to facilitate the understanding of the present invention, the present invention will be described more fully below with reference to the associated drawings. Preferred embodiments of the invention are shown in the accompanying drawings. However, the present invention can be embodied in many different forms and is not limited to the embodiments described herein. On the contrary, the purpose of providing these embodiments is to make the disclosure of the present invention more thorough and comprehensive.

It should be noted that when an element is referred to as being “fixed” to another element, it can be directly on the other element or there can also be an intervening element. When an element is referred to as being "connected to" another element, it can be directly connected to the other element or intervening elements may also be present. The terms "vertical," "horizontal," "left," "right," and similar expressions are used herein for purposes of illustration only and are not intended to represent the only embodiments.

Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by one of ordinary skill in the technical field of the invention. The terminology used herein in the description of the present invention is only for the purpose of describing specific embodiments, and is not intended to limit the present invention. As used herein, the term "and/or" includes any and all combinations of one or more of the associated listed items.

The invention relates to an atomized child lock structure. In one of the embodiments, the atomized child lock structure includes a base and a child lock assembly. The base is used to connect with the shell of the electronic atomizer, and the base is provided with a child lock track through hole. The child lock assembly includes a child lock air guide and a child lock switch. The child lock air guide is connected to the base, at least part of the child lock air guide is located in the housing, and the child lock air guide has a first child lock channel communicating with the inside of the housing. The child lock switch is movably connected to the base, the child lock switch is located on the side of the base away from the child lock air guide and covers the child lock track through hole, the child lock switch The child lock switch part is provided with a second child lock channel through the through hole of the child lock track and slides against the child lock air guide. The second child lock channel is used to isolate from the first child lock channel when locked. In the locked state, the second child lock channel is not connected to the first child lock channel; and when unlocked, the child lock switch needs to be moved to the designated position to align the second child lock channel with the first child lock channel , so that the second child lock channel and the first child lock channel communicate with each other, so that the second child lock channel and the first child lock channel together form an air intake channel, which facilitates the communication between the interior of the electronic atomizer and the external environment, thereby It is convenient to introduce gas into the interior of the electronic atomizer to realize the unlocking of the air channel of the electronic atomizer.

Please refer to FIG. 1 , which is a schematic structural diagram of an atomizing child lock structure according to an embodiment of the present invention.

The atomization child lock structure 10 of an embodiment includes a base 100 and a child lock assembly 200 . The base 100 is used to connect with the housing of the electronic atomizer, please refer to FIG. 2 , the base 100 is provided with a child lock rail through hole 102 . The child lock assembly 200 includes a child lock air guide 210 and a child lock switch 220 . The child lock air guide 210 is connected to the base 100, at least part of the child lock air guide 210 is located in the housing, and the child lock air guide 210 has a first Child lock passage 202. The child lock switch part 220 is movably connected with the base 100, the child lock switch part 220 is located on the side of the base 100 away from the child lock air guide 210 and covers the child lock track through hole 102, The child lock switch part 220 passes through the child lock track through hole 102 and slides against the child lock air guide 210 , and the child lock switch part 220 has a second child lock channel 204 . The second child lock channel 204 is used to isolate from the first child lock channel 202 when locked.

In this embodiment, in the locked state, the second child lock channel 204 is not connected to the first child lock channel 202; while in the unlocked state, the child lock switch 220 needs to be moved to a designated position in order to open the second child lock channel 204. The lock channel 204 is aligned with the first child lock channel 202, so that the second child lock channel 204 communicates with the first child lock channel 202, so that the second child lock channel 204 and the first child lock channel 202 together form an air intake channel , to facilitate the communication between the interior of the electronic atomizer and the external environment, thereby facilitating the introduction of gas into the interior of the electronic atomizer, and realizing the unlocking of the air passage of the electronic atomizer.

In another embodiment, the child lock track hole has a specific track shape, for example, the child lock track hole has a "Z" shape; as another example, the child lock track hole has an "X" font structure. In this way, only when the child lock switch moves to the designated position of the through hole of the child lock track, that is, moves along the designated track track, can the second child lock channel be communicated with the first child lock channel, so as to improve the atomization child lock structure. The unlocking difficulty is relatively low, which effectively reduces the chance of mistakenly opening the atomized child lock structure.

In one embodiment, please refer to FIG. 2 , the projected area of the child lock switch 220 on the base 100 is larger than the through hole area of the child lock track through hole 102 . In this embodiment, the child lock switch part 220 is arranged on the base 100, the child lock switch part 220 slides on the base 100, and the child lock switch part 220 is used to pass the first child lock switch part 220 thereon. The second child lock channel 204 communicates with the first child lock channel 202 to form an air guide channel. Only one air guide channel is formed between the child lock switch part 220 and the child lock air guide part 210, which is formed when the child lock switch part 220 moves to a designated position, and the base 100 is also provided with The child lock rail through hole 102 needs to be kept closed for a long time. The projected area of the child lock switch part 220 on the base 100 is designed to be larger than the through hole area of the child lock track through hole 102, specifically, the child lock switch part 220 always connects the child lock track When the through hole 102 is completely covered, the child lock switch member 220 can also prevent the opening of the child lock track through hole 102 when sliding on the base 100, thereby ensuring that the first child lock is locked when locked. Channel 202 does not communicate with the outside.

In another embodiment, the projected area of the child lock switch part 220 on the base 100 is much larger than the through hole area of the child lock track through hole 102, specifically, the child lock switch part 220 is located on the base 100. The ratio of the projected area on the base 100 to the through hole area of the child lock track through hole 102 is 5 to 10. In yet another embodiment, the ratio of the projected area of the child lock switch 220 on the base 100 to the through hole area of the child lock track through hole 102 is 8.3.

In one embodiment, please refer to FIG. 2 , the child lock switch 220 has a sliding abutment surface, the sliding abutment surface is arranged parallel to the base 100 , and the sliding abutment surface is attached to the on the base 100. In this embodiment, the sliding abutment surface is located on the side of the child lock switch 220 close to the base 100, and the sliding abutment surface is used for sliding abutment with the base 100, so that the child lock The lock switch 220 moves on the base 100 . Setting the sliding abutment surface parallel to the base 100 ensures smooth movement of the child lock switch 220 on the base 100, and further ensures that the child lock switch 220 is always in close contact with the base 100. Fitting on the base 100 , thereby further ensuring that the child lock switch member 220 always completely covers the child lock track through hole 102 .

In one embodiment, please refer to FIG. 2 , the child lock switch member 220 includes a switch slide plate 222 and a switch slide bar 224 connected to each other, the switch slide plate 222 slides against the base 100 , the switch The sliding rod 224 passes through the through hole 102 of the child lock track and abuts against the child lock air guide 210 . In this embodiment, the switch slide 222 is in sliding contact with the base 100, that is, the switch slide 222 is parallel to the base 100, so that the switch slide 222 drives the switch slide bar 224 on the The child lock track moves in the through hole 102. The part of the switch slide bar 224 is located in the child lock track through hole 102, that is, the switch slide bar 224 passes through the child lock track through hole 102, and the end of the switch slide bar 224 is connected to the child lock track through hole 102. The lock air guide 210 slides against, and the switch slide bar 224 acts as a sliding limit bar for the switch slide plate 222 on the base 100, so as to limit the switch slide bar 224 to the through hole of the child lock track. 102 within the movable area, so as to facilitate the limitation of the movement trajectory of the child lock switch 220.

Further, please refer to FIG. 2 , the switch sliding plate 222 is provided with a first through hole 206 , the switch slide bar 224 is provided with a second through hole 208 communicating with the first through hole 206 , the first through hole The hole 206 and the second through hole 208 form the second child lock channel 204 . In this embodiment, the first through hole 206 is located on the switch slide plate 222, the second through hole 208 is located on the switch slide bar 224, and the second through hole 208 is connected to the first through hole. The holes 206 communicate with each other, so that the first through hole 206 and the second through hole 208 jointly form the second child lock passage 204, which facilitates the formation of the first child lock passage on the child lock switch member 220. 202 connected airways.

Further, please refer to FIG. 3 , the second child lock channel 204 is opened on the switch sliding plate 222 . In this embodiment, the switch sliding plate 222 is provided with the second child lock channel 204, that is, the switch slide plate 222 is provided with an air channel communicating with the first child lock channel 202, specifically, when locking When unlocking, the second child lock passage 204 is always kept isolated from the first child lock passage 202; and when unlocking, the second child lock passage 204 communicates with the first child lock passage 202. In this way, when the switch slide plate 222 is not moved to a designated position, the second child lock channel 204 is misaligned with the first child lock channel 202, so as to block the air intake channel of the atomizing child lock structure; When the switch slide plate 222 moves to a designated position, the second child lock channel 204 is aligned with the first child lock channel 202 to open the air intake channel of the atomizing child lock structure.

Further, please refer to FIG. 2 , the child lock air guide 210 is provided with a sliding groove 201 communicating with the first child lock channel 202 , and the sliding groove 201 is also communicating with the child lock track through hole 102 , a part of the switch sliding rod 224 is slidably disposed in the sliding groove 201 . In this embodiment, the sliding groove 201 is located on the child lock air guide 210 , and the opening of the sliding groove 201 faces the child lock switch 220 so as to accommodate part of the switch slide bar 224 in it. The sliding groove 201 communicates with the child lock track through hole 102 , so that when the switch slide bar 224 moves in the child lock track through hole 102 , the slide slot 201 serves as the end of the switch slide bar 224 . Part of the movable space, that is, the sliding groove 201 serves as the movable area of the switch sliding rod 224 , and the child lock track through hole 102 limits the movement of the switch sliding rod 224 . In another embodiment, the child lock switch member 220 further includes a pressing plate connected to the switch slide bar 224, the pressing plate is opposite to the switch sliding plate 222, and the pressing plate is connected to the switch sliding plate 222 clamp the base 100 together, and the pressing plate is located in the sliding groove 201 . Wherein, the opening of the sliding groove 201 is larger than the diameter of the through hole 102 of the child lock track.

Further, the diameter of the slide groove 201 is equal to the diameter of the switch slide rod 224 . In this embodiment, the end of the switch sliding rod 224 moves in the sliding groove 201, and the diameter of the switching sliding rod 224 is equal to the diameter of the sliding groove 201, so that the switch sliding rod 224 and the The side walls of the sliding groove 201 are slidably abutted, so that the side walls of the sliding groove 201 can clamp the switch sliding rod 224 to improve the sliding stability of the switching sliding rod 224 in the sliding groove 201 .

It can be understood that during the moving process of the child lock switch part 220, there is a traceability of the moving track, that is, under the limitation of the child lock track through hole 102, there is a certain probability that the child lock is opened by mistake. It is easy to cause the atomization child lock structure to be opened unintentionally, so that the difficulty of unlocking is low.

In order to improve the unlocking difficulty of the atomized child lock structure, please refer to FIG. The switch slide plate 222 is connected, the end of the first slide bar 2242 away from the switch slide plate 222 is in sliding contact with the child lock air guide 210, and the first end of the second slide bar 2244 is in contact with the first slide bar 2244. The second end of the second sliding rod 2244 is in sliding contact with the child lock air guide 210 , and the first sliding rod 2242 has a first air guide hole communicating with the first through hole 206 203, the second slide bar 2244 has a second air guide hole 205 communicating with the first air guide hole 203, the first air guide hole 203 and the second air guide hole 205 jointly form the second through hole 208 . In this embodiment, the first slide bar 2242 is used as the main slide bar of the switch slide bar 224 , that is, the first slide bar 2242 is used to support the switch slide plate 222 to slide on the base 100 , Ensure that the switch slide plate 222 always covers the child lock track through hole 102, and the first slide bar 2242 is provided with the first air guide hole 203, and the first air guide hole 203 and the first through hole 206 to facilitate the introduction of external air into the first sliding rod 2242 . The second slide bar 2244 is used as an auxiliary slide bar of the switch slide bar 224, that is, the second slide bar 2244 is used to assist the switch slide plate 222 to slide on the base 100, further ensuring that the switch slide plate 222 The child lock track through hole 102 is always covered, and the second slide bar 2244 is provided with the second air guide hole 205, and the second air guide hole 205 communicates with the first air guide hole 203, so as to facilitate external The air is introduced into the first child lock channel 202 through the first air guide hole 203 and the second air guide hole 205 . Since the air outlet end of the second sliding rod 2244 is far away from the first sliding rod 2242 , that is, the end of the second sliding rod 2244 away from the first sliding rod 2242 abuts against the child lock air guide 210 , Specifically, the switch slide bar 224 has an "h"-shaped structure, and the second air hole 205 of the second slide bar 2244 introduces external air. In this way, after the switch slide bar 224 is moved to a designated position, it is necessary to rotate the first slide bar 2242 so that the second slide bar 2244 rotates with the first slide bar 2242 as the central axis. Align the second slide bar 2244 with the first child lock channel 202, so that the second child lock channel 204 communicates with the first child lock channel 202, thereby realizing unlocking in two ways of movement and rotation , improving the unlocking difficulty of the atomized child lock structure, effectively reducing the probability of accidental opening.

Further, when the atomized child lock structure is locked and idle, although the second child lock channel 204 and the first child lock channel 202 are isolated from each other, the second child lock channel 204 is still connected to the outside for a long time. The environment is connected, and it is easy to cause dust in the external environment to enter the interior through the first air guide hole 203 and the second air guide hole 205, causing the interior of the atomized child lock structure to deposit dirt to block the second child lock Channel 204.

In order to reduce the blockage of the second child lock channel 204, please refer to FIG. The opening of the groove 207 faces the side away from the child lock air guide 210, the dust collection accommodation groove 207 is aligned with the first air guide hole 203, and the dust collection accommodation groove 207 is used to collect the external environment in the dust. In this embodiment, the dust collection accommodating groove 207 is opened in the first slide bar 2242, the dust collection accommodating groove 207 communicates with the first air guide hole 203, and the dust collecting accommodating groove 207 and the first air guide hole 203 form a dust collection channel, that is, the dust collection accommodating groove 207 communicates with the outside through the first air guide hole 203, and the external dust can fall into the The dust-collecting accommodating tank 207 is convenient for the dust-collecting accommodating tank 207 to collect dust in the external environment, so that the dust entering the inside of the atomized child lock structure is mainly deposited in the dust-collecting accommodating tank In 207 , the possibility of external dust entering the second air guide hole 205 is effectively reduced, thereby effectively reducing the blockage of the second child lock passage 204 .

Furthermore, after the first slide bar 2242 is moved to a designated position, the switch slide plate 222 needs to be rotated so that the second air guide hole 205 of the second slide bar 2244 is aligned with the first child lock passage. 202 connected. In order to mark the rotation angle of the switch sliding plate 222 so as to make the rotation of the switch sliding plate 222 more convenient, please refer to FIG. The body 2222 is slidably disposed on the base 100, the first identification part 2224 is connected with the board body 2222, the first identification part 2224 is set away from the first slide bar 2242, and the first identification part 2224 corresponds to the second sliding bar 2244, the atomized child lock structure 10 further includes a second identification part 300 connected to the base 100, the second identification part 300 is located between the base 100 and the board Between the bodies 2222, the second identification part 300 is provided corresponding to the first child lock channel 202, and the second identification part 300 is used to be exposed when the first sliding bar 2242 moves to a designated position.

In this embodiment, the first identification part 2224 is located on the side of the board body 2222 away from the base 100, so that the first identification part 2224 can be easily identified and found, and the first identification part 2224 and the first identification part 2224 The two slide bars 2244 are corresponding, so that when the plate body 2222 rotates, the rotation angles of the first identification part 2224 and the second slide bar 2244 are equal, ensuring that the first identification part 2224 acts as the second identification part 2224. The rotation of slide bar 2244 is the same. The second identification part 300 is arranged on the side of the base 100 close to the board body 2222, the second identification part 300 corresponds to the first child lock channel 202, and the second identification part 300 serves as the The equivalent position of the first child lock channel 202 is on the base 100 . When locked, the second identification part 300 is covered by the plate body 2222, and there is no need to display the second identification part 300; when the first slide bar 2242 is moved to the designated position, it is about to be unlocked , the plate body 2222 no longer covers the second marking part 300, so that the second marking part 300 is exposed, which facilitates alignment with the first marking part 2224, thereby facilitating 2224 relative to the second identification part 300, quickly rotate the plate 2222, so that the second air guide hole 205 of the second slide bar 2244 communicates with the first child lock channel 202, realizing The quick rotation of the atomization child lock structure is unlocked. Wherein, the atomized child lock structure is unlocked through a dual mode of movement and rotation, which further increases the difficulty of unlocking the atomized child lock structure and further reduces the probability of mis-unlocking the atomized child lock structure.

In one embodiment, the present application also provides an electronic atomizer, including the atomization child lock structure described in any one of the above embodiments. In this embodiment, the atomized child lock structure includes a base and a child lock assembly. The base is used to connect with the shell of the electronic atomizer, and the base is provided with a child lock track through hole. The child lock assembly includes a child lock air guide and a child lock switch. The child lock air guide is connected to the base, at least part of the child lock air guide is located in the housing, and the child lock air guide has a first child lock channel communicating with the inside of the housing. The child lock switch is movably connected to the base, the child lock switch is located on the side of the base away from the child lock air guide and covers the child lock track through hole, the child lock switch The child lock switch part is provided with a second child lock channel through the through hole of the child lock track and slides against the child lock air guide. The second child lock channel is used to isolate from the first child lock channel when locked. In the locked state, the second child lock channel is not connected to the first child lock channel; and when unlocked, the child lock switch needs to be moved to the designated position to align the second child lock channel with the first child lock channel , so that the second child lock channel and the first child lock channel communicate with each other, so that the second child lock channel and the first child lock channel together form an air intake channel, which facilitates the communication between the interior of the electronic atomizer and the external environment, thereby It is convenient to introduce gas into the interior of the electronic atomizer to realize the unlocking of the air channel of the electronic atomizer.

The above-mentioned embodiments only express several implementation modes of the present invention, and the descriptions thereof are relatively specific and detailed, but should not be construed as limiting the patent scope of the invention. It should be pointed out that those skilled in the art can make several modifications and improvements without departing from the concept of the present invention, and these all belong to the protection scope of the present invention. Therefore, the protection scope of the patent for the present invention should be based on the appended claims.

Claims (10)

1. An atomized child lock structure, characterized in that it comprises: A base, the base is used to connect with the shell of the electronic atomizer, and the base is provided with a child lock track through hole; A child lock assembly, the child lock assembly includes a child lock air guide and a child lock switch, the child lock air guide is connected to the base, at least part of the child lock air guide is located in the housing, The child lock air guide has a first child lock channel communicating with the inside of the housing, the child lock switch is movably connected to the base, and the child lock switch is located on the base away from the child lock guide. One side of the air part covers the through hole of the child lock track, the child lock switch part passes through the through hole of the child lock track and slides against the child lock air guide part, the child lock switch The component has a second child lock channel, and the second child lock channel is used to be isolated from the first child lock channel when locked. 2 . The atomized child lock structure according to claim 1 , wherein the projected area of the child lock switch on the base is larger than the through hole area of the child lock track through hole. 3 . 3. The atomized child lock structure according to claim 2, characterized in that the ratio of the projected area of the child lock switch on the base to the through hole area of the child lock track through hole is 5 to 5. 10. 4. The atomized child lock structure according to claim 1, wherein the child lock switch has a sliding abutment surface, the sliding abutment surface and the base are arranged parallel to each other, and the sliding abutment surface The surface fits on the base. 5. The atomized child lock structure according to claim 1, wherein the child lock switch part comprises a switch slide plate and a switch slide bar connected to each other, and the switch slide plate slides against the base, so that The switch slide rod is passed through the through hole of the child lock track and abuts against the child lock air guide. 6. The atomized child lock structure according to claim 5, wherein the switch slide plate is provided with a first through hole, and the switch slide bar is provided with a second through hole communicating with the first through hole , the first through hole and the second through hole form the second child lock channel. 7. The atomizing child lock structure according to claim 5, characterized in that, the second child lock channel is opened on the switch slide plate. 8. The atomized child lock structure according to claim 5, wherein the child lock air guide is provided with a sliding groove communicating with the first child lock channel, and the sliding groove is also connected to the child lock channel. The lock track communicates with the through hole, and a part of the switch slide bar is slidably arranged in the slide groove. 9. The atomizing child lock structure according to claim 8, characterized in that, the diameter of the sliding groove is equal to the diameter of the switch sliding rod. 10. An electronic atomizer, characterized by comprising the atomization child lock structure according to any one of claims 1 to 9.

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