Vibration switch trigger device and electronic atomizer

Abstract

The present application provides a vibration switch trigger device and an electronic atomizer. The above-mentioned vibration switch trigger device includes a vibration trigger part and a vibration assembly; the vibration trigger part has a vibration trigger conductive area; the vibration assembly includes a vibration impact conductive part and a collision point moving part, the vibration impact conductive part is connected to the collision point moving part, the vibration impact conductive part is used to impact and contact with the vibration trigger conductive area when the vibration is unlocked, and the collision point moving part is connected to the vibration trigger part. First, the collision point moving part of the vibration switch trigger device is rotated to make the vibration impact conductive part move to a position relative to the vibration trigger conductive area, and then the vibration switch trigger device is swung to make the vibration impact conductive part vibrate, so that the vibration impact conductive part hits the vibration trigger conductive area at a specified position, which is convenient for unlocking according to the vibration impact situation to avoid arbitrary unlocking, and effectively improves the safety of the vibration switch trigger device.

Description

Technical Field

[0001] The present invention relates to the technical field of atomizers, and in particular to a vibration switch trigger device and an electronic atomizer. Background Art

[0002] With the rapid development of electronic vaporizers, their sales have increased year by year. High-quality, well-branded electronic vaporizers are very popular with consumers and occupy a large market share. In actual use, they are generally locked to prevent unauthorized use.

[0003] However, the traditional locking mechanism is basically a mechanical button, which is too easy to crack and has low security, and can be easily cracked and used by others. Summary of the Invention

[0004] The purpose of the present invention is to overcome the deficiencies in the prior art and provide a vibration switch trigger device and an electronic atomizer that effectively improve the safety of use.

[0005] The object of the present invention is achieved through the following technical solutions:

[0006] A vibration switch trigger device includes: a vibration trigger member and a vibration assembly; the vibration trigger member has a vibration trigger conductive area, and the vibration trigger conductive area is used to connect to the first detection end of the vibration detector; the vibration assembly includes a vibration impact conductive member and a collision point moving member, the vibration impact conductive member is connected to the collision point moving member, the vibration impact conductive member is used to impact and contact with the vibration trigger conductive area when vibration unlocking, the vibration impact conductive member is also used to connect to the second detection end of the vibration detector, the collision point moving member is connected to the vibration trigger member, and the collision point moving member is used to move the vibration impact conductive member to correspond to the vibration trigger conductive area when vibration unlocking.

[0007] In one embodiment, the vibration triggering member includes a receiving portion and a vibration triggering conductive portion that are connected to each other, the receiving portion is connected to the impact point moving member, the vibration triggering conductive portion is used to vibrate and abut against the vibration impact conductive member, and the vibration triggering conductive portion is also used to be electrically connected to the vibration triggering input end of the vibration detector.

[0008] In one embodiment, there are multiple vibration triggering conductive parts, and the multiple vibration triggering conductive parts are distributed in sequence along the moving direction of the impact point moving part, and each vibration triggering conductive part is used to be electrically connected to a trigger input terminal of the vibration detector.

[0009] In one embodiment, the vibration triggering member further includes a plurality of vibration triggering insulating portions, and one vibration triggering insulating portion is provided between any two adjacent vibration triggering conductive portions.

[0010] In one embodiment, the resistance values ​​of any two adjacent vibration-triggered conductive parts are different.

[0011] In one embodiment, the resistance of each vibration-triggered conductive portion gradually increases along the moving direction of the collision point moving member.

[0012] In one embodiment, the vibration triggering member has a vibration space, and the vibration impact conductive member is movably disposed in the vibration space.

[0013] In one embodiment, the impact point moving member is a vibration spring, one end of the vibration spring is connected to the vibration impact conductive member, and the other end of the vibration spring is connected to the vibration triggering member.

[0014] In one embodiment, the vibration triggering member is provided with a displacement card hole, the impact point moving member is a vibration spring needle, the vibration spring needle and the vibration impact conductive member are passed through the displacement card hole to move the vibration impact conductive member to a position corresponding to the vibration triggering conductive area.

[0015] An electronic atomizer comprises the vibration switch triggering device described in any one of the above embodiments.

[0016] Compared with the prior art, the present invention has at least the following advantages:

[0017] When unlocking, first rotate the impact point moving part of the vibration switch trigger device to make the impact point moving part drive the vibration impact conductive part to move, so that the vibration impact conductive part moves to a position opposite to the vibration trigger conductive area, so that the vibration impact conductive part and the vibration trigger conductive area are directly opposite, and then swing the vibration switch trigger device to make the vibration impact conductive part vibrate, so that the vibration impact conductive part hits the vibration trigger conductive area at a specified position, so as to transmit the electrical signal generated by the vibration impact between the vibration impact conductive part and the vibration trigger conductive area to the vibration detector, so as to facilitate unlocking according to the situation of the vibration impact, so as to avoid arbitrary unlocking, effectively increase the difficulty of cracking the lock, and thus effectively improve the safety of use of the vibration switch trigger device. BRIEF DESCRIPTION OF THE DRAWINGS

[0018] In order to more clearly illustrate the technical solutions of the embodiments of the present invention, the following briefly introduces the drawings required for use in the embodiments. It should be understood that the following drawings only illustrate certain embodiments of the present invention and therefore should not be regarded as limiting the scope. For ordinary technicians in this field, other relevant drawings can be obtained based on these drawings without paying any creative work.

[0019] Figure 1 is a schematic diagram of a vibration switch triggering device in one embodiment;

[0020] Figure 2 for Figure 1 A cross-sectional view of the vibration switch trigger device along the AA direction;

[0021] Figure 3 is a schematic diagram of a vibration switch triggering device in another embodiment;

[0022] Figure 4 for Figure 3 A cross-sectional view of the vibration switch trigger device along the BB direction;

[0023] Figure 5 is a schematic diagram of an electronic atomizer in one embodiment;

[0024] Figure 6 for Figure 4 The cross-sectional view of the electronic atomizer along the CC direction is shown. DETAILED DESCRIPTION

[0025] To facilitate understanding of the present invention, the present invention will be described more fully below with reference to the accompanying drawings. The accompanying drawings illustrate preferred embodiments of the present invention. However, the present invention may be implemented in many different forms and is not limited to the embodiments described herein. Rather, these embodiments are provided to provide a more thorough and comprehensive understanding of the present disclosure.

[0026] It should be noted that when an element is referred to as being "fixed to" another element, it may be directly attached to the other element or there may be an intermediate element. When an element is referred to as being "connected to" another element, it may be directly connected to the other element or there may be an intermediate element. The terms "vertical," "horizontal," "left," "right," and similar expressions used herein are for illustrative purposes only and do not represent the only implementation methods.

[0027] Unless otherwise defined, all technical and scientific terms used herein have the same meaning as commonly understood by those skilled in the art to which this invention pertains. The terms used herein in the specification of the present invention are for the purpose of describing specific embodiments only and are not intended to limit the present invention. The term "and / or" as used herein includes any and all combinations of one or more of the associated listed items.

[0028] The present invention relates to a vibration switch trigger device. In one embodiment, the vibration switch trigger device includes a vibration trigger part and a vibration assembly. The vibration trigger part has a vibration trigger conductive area, and the vibration trigger conductive area is used to connect to the first detection end of the vibration detector. The vibration assembly includes a vibration impact conductive part and an impact point moving part. The vibration impact conductive part is connected to the impact point moving part, and the vibration impact conductive part is used to impact and contact with the vibration trigger conductive area when the vibration is unlocked. The vibration impact conductive part is also used to connect to the second detection end of the vibration detector. The impact point moving part is connected to the vibration trigger part, and the impact point moving part is used to move the vibration impact conductive part to correspond to the vibration trigger conductive area when the vibration is unlocked. When unlocking, first rotate the impact point moving part of the vibration switch trigger device to make the impact point moving part drive the vibration impact conductive part to move, so that the vibration impact conductive part moves to a position opposite to the vibration trigger conductive area, so that the vibration impact conductive part and the vibration trigger conductive area are directly opposite, and then swing the vibration switch trigger device to make the vibration impact conductive part vibrate, so that the vibration impact conductive part hits the vibration trigger conductive area at a specified position, so as to transmit the electrical signal generated by the vibration impact between the vibration impact conductive part and the vibration trigger conductive area to the vibration detector, so as to facilitate unlocking according to the situation of the vibration impact, so as to avoid arbitrary unlocking, effectively increase the difficulty of cracking the lock, and thus effectively improve the safety of use of the vibration switch trigger device.

[0029] See also Figure 1 , which is a structural diagram of a vibration switch trigger device according to an embodiment of the present invention.

[0030] The vibration switch trigger device 10 of one embodiment includes a vibration trigger member 100 and a vibration assembly 200. The vibration trigger member 100 has a vibration trigger conductive area 102, and the vibration trigger conductive area 102 is used to connect to the first detection end of the vibration detector. Figure 2The vibration assembly 200 includes a vibration impact conductive member 210 and a collision point moving member 220. The vibration impact conductive member 210 is connected to the collision point moving member 220. The vibration impact conductive member 210 is used to impact and contact the vibration triggering conductive area 102 during vibration unlocking. The vibration impact conductive member 210 is also used to connect to the second detection end of the vibration detector. The collision point moving member 220 is connected to the vibration triggering member 100. The collision point moving member 220 is used to move the vibration impact conductive member 210 to correspond to the vibration triggering conductive area 102 during vibration unlocking.

[0031] In this embodiment, when unlocking, the impact point moving part 220 of the vibration switch trigger device is first rotated so that the impact point moving part 220 drives the vibration impact conductive part 210 to move, thereby causing the vibration impact conductive part 210 to move to a position opposite to the vibration trigger conductive area 102, so that the vibration impact conductive part 210 is directly opposite to the vibration trigger conductive area 102, and then the vibration switch trigger device is swung to cause the vibration impact conductive part 210 to vibrate, so that the vibration impact conductive part 210 hits the vibration trigger conductive area 102 at a specified position, so that the electrical signal generated by the vibration impact between the vibration impact conductive part 210 and the vibration trigger conductive area 102 is transmitted to the vibration detector, so as to facilitate unlocking according to the vibration impact situation, so as to avoid arbitrary unlocking, effectively increasing the difficulty of cracking the lock, and thus effectively improving the safety of use of the vibration switch trigger device. In which, a vibration switch is formed between the vibration impact conductive member 210 and the vibration trigger conductive area 102 when they impact and contact, that is, the electrical conductivity between the vibration impact conductive member 210 and the vibration trigger conductive area 102 is used as the detection quantity of the vibration switch, so that the vibration detector can form the required unlocking vibration switch code according to the electrical on-off status detected by the detection end. For example, the number of electrical conductions and the electrical conduction time interval between the vibration impact conductive member 210 and the vibration trigger conductive area 102 are used as the unlocking vibration switch code.

[0032] In one embodiment, see Figure 2The vibration triggering member 100 includes a receiving portion 110 and a vibration triggering conductive portion 120 that are interconnected. The receiving portion 110 is connected to the impact point moving member 220. The vibration triggering conductive portion 120 is used to vibrate and abut against the vibration impact conductive member 210. The vibration triggering conductive portion 120 is also used to be electrically connected to the vibration triggering input terminal of the vibration detector. In this embodiment, the receiving portion 110 serves as an installation component of the impact point moving member 220, that is, the impact point moving member 220 is installed with the receiving portion 110 as a base, which facilitates the installation of the impact point moving member 220. The vibration triggering conductive portion 120 is connected to the receiving portion 110. Specifically, the vibration triggering conductive portion 120 is set at a designated position according to actual conditions. The vibration-triggered conductive part 120 itself has conductive properties, and the impact point moving part 220 moves the vibration-triggered conductive part 210 to the vibration-triggered conductive part 120 at a specified position, so that when the vibration switch trigger device is vibrated to unlock, the vibration-triggered conductive part 210 contacts the vibration-triggered conductive part 120, thereby achieving electrical conduction between the vibration-triggered conductive part 210 and the vibration-triggered conductive part 120, thereby achieving the number of collisions between the vibration-triggered conductive part 210 and the vibration-triggered conductive part 120 being collected by the vibration detector, that is, the number of vibration collisions is calculated by the number of electrical conductions between the vibration-triggered conductive part 210 and the vibration-triggered conductive part 120, so that the vibration detector determines whether to unlock according to the number of vibration collisions.

[0033] Furthermore, there are multiple vibration triggering conductive parts 120, and the multiple vibration triggering conductive parts 120 are distributed in sequence along the moving direction of the impact point moving part 220, and each vibration triggering conductive part 120 is used to be electrically connected to a trigger input terminal of the vibration detector. In this embodiment, the multiple vibration triggering conductive parts 120 are arranged at intervals from each other, and the position of each vibration triggering conductive part 120 is different, that is, the position of each vibration triggering conductive part 120 on the vibration switch trigger device is different, that is, the relative position between each vibration triggering conductive part 120 and the vibration impact conductive part 210 is different, so that the required vibration unlocking code can be formed according to the impact between the vibration impact conductive part 210 and each vibration triggering conductive part 120. Moreover, since the positions of the vibration triggering conductive parts 120 in the vibration switch triggering device are different, it is convenient to make multiple combinations of the formed vibration unlocking codes, that is, to combine the vibration impact conductive part 210 with the impact unlocking codes of different vibration triggering conductive parts 120 to increase the unlocking difficulty of the vibration switch triggering device, thereby further improving the safety of use of the vibration switch triggering device and further preventing others from using it at will.

[0034] For further information, see Figure 2 The vibration triggering member 100 also includes a plurality of vibration triggering insulating portions 130, and one vibration triggering insulating portion 130 is provided between any two adjacent vibration triggering conductive portions 120. In this embodiment, the vibration triggering conductive portion 120 is used to electrically conduct with the vibration impact conductive portion 210, so as to convert the impact state of the vibration impact conductive portion 210 into an electrically conductive state and transmit it to the vibration detector. Specifically, the vibration triggering conductive portion 120 and the vibration impact conductive portion 210 are both made of conductive metal. In order to facilitate the distinction of the impact conditions of the vibration impact conductive portion 210 and to form a more accurate unlocking code, the vibration triggering insulating portion 130 is placed between two adjacent vibration triggering conductive portions 120, so that each vibration triggering conductive portion 120 is insulated from each other, which facilitates the collection of the impact conditions between different vibration triggering conductive portions 120 and the vibration impact conductive portion 210, thereby avoiding the excessive complexity of the vibration unlocking code caused by the series connection of multiple vibration triggering conductive portions 120, and also facilitates the decoding of the vibration unlocking code by the vibration detector.

[0035] Furthermore, the resistance values ​​of any two adjacent vibration-triggered conductive parts 120 are different. In this embodiment, the vibration impact conductive part 210 is connected to the voltage output terminal of the vibration detector, providing a reference voltage for the vibration impact conductive part 210, so that when the vibration impact conductive part 210 impacts different vibration-triggered conductive parts 120, corresponding conduction voltages are generated. The different resistance values ​​of two adjacent vibration-triggered conductive parts 120 result in different conduction resistances formed between the vibration impact conductive part 210 and each vibration-triggered conductive part 120, thereby causing different conduction currents to be collected by each vibration trigger input terminal of the vibration detector. In turn, the vibration detector determines the impact position of the vibration impact conductive part 210 based on the different collected conduction currents, so as to separately collect the impact conditions generated on each vibration trigger conductive part 120. In another embodiment, the resistance value of each vibration trigger conductive part 120 gradually increases along the moving direction of the impact point moving part 220. Thus, under the same reference voltage, the conduction current collected by the vibration detector gradually decreases along the moving direction of the impact point moving member 220, and the impact position of the vibration impact conductive member 210 is determined based on the magnitude of the conduction current. The number of collisions between the vibration impact conductive member 210 and the vibration triggering conductive portion 120 can be determined based on the conduction duration of the conduction current.

[0036] In one embodiment, see Figure 2The vibration triggering member 100 has a vibration space 104, and the vibration impact conductive member 210 is movably disposed within the vibration space 104. In this embodiment, the vibration impact conductive member 210 moves within the vibration space 104, and the vibration space 104 serves as the movement space of the vibration impact conductive member 210, that is, the vibration space 104 serves as the expansion and contraction displacement space of the vibration impact conductive member 210, that is, the vibration space 104 serves as the position adjustment space of the vibration impact conductive member 210. The vibration impact conductive member 210 moves under the drive of the collision point moving member 220, so that the position of the vibration impact conductive member 210 is adjusted within the vibration space 104, so as to adjust the vibration impact conductive member 210 to the vibration triggering conductive area 102 at the specified position. In this way, after the vibration impact conductive member 210 moves to the specified position, during the vibration process, the vibration impact conductive member 210 can quickly and frequently collide with the vibration triggering conductive area 102, so as to quickly form the required collision unlocking code. In another embodiment, the vibration triggering member is a shell structure, and the interior of the vibration triggering member is an internal cavity of the shell.

[0037] In one embodiment, see Figure 2 The collision point moving member 220 is a vibration spring, one end of which is connected to the vibration impact conductive member 210, and the other end of which is connected to the vibration triggering member 100. In this embodiment, the collision point moving member 220 is a vibration spring, which changes the position of the vibration impact conductive member 210 by the deformation of the spring. Specifically, when the gravity direction of the vibration impact conductive member 210 and the expansion and contraction direction of the vibration spring change, the vibration spring pushes the vibration impact conductive member 210 to a specified position, so that the vibration impact conductive member 210 can collide with the corresponding vibration triggering conductive area 102, thereby facilitating the vibration switch triggering device to generate a corresponding vibration unlocking code through vibration.

[0038] In another embodiment, when the vibration triggering conductive area 102 is close to the vibration spring, the vibration switch trigger device is placed vertically and vibrates, and the vibration spring is squeezed by the gravity of the vibration impact conductive member 210, so that the vibration spring contracts, thereby causing the vibration impact conductive member 210 to compress the vibration spring, and then causing the vibration impact conductive member 210 to approach the vibration triggering conductive area 102; when the vibration triggering conductive area 102 is away from the vibration spring, the vibration switch trigger device is placed vertically in the opposite direction and vibrates, and the vibration spring is stretched by the gravity of the vibration impact conductive member 210, so that the vibration spring contracts. The vibration spring is extended, so that the vibration impact conductive member 210 pulls the vibration spring, and thus the vibration impact conductive member 210 is close to the vibration trigger conductive area 102; when the vibration trigger conductive area 102 is located in the middle of the vibration switch trigger device, the vibration switch trigger device is placed horizontally and vibrates, and the gravity of the vibration impact conductive member 210 and the elastic force of the vibration spring are perpendicular to each other and no longer affect each other, so that the vibration spring is in a naturally extended state, so that the vibration impact conductive member 210 is located in the middle of the vibration switch trigger device, and thus the vibration impact conductive member 210 is close to the vibration trigger conductive area 102.

[0039] In one embodiment, the vibration triggering member is provided with a displacement latch hole, and the impact point moving member is a vibrating spring pin. The vibrating spring pin and the vibrating impact conductive member are inserted into the displacement latch hole to move the vibrating impact conductive member to a position corresponding to the vibration triggering conductive area. In this embodiment, the displacement latch hole is provided with the impact point moving member, which is a vibrating spring pin. The elasticity of the vibrating spring pin facilitates the vibration of the vibrating impact conductive member on the vibrating spring pin. By moving the vibrating spring pin, the position of the vibrating impact conductive member on the vibration triggering member can be adjusted, thereby facilitating the adjustment of the vibrating impact conductive member to correspond to the vibration triggering conductive area.

[0040] It is understandable that during the use of the vibration switch trigger device, the unlocking may sometimes be suspended, which will cause the vibration switch trigger device to be idle, but at this time the vibration switch trigger device is still in a real-time detection state, that is, the vibration switch trigger device is in a working state. However, when the vibration switch trigger device is in a working state and vibration unlocking is not performed, for example, the vibration switch trigger device is restricted to be placed flat, and the elasticity of the impact point moving part 220 itself is weakened and the vibration impact conductive part 210 has its own gravity. The vibration impact conductive part 210 will be in contact with the vibration trigger conductive area 102 for a long time, which may easily lead to continuous consumption of battery power for the vibration switch trigger device, and ultimately affect the use time of the electronic atomizer.

[0041] In order to facilitate timely detection of the pause limit unlocking state of the vibration switch trigger device, please refer to Figure 3 and Figure 4 The vibration switch trigger device 10 also includes a temperature sensing detection component 300, which includes a temperature sensing member 310 and a sliding limit member 320. The sliding limit member 320 includes two parallel and spaced sliding limit rings 322. The vibration trigger 100 is inserted into the two sliding limit rings 322, and a sliding limit space 302 is formed between the two sliding limit rings 322. The temperature sensing member 310 is located between the vibration trigger 100 and the two sliding limit rings 322. Part of the temperature sensing member 310 is slidably arranged in the sliding limit space 302. The temperature sensing member 310 slides on the vibration trigger 100. The temperature sensing member 310 is used to sense the temperature of the vibration triggered conductive area 102. The temperature sensing member 310 is also connected to the third detection end of the vibration detector to transmit the temperature of the vibration triggered conductive area 102 to the vibration detector.

[0042] In this embodiment, the temperature sensing member 310 is slidably disposed on the surface of the vibration triggering member 100. The temperature sensing member 310 senses the temperature of the surface of the vibration triggering member 100, thereby facilitating the collection of the surface temperature of the vibration triggering conductive area 102. When the vibration switch triggering device is in the pause limit unlocked state, the vibration impact conductive member 210 will be in contact with the vibration triggering conductive area 102 for a long time, causing the vibration triggering conductive area 102 to continuously consume electrical energy, causing the surface temperature of the vibration triggering conductive area 102 to continuously rise, thereby facilitating the temperature sensing member 310 to collect the temperature change on the surface of the vibration triggering conductive area 102, thereby facilitating the determination of whether the vibration impact conductive member 210 has been in contact with the vibration triggering conductive area 102 for a long time, and further facilitating the determination of the pause limit unlocked state of the vibration switch triggering device, that is, determining whether the vibration switch triggering device is excessively consuming battery power at this time. In this way, the vibration detector analyzes the temperature collected by the temperature sensing element 310, so as to timely detect the pause limit unlocking state of the vibration switch trigger device, thereby facilitating timely shutting off the power output of the battery to the vibration switch trigger device, thereby facilitating reducing the excessive power consumption of the battery. In another embodiment, in order to ensure that the temperature sensing detection component 300 slides stably on the vibration trigger 100, the number of the temperature sensing elements 310 is multiple, and the multiple temperature sensing elements 310 are evenly distributed in the sliding limit space 302. In another embodiment, the temperature sensing element is a spherical structure, so that the temperature sensing element slides more smoothly on the vibration trigger.

[0043] Furthermore, when there are multiple vibration-triggered conductive areas 102, in order to reduce the number of the temperature sensing detection components 300, that is, to detect the temperature of each vibration-triggered conductive area 102 by one temperature sensing detection component 300, please refer to Figure 3The temperature sensing detection assembly 300 further includes a plurality of sliding posts 330 connected to the sliding limit ring 322. Each of the sliding posts 330 is located between the vibration trigger 100 and the sliding limit ring 322. The vibration trigger 100 is provided with a plurality of slide grooves 106, and each of the sliding posts 330 is slidably disposed in one of the slide grooves 106. In this embodiment, the sliding posts 330 serve as components for the sliding limit ring 322 to move on the vibration trigger 100. The sliding posts 330 utilize the slide grooves 106, i.e., the slide grooves 106 serve as guide grooves for the sliding posts 330, facilitating the movement of the sliding posts 330 on the vibration trigger 100. This causes the sliding limit ring 322 to move relative to the vibration trigger 100, thereby causing the temperature sensing element 310 to move along with it. In this way, even if the vibration switch trigger device is in a tilted state when restricted, the temperature sensing member 310 can also tilt, allowing the temperature sensing member 310 to move to the vibration-triggered conductive area 102 with which the vibration impact conductive member 210 is in tilted contact, thereby facilitating temperature detection of the vibration-triggered conductive area 102 with which the vibration impact conductive member 210 is in contact. In another embodiment, the sliding column 330 further separates the multiple temperature sensing members 310, preventing the multiple temperature sensing members 310 from being too concentrated and causing the sliding limit ring 322 to tilt.

[0044] For further information, please also refer to Figure 3 and Figure 4The vibration switch trigger device 10 also includes a limit assembly 400, which includes a limit rod 410 and a push rod 420. The end of the vibration trigger component 100 is provided with a first through hole 108 and a second through hole 101 that are interconnected. The limit rod 410 is passed through the first through hole 108. The limit rod 410 is used to correspond to the slide groove 106 to block the sliding column 330. The push rod 420 is passed through the second through hole 101. The push rod 420 slides and abuts against the limit rod 410. The push rod 420 is used to push part of the limit rod 410 to correspond to the slide groove 106. In this embodiment, the push rod 420 is used to push the limiting rod 410, causing a portion of the limiting rod 410 to extend out of the first through hole 108. This allows the portion of the limiting rod 410 to correspond with the slide groove 106, thereby preventing the sliding post 330 from sliding out of the slide groove 106 and ensuring stable sliding of the sliding post 330 within the slide groove 106. When the temperature sensing detection assembly 300 needs to be replaced or maintained, the push rod 420 can be removed from the second through hole 101, and the limiting rod 410 can be pushed back into the first through hole 108. This prevents the limiting rod 410 from blocking the sliding post 330, thereby facilitating removal of the temperature sensing detection assembly 300 and thus the vibration trigger 100. In another embodiment, a limiting assembly 400 is provided at each end of the vibration trigger 100, further ensuring the sliding stability of the temperature sensing detection assembly 300 on the vibration trigger 100. In another embodiment, the push rod member 420 has a push rod inclined surface, which is inclined in a direction away from the limiting rod 410. The push rod inclined surface is used to slide against the limiting rod 410 to facilitate quickly pushing the limiting rod 410 out of the first through hole 108.

[0045] In one embodiment, the present application also provides an electronic atomizer, please refer to Figure 5 and Figure 6, the electronic atomizer 20 includes the vibration switch trigger device 10 described in any of the above embodiments. In this embodiment, the vibration switch trigger device includes a vibration trigger and a vibration assembly. The vibration trigger has a vibration trigger conductive area, and the vibration trigger conductive area is used to connect with the first detection end of the vibration detector. The vibration assembly includes a vibration impact conductive part and a collision point moving part. The vibration impact conductive part is connected to the collision point moving part, and the vibration impact conductive part is used to impact and contact with the vibration trigger conductive area when the vibration is unlocked, and the vibration impact conductive part is also used to connect with the second detection end of the vibration detector. The collision point moving part is connected to the vibration trigger, and the collision point moving part is used to move the vibration impact conductive part to correspond to the vibration trigger conductive area when the vibration is unlocked. When unlocking, first rotate the impact point moving part of the vibration switch trigger device to make the impact point moving part drive the vibration impact conductive part to move, so that the vibration impact conductive part moves to a position opposite to the vibration trigger conductive area, so that the vibration impact conductive part and the vibration trigger conductive area are directly opposite, and then swing the vibration switch trigger device to make the vibration impact conductive part vibrate, so that the vibration impact conductive part hits the vibration trigger conductive area at a specified position, so as to transmit the electrical signal generated by the vibration impact between the vibration impact conductive part and the vibration trigger conductive area to the vibration detector, so as to facilitate unlocking according to the situation of the vibration impact, so as to avoid arbitrary unlocking, effectively increase the difficulty of cracking the lock, and thus effectively improve the safety of use of the vibration switch trigger device.

[0046] In another embodiment, the vibration switch trigger device and the entire electronic atomizer remain perpendicular to each other, that is, the distribution direction of the multiple vibration trigger conductive parts remains perpendicular to the battery rod body of the electronic atomizer.

[0047] The above-described embodiments merely illustrate several implementations of the present invention, and while their descriptions are relatively specific and detailed, they should not be construed as limiting the scope of the patent. It should be noted that a person skilled in the art would be able to make numerous variations and improvements without departing from the spirit of the present invention, all of which fall within the scope of protection of the present invention. Therefore, the scope of protection of the patent for this invention shall be determined by the appended claims.

Claims

1. A vibration switch trigger device, characterized in that: include: A vibration triggering member having a vibration triggering conductive area, wherein the vibration triggering conductive area is used to be connected to the first detection end of the vibration detector; a vibration assembly, the vibration assembly comprising a vibration impact conductive member and an impact point moving member, the vibration impact conductive member being connected to the impact point moving member, the vibration impact conductive member being configured to impact and contact the vibration triggering conductive area during vibration unlocking, the vibration impact conductive member being further configured to be connected to the second detection end of the vibration detector, the impact point moving member being connected to the vibration triggering member, the impact point moving member being configured to move the vibration impact conductive member to correspond to the vibration triggering conductive area during vibration unlocking; A temperature sensing detection component, the temperature sensing detection component includes a temperature sensing part and a sliding limit part, the sliding limit part includes two parallel and spaced sliding limit rings, the vibration triggering part is passed through the two sliding limit rings, and a sliding limit space is formed between the two sliding limit rings, the temperature sensing part is located between the vibration triggering part and the two sliding limit rings, the temperature sensing part is partially slidably arranged in the sliding limit space, the temperature sensing part slides on the vibration triggering part, the temperature sensing part is used to sense the temperature of the vibration triggering conductive area, and the temperature sensing part is also connected to the third detection end of the vibration detector to transmit the temperature of the vibration triggering conductive area to the vibration detector.

2. The vibration switch trigger device according to claim 1, characterized in that: The vibration triggering part includes a receiving part and a vibration triggering conductive part that are connected to each other. The receiving part is connected to the impact point moving part. The vibration triggering conductive part is used to vibrate and abut against the vibration impact conductive part. The vibration triggering conductive part is also used to be electrically connected to the vibration triggering input end of the vibration detector.

3. The vibration switch trigger device according to claim 2, characterized in that: There are multiple vibration-triggered conductive parts, which are distributed in sequence along the moving direction of the impact-point moving part. Each vibration-triggered conductive part is used to be electrically connected to a trigger input terminal of the vibration detector.

4. The vibration switch trigger device according to claim 3, characterized in that: The vibration triggering component further includes a plurality of vibration triggering insulating portions, and one vibration triggering insulating portion is provided between any two adjacent vibration triggering conductive portions.

5. The vibration switch trigger device according to claim 3, characterized in that: The resistance values ​​of any two adjacent vibration-triggered conductive parts are different.

6. The vibration switch trigger device according to claim 5, characterized in that: In the moving direction of the collision point moving member, the resistance value of each vibration-triggered conductive portion gradually increases.

7. The vibration switch trigger device according to claim 1, characterized in that: The vibration triggering component has a vibration space, and the vibration impact conductive component is movably arranged in the vibration space.

8. The vibration switch trigger device according to claim 1, characterized in that: The collision point moving part is a vibration spring, one end of the vibration spring is connected to the vibration impact conductive part, and the other end of the vibration spring is connected to the vibration triggering part.

9. The vibration switch trigger device according to claim 1, characterized in that: The vibration triggering component is provided with a displacement card hole, and the impact point moving component is a vibration spring needle. The vibration spring needle and the vibration impact conductive component are inserted into the displacement card hole to move the vibration impact conductive component to a position corresponding to the vibration triggering conductive area.

10. An electronic atomizer, characterized in that: The invention comprises a vibration switch trigger device as claimed in any one of claims 1 to 9.

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