Electronic evaporator and evaporation equipment

Abstract

The utility model provides an electronic evaporator and evaporation equipment. The electronic evaporator comprises an evaporation assembly, an electric control assembly and a battery structure; the electric control assembly is connected between the evaporation assembly and the battery structure, the electric control assembly and the battery structure are detachably connected and electrically connected with each other, and the electric control assembly is used for supplying power to the evaporation assembly; the evaporation assembly comprises an evaporation base, an evaporation bin and an upper cover, the evaporation bin is used for containing a medium, the upper cover covers a top opening of the evaporation bin, and the upper cover is provided with an air inlet communicated with the evaporation bin; the evaporation bin is installed in the evaporation base, an airflow cavity is formed between the outer side wall of the evaporation bin and the inner side wall of the evaporation base, and the airflow cavity communicates with the evaporation bin; the bottom of the evaporation base is connected with an air guide pipe, an inlet of the air guide pipe communicates with the airflow cavity, and an outlet of the air guide pipe communicates with the suction nozzle. The battery structure is independent relative to the electric control assembly, so that the battery structure is convenient to replace, and meanwhile, the battery structure can be conveniently matched with different suction nozzles.

Description

Technical Field

[0001] This application belongs to the field of evaporation technology. More specifically, it relates to an electronic evaporator and an evaporation device. Background Art

[0002] An electronic evaporator is a device that can heat and evaporate a medium to form an aerosol when powered on. Currently, a common type of electronic evaporator on the market includes an evaporation structure and a glassware. The evaporation structure has a built-in battery and can evaporate an aerosol when powered on. The glassware is sleeved outside the evaporation structure, and the aerosol can flow through the glassware. There is a liquid in the glassware for cooling and filtering the aerosol. Since a large amount of liquid needs to be stored in the glassware, the entire electronic evaporator is large in volume and heavy in weight, inconvenient to carry and use, and unable to meet the usage requirements of users in different scenarios. Summary of the Utility Model

[0003] The purpose of the embodiments of this application is to provide an electronic evaporator and an evaporation device to solve the technical problem in the prior art that the usage requirements of users in different scenarios cannot be met.

[0004] To achieve the above purpose, the technical solution adopted in this application is: providing an electronic evaporator, which includes an evaporation component, an electronic control component, and a battery structure; the electronic control component is connected between the evaporation component and the battery structure, the electronic control component is detachably connected to the battery structure and electrically connected to each other, and the electronic control component is used to supply power to the evaporation component; the evaporation component includes an evaporation base, an evaporation chamber, and an upper cover. The evaporation chamber is used to accommodate the medium, the upper cover covers the top opening of the evaporation chamber, and the upper cover has an air inlet communicating with the evaporation chamber; the evaporation chamber is installed in the evaporation base, and an air flow chamber is formed between the outer side wall of the evaporation chamber and the inner side wall of the evaporation base, and the air flow chamber communicates with the evaporation chamber; a guide pipe is connected to the bottom of the evaporation base, the inlet of the guide pipe communicates with the air flow chamber, and the outlet of the guide pipe is used to communicate with a mouthpiece.

[0005] In one embodiment, the guide pipe penetrates through the electronic control component, and a gas guide chamber is formed by enclosing between the battery structure and the electronic control component. The gas guide chamber communicates with the outlet of the guide pipe, and the gas guide chamber is used to communicate with the mouthpiece.

[0006] In one embodiment, a plurality of air outlet ports communicating with the gas guide chamber are distributed on the peripheral side wall of the battery structure or the electronic control component, and each air outlet port is used to communicate with the mouthpiece.

[0007] In one embodiment, a connecting pipe is provided in the battery structure, the inlet of the connecting pipe communicates with the gas guide chamber, and the outlet of the connecting pipe is used to connect to the mouthpiece.

[0008] In one embodiment, a seal is installed on the second battery structure, and the seal is used to form a seal between the air guide tube and the connecting tube in the air guide cavity.

[0009] In one embodiment, the electronic evaporator further includes a connector head, which is installed on the electronic control component or the battery structure, and the connector head is communicated with the air guide tube, and the connector head is used for assembling the mouthpiece.

[0010] In one embodiment, the electronic control component is rotatably connected to the battery structure, and the electronic control component rotates relative to the battery structure and has a first circumferential position and a second circumferential position; when the electronic control component is in the first circumferential position, an axial limit is formed with the battery structure; when the electronic control component is in the second circumferential position, it can be axially separated from the battery structure.

[0011] In one embodiment, the battery structure and the electronic control component are sleeved with each other, and one of the battery structure and the electronic control component is provided with a bump, and the other of the battery structure and the electronic control component forms a limiting groove. The limiting groove includes a first groove portion and a second groove portion. The first groove portion extends along the axis of the electronic control component, and the second groove portion extends along the circumference of the electronic control component. The first groove portion is used to guide the bump to be caught in the second groove portion.

[0012] On the other hand, the present application also provides an evaporation device, including a mouthpiece and the above-mentioned electronic evaporator, and the mouthpiece is communicated with the outlet of the air guide tube.

[0013] In one embodiment, the mouthpiece is sleeved outside the electronic control component and the battery structure, and the inside of the mouthpiece can hold liquid easily;

[0014] Alternatively, the mouthpiece is connected to the outside of the electronic control component or the battery structure through a connector head.

[0015] The beneficial effects of the electronic evaporator and the evaporation device provided by this application are as follows: By separating the battery structure from the electronic control component and making the battery structure detachably connected to the electronic control component, the battery structure is convenient for disassembly and repair, and at the same time, the battery structure is easy to replace. For example, the battery structure with different air guiding methods can be replaced to match different nozzles, such as a nozzle that can hold liquid or a nozzle that cannot hold liquid. At the same time, the independent setting of the battery structure enables the battery structure not to interfere with the air duct extending from the bottom of the evaporation base, and it is convenient to design different air guiding structures between the electronic control component and the battery structure to match different nozzles to meet the usage requirements of different scenarios of users. For example, a nozzle that can hold liquid can be matched indoors, and a nozzle with a simple structure, light weight, and easy to carry can be matched outdoors. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] In order to more clearly illustrate the technical solutions in the embodiments of this application, the following will briefly introduce the drawings required for use in the embodiments or the description of the prior art. Obviously, the following drawings are only some embodiments of this application. For those of ordinary skill in the art, without creative efforts, other drawings can also be obtained based on these drawings.

[0017] Figure 1 Assembly schematic diagram of the battery structure and the evaporation structure in the electronic evaporator provided by the embodiment of this application;

[0018] Figure 2 Cross-sectional schematic diagram of the battery structure and the evaporation structure in the electronic evaporator provided by the embodiment of this application;

[0019] Figure 3 Exploded structure schematic diagram of the evaporation structure in the electronic evaporator provided by the embodiment of this application;

[0020] Figure 4 Three-dimensional structure schematic diagram of one of the evaporation modules in the electronic evaporator provided by the embodiment of this application;

[0021] Figure 5 For Figure 4 Exploded structure schematic diagram of the evaporation module in

[0022] Figure 6 For Figure 4 Cross-sectional structure schematic diagram of the evaporation module in

[0023] Figure 7 Three-dimensional structure schematic diagram of another evaporation module in the electronic evaporator provided by the embodiment of this application;

[0024] Figure 8 For Figure 7 Exploded structure schematic diagram of the evaporation module in

[0025] Figure 9 is Figure 7 a schematic cross-sectional structure diagram of the evaporation module in the middle.

[0026] Among them, the reference numerals in the figure are as follows:

[0027] 100, evaporation structure; 110, second socket part; 120, limiting part; 130, second step; 140, evaporation component; 141, evaporation base; 142, bracket; 143, evaporation chamber; 144, upper cover; 1441, air inlet; 145, adapter; 1451, ventilation groove; 146, second conductive part; 147, air flow cavity; 148, gasket; 150, electronic control component; 151, control board; 152, inner shell; 153, outer shell; 154, upper shell; 155, docking part; 1551, substrate; 1552, second surrounding bone; 1553, first surrounding bone; 1554, limiting groove; 1555, first groove part; 1556, second groove part; 1557, air outlet; 156, first sealing sleeve; 1561, second sealing ring; 157, second sealing sleeve; 158, third sealing sleeve; 159, first conductive part; 160, air duct; 170, fourth conductive part; 200, first battery structure; 210, first socket part; 220, supporting part; 230, first step; 240, first battery; 250, battery board; 260, button; 270, transparent part; 271, light-transmitting plate; 272, first cylinder; 273, second cylinder; 280, light-shielding part; 290, bottom cover; 300, second battery structure; 310, seal; 311, plugging part; 312, abutting part; 320, second battery chamber; 330, second battery; 340, connecting pipe; 400, connector; 500, first air guide channel; 510, air guide cavity; 600, second air guide channel; 610, first air duct; 620, second air duct; 700, first sealing ring; 800, battery structure; 810, bump; 820, flange; 830, third conductive part; 900, first suction nozzle; 910, filtering part; 911, inner layer; 9111, first docking port; 912, middle layer; 9121, air guide port; 913, outer layer; 9131, second docking port; 920, suction part; 930, first filtering cavity; 940, second filtering cavity. Detailed implementation manners

[0028] In order to make the technical problems, technical solutions and beneficial effects to be solved by this application clearer, the following further details this application in conjunction with the accompanying drawings and embodiments. It should be understood that the specific embodiments described herein are only used to explain this application and are not used to limit this application.

[0029] It should be noted that when an element is referred to as being "fixed to" or "disposed on" another element, it can be directly on the other element or indirectly on the other element. When an element is referred to as being "connected to" another element, it can be directly connected to the other element or indirectly connected to the other element.

[0030] It should be understood that the orientation or circumferential positional relationships indicated by terms such as "length", "width", "upper", "lower", "front", "rear", "left", "right", "vertical", "horizontal", "top", "bottom", "inner", "outer", etc. are based on the orientation or circumferential positional relationships shown in the drawings. This is only for the convenience of describing the present application and simplifying the description, rather than indicating or implying that the device or element referred to must have a specific orientation, be constructed and operated in a specific orientation. Therefore, it should not be construed as a limitation to the present application.

[0031] In addition, the terms "first" and "second" are only used for descriptive purposes and cannot be construed as indicating or implying relative importance or implicitly specifying the quantity of the indicated technical features. Thus, the features defined with "first" and "second" may explicitly or implicitly include one or more of such features. In the description of the present application, "a plurality of" means two or more, unless otherwise specifically defined.

[0032] Now, the electronic evaporator provided by the embodiments of the present application will be described. The electronic evaporator can be matched with different nozzles to form different evaporation modules to meet different usage requirements of users.

[0033] Please refer to Figure 1 and Figure 2 , the electronic evaporator includes an evaporation component 140, an electronic control component 150, and a battery structure 800; the electronic control component 150 is connected between the evaporation component 140 and the battery structure 800, the electronic control component 150 is detachably connected to the battery structure 800 and electrically connected to each other, and the electronic control component 150 is used to supply power to the evaporation component 140; the evaporation component 140 includes an evaporation base 141, an evaporation chamber 143, and an upper cover 144. The evaporation chamber 143 is used to store the medium, the upper cover 144 covers the top opening of the evaporation chamber 143, and the upper cover 144 has an air inlet 1441 communicating with the evaporation chamber 143; the evaporation chamber 143 is installed in the evaporation base 141, and an air flow chamber 147 is formed between the outer side wall of the evaporation chamber 143 and the inner side wall of the evaporation base 141, and the air flow chamber 147 communicates with the evaporation chamber 143; a gas guide pipe 160 is connected to the bottom of the evaporation base 141, the inlet of the gas guide pipe 160 communicates with the air flow chamber 147, and the outlet of the gas guide pipe 160 is used to communicate with the nozzle.

[0034] Among them, the battery structure 800 powers the evaporation component 140 through the electronic control component 150, specifically powering the heating film in the evaporation component 140. The evaporation chamber 143 is used to store the medium. When the battery structure 800 powers the evaporation component 140, the medium in the evaporation chamber 143 is heated to evaporate and form an aerosol. Please refer to Figure 2 , and the aerosol is exported from the evaporation chamber 143 to the air flow cavity 147 and then exported to the mouthpiece through the air duct 160 for the user to inhale.

[0035] In the electronic evaporator provided by the embodiment of the present application, by separating the battery structure 800 from the electronic control component 150 independently, and the battery structure 800 is detachably connected to the electronic control component 150, the battery structure 800 is convenient for disassembly and repair, and at the same time, the battery structure 800 is convenient for replacement. For example, the battery structure 800 with different air guiding methods can be replaced to match different mouthpieces, such as a mouthpiece that can accommodate liquid or a mouthpiece that cannot accommodate liquid. At the same time, the independent setting of the battery structure 800 makes the battery structure 800 not interfere with the air duct 160 extending from the bottom of the evaporation base 141, and it is convenient to design different air guiding structures between the electronic control component 150 and the battery structure 800 to match different mouthpieces to meet the usage requirements of users in different scenarios. For example, a mouthpiece that can accommodate liquid can be matched indoors, and a mouthpiece with a simple structure, light weight, and convenient to carry can be matched outdoors.

[0036] In one embodiment, when the battery structure 800 is connected to the electronic control component 150, the battery structure 800 and the electronic control component 150 can form an electrical connection, so that the battery structure 800 can power the evaporation component 140 through the electronic control component 150.

[0037] Now, the detachable connection method and the electrical connection method between the battery structure 800 and the electronic control component 150 will be described separately.

[0038] In one embodiment, please refer to Figure 1 and Figure 2 , the electronic control component 150 is rotatably connected to the battery structure 800. The electronic control component 150 rotates relative to the battery structure 800 and has a first circumferential position and a second circumferential position; when the electronic control component 150 is in the first circumferential position, it forms an axial limit with the battery structure 800; when the electronic control component 150 is in the second circumferential position, it can be axially separated from the battery structure 800.

[0039] Among them, when in the first circumferential position, the axial limit is formed between the electronic control component 150 and the battery structure 800, which means that under the action of an external force, the electronic control component 150 and the battery structure 800 cannot be axially separated. When in the second circumferential position, the electronic control component 150 and the battery structure 800 can be axially separated, which means that under the action of an external force, the electronic control component 150 and the battery structure 800 can be axially separated. In addition, the axial direction here refers to the rotation axis of the electronic control component 150 and the battery structure 800.

[0040] During assembly, first axially sleeve the electronic control component 150 and the battery structure 800 with each other, and then rotate the electronic control component 150 and / or the battery structure 800 so that the electronic control component 150 rotates from the second circumferential position to the first circumferential position, so that the electronic control component 150 and the battery structure 800 form an axial limit, thereby completing the assembly.

[0041] In addition, recesses and protrusions can also be provided at the position where the electronic control component 150 and the battery structure 800 are sleeved and matched with each other. When the electronic control component 150 rotates to the first circumferential position, the concave and convex parts just form a concave-convex fit, thereby increasing the assembly stability of the electronic control component 150 and the battery structure 800.

[0042] In one embodiment, please refer to Figure 1 and Figure 2 , the battery structure 800 and the electronic control component 150 are sleeved with each other, and one of the battery structure 800 and the electronic control component 150 is provided with a bump 810, and the other of the battery structure 800 and the electronic control component 150 forms a limiting groove 1554; the limiting groove 1554 includes a first groove portion 1555 and a second groove portion 1556. The first groove portion 1555 extends along the axial direction of the electronic control component 150, and the second groove portion 1556 extends along the circumferential direction of the electronic control component 150. The first groove portion 1555 is used to guide the bump 810 to be stuck into the second groove portion 1556.

[0043] Among them, when the bump 810 is inserted into the first groove portion 1555, the electronic control component 150 is in the first circumferential position; when the bump 810 slides axially from the first groove portion 1555 into the second groove portion 1556, the electronic control component 150 is in the second circumferential position.

[0044] In a specific embodiment, please refer to Figure 1, a bump 810 is formed on the outer peripheral wall of the battery structure 800, a limiting groove 1554 is formed on the peripheral side wall of the electronic control assembly 150, and a first groove portion 1555 penetrates through one end face of the electronic control assembly 150 facing the battery structure 800. During assembly, axially, the bottom of the electronic control assembly 150 is sleeved outside the top of the battery structure 800, and the bump 810 is inserted into the first groove portion 1555 from the opening of the first groove portion 1555; then, the electronic control assembly 150 and the battery structure 800 are pushed to slide axially towards each other so that the bump 810 slides to the connection part of the first groove portion 1555 and the second groove portion 1556; finally, the electronic control assembly 150 and / or the battery structure 800 is rotated so that the bump 810 slides to a position at one end of the second groove portion 1556 away from the first groove portion 1555, thereby completing the assembly.

[0045] In one embodiment, please refer to Figure 2 , a first surrounding rib 1553 extends from the peripheral edge of one end of the electronic control assembly 150 facing the battery structure 800. The first surrounding rib 1553 is sleeved outside the battery structure 800, and the limiting groove 1554 is formed in the first surrounding rib 1553. Through the arrangement of the first surrounding rib 1553, the sleeving of the electronic control assembly 150 and the battery structure 800 can be realized, and at the same time, the limiting groove 1554 can be formed in the first surrounding rib 1553 to realize the detachable connection between the electronic control assembly 150 and the battery structure 800.

[0046] In one embodiment, please refer to Figure 2 , one end of the battery structure 800 facing the electronic control assembly 150 radially contracts to form a flange 820, and the first surrounding rib 1553 is sleeved on the flange 820. With such an arrangement, the outer surfaces of the assembled electronic control assembly 150 and the battery structure 800 can be flush.

[0047] In this embodiment, through the sliding fit of the first groove portion 1555, the second groove portion 1556 and the bump 810, the detachable connection between the electronic control assembly 150 and the battery structure 800 can be realized by rotation, with a simple structure and simple operation. It can be understood that in other embodiments of the present application, the above-mentioned limiting groove 1554 can also be formed in the battery structure 800, and the bump 810 is formed in the electronic control assembly 150; in addition, in other embodiments, the limiting groove 1554 may not be provided, but a limiting block is convexly provided on the inner peripheral wall of the electronic control assembly 150. When the electronic control assembly 150 rotates to the first circumferential position, the bump 810 is axially limited by the limiting block, which is not uniquely limited here.

[0048] In another embodiment of the present application, the electronic control component 150 and the battery structure 800 can also be detachably connected by magnetic attraction. Specifically, a plurality of first magnetic components are uniformly distributed on the electronic control component 150, and a plurality of second magnetic components are uniformly distributed on the battery structure 800. Each first magnetic component is attracted to each second magnetic component one by one, thereby fixing the electronic control component 150 and the battery structure 800 together.

[0049] In addition, in other embodiments of the present application, the electronic control component 150 and the battery structure 800 can also be detachably connected by snap connection or screw locking, and there is no unique limitation here.

[0050] In one embodiment, please refer to Figure 2 , a third conductive member 830 is installed on one side of the battery structure 800 facing the electronic control component 150, and a fourth conductive member 170 is installed on one side of the electronic control component 150 facing the battery structure 800. When the battery structure 800 and the electronic control component 150 are connected, the third conductive member 830 and the fourth conductive member 170 are elastically abutted, thereby realizing the electrical connection between the battery structure 800 and the electronic control component 150.

[0051] In one embodiment, please refer to Figure 2 and Figure 3 , the electronic evaporator includes an evaporation structure 100, and the evaporation structure 100 includes an evaporation component 140 and an electronic control component 150. The evaporation component 140 is detachably connected to the electronic control component 150, the electronic control component 150 is detachably connected to the battery structure 800, the electronic control component 150 is electrically connected to the battery structure 800, and the electronic control component 150 is electrically connected to the evaporation component 140. The battery structure 800 supplies power to the electronic control component 150, and the electronic control component 150 can control the evaporation component 140 to generate heat to heat and evaporate the medium to form an aerosol. In this embodiment, by detachably connecting the evaporation component 140 and the electronic control component 150, the evaporation component 140 can be conveniently detached from the electronic control component 150 to replace the medium, and at the same time, it is also convenient for the disassembly and assembly and maintenance of the evaporation component 140 and the electronic control component 150. In addition, by detachably connecting the electronic control component 150 and the battery structure 800, the battery structure 800 can be easily detached to match different nozzles.

[0052] In one embodiment, please refer to Figure 2 , when the evaporation component 140 is connected to the electronic control component 150, the evaporation component 140 and the electronic control component 150 form an electrical connection. Specifically, the electronic control component 150 is provided with a first conductive member 159, and the evaporation component 140 is provided with a second conductive member 146. When the evaporation component 140 is installed in the electronic control component 150, the first conductive member 159 and the second conductive member 146 are elastically abutted to form an electrical connection between the evaporation component 140 and the electronic control component 150.

[0053] In one embodiment, refer to Figure 2 , the evaporation assembly 140 further includes a bracket 142 and a heating film. There is an air flow gap between the evaporation chamber 143 and the upper cover 144. A heating film (not shown in the figure) is attached to the bottom and / or outer peripheral wall of the evaporation chamber 143. The top of the evaporation base 141 is open, the bracket 142 is installed in the evaporation base 141, and the evaporation chamber 143 is installed on the bracket 142 and received in the evaporation base 141. The second conductive member 146 penetrates through the bottom of the evaporation base 141, and the heating film is electrically connected to the second conductive member 146 through a wire.

[0054] When the battery structure 800 energizes the heating film through the electronic control assembly 150, the heating film generates heat to heat the medium in the evaporation chamber 143 to evaporate and form an aerosol. The aerosol is carried away by the gas entering from the air inlet 1441, enters the air flow chamber 147 between the evaporation base 141 and the evaporation chamber 143 through the air flow gap, and is guided to the suction nozzle through the air duct 160.

[0055] In one embodiment, refer to Figure 2 , the evaporation assembly 140 further includes an adapter 145. The adapter 145 is provided at the top opening of the evaporation base 141, and the adapter 145 is sleeved between the upper cover 144 and the evaporation chamber 143. A plurality of ventilation grooves 1451 are formed on the adapter 145. The ventilation grooves 1451 are sequentially arranged at intervals along the circumferential direction of the evaporation chamber 143. One end of the ventilation groove 1451 is connected to the evaporation chamber 143, and the other end of the ventilation groove 1451 communicates with the air flow chamber 147. Among them, the arrangement of the plurality of ventilation grooves 1451 can evenly and quickly guide the air flow in the evaporation chamber 143 into the air flow chamber 147.

[0056] In addition, a sealing gasket 148 is installed on the adapter 145. The sealing gasket 148 abuts between the adapter 145 and the evaporation base 141 to achieve a sealed connection between the evaporation base 141 and the adapter 145.

[0057] In one embodiment, refer to Figure 2, the electronic control component 150 includes a control board 151, an inner shell 152, an outer shell 153, an upper shell 154, and a docking component 155; the top of the inner shell 152 is open and the bottom is closed, and the inner shell 152 is used to accommodate the evaporation component 140. The outer shell 153 surrounds the outside of the inner shell 152, the upper shell 154 covers the top of the inner shell 152 and the outer shell 153, the docking component 155 covers the bottom opening of the outer shell 153, and the inner shell 152, the outer shell 153, the upper shell 154, and the docking component 155 jointly enclose a control cavity. The control board 151 is installed in the control cavity. The fourth conductive component 170 is disposed through the docking component 155, and the control board 151 is electrically connected to the fourth conductive component 170 and is also electrically connected to the evaporation component 140. In addition, a first surrounding rib 1553 is formed on the docking component 155, and the docking component 155 and the battery structure 800 are sleeved with each other. The air guide pipe 160 sequentially passes through the inner shell 152 and the control board 151 and communicates with the air guide cavity 510 through the docking component 155.

[0058] In one embodiment, please refer to Figure 2 , the inner shell 152 has a receiving cavity with an open top, and the evaporation component 140 is received in the receiving cavity. The evaporation component 140 is detachably connected to the inner shell 152. Specifically, the evaporation component 140 and the inner shell 152 can be detachably connected by means of a rotary buckle, snap connection, or magnetic attraction.

[0059] In one embodiment, please refer to Figure 2 , the electronic control component 150 further includes a second sealing sleeve 157. The second sealing sleeve 157 is sleeved on the outer side wall of the inner shell 152, and the second sealing sleeve 157 abuts between the upper shell 154 and the outer shell 153, thereby realizing the top sealing of the control cavity. In addition, since the second sealing sleeve 157 is sleeved on the outer side wall of the inner shell 152, the holes formed on the inner shell 152 due to the need to connect with the evaporation component 140 can be blocked and sealed.

[0060] In one embodiment, please refer to Figure 2 , the electronic control component 150 further includes a third sealing sleeve 158. The third sealing sleeve 158 is sleeved on the inner bottom side wall of the inner shell 152 and is also sleeved on the outside of the first conductive component 159, thereby preventing the gas in the air flow cavity 147 from entering the control cavity through the gap between the first conductive component 159 and the inner shell 152.

[0061] In one embodiment, please refer to Figures 4 to 6, the air duct 160 penetrates through the electronic control component 150. An air guide cavity 510 is formed between the battery structure 800 and the electronic control component 150. The air guide cavity 510 is communicated with the outlet of the air duct 160, and the air guide cavity 510 is used to communicate with the mouthpiece. Among them, by forming the air guide cavity 510 between the battery structure 800 and the electronic control component 150, the aerosol discharged from the air duct 160 can be dispersed through the air guide cavity 510, and then the aerosol can be evenly transported to the mouthpiece.

[0062] In this application, different designs can be made to the battery structure 800 to form different air guide channels with different evaporation structures 100, so as to match different mouthpieces. Specifically, the number of battery structures 800 can be one, two, three or more than three, which can be set according to different user needs.

[0063] Each battery structure 800 can be replaced with each other. Each battery structure 800 can be connected to the evaporation structure 100 and can supply power to the evaporation structure 100 so that the evaporation structure 100 evaporates the medium to form aerosol. Each battery structure 800 can be detached from the evaporation structure 100 to replace other battery structures 800, but the battery structures 800 cannot be connected to the evaporation structure 100 at the same time.

[0064] Connecting the evaporation structure 100 with different battery structures 800 can combine to form different air guide channels. The air guide channels are used to communicate with different mouthpieces to discharge the aerosol formed by the evaporation of the evaporation structure 100. The air guide channels can be independently formed by the evaporation structure 100 or jointly formed by the evaporation structure 100 and the battery structure 800.

[0065] In addition, it should be noted that the mouthpiece includes a first mouthpiece 900 that can hold liquid and a second mouthpiece that cannot hold liquid. Among them, the first mouthpiece 900 that can hold liquid means that liquid can be filled inside the first mouthpiece 900. The liquid can be normal temperature water, cooling water or other liquids with functions of cooling and filtering aerosol. When the aerosol is introduced into the first mouthpiece 900 through the air guide channel, the liquid can cool the aerosol, and the liquid can filter the impurities carried on the aerosol to maintain the suction taste of the aerosol. In addition, the second mouthpiece that cannot hold liquid means that the structure of the second mouthpiece is relatively simple, such as a simple tubular structure. The mouthpiece is only used to discharge the aerosol, and liquid cannot be filled in the mouthpiece, otherwise the liquid will enter the user's mouth.

[0066] In one embodiment, please refer to Figure 4 and Figure 7, the electronic evaporator includes two battery structures 800, namely the first battery structure 200 and the second battery structure 300 respectively. When the first battery structure 200 is connected to the evaporation structure 100, the first battery structure 200 and the evaporation structure 100 combine to form a first air guide channel 500 to match the first nozzle 900; when the second battery structure 300 is connected to the evaporation structure 100, the second battery structure 300 and the evaporation structure 100 combine to form a second air guide channel 600 to match the second nozzle. It can be understood that in other embodiments of the present application, a third battery structure 800 and a fourth battery structure 800 may also be included to match the third nozzle and the fourth nozzle, where the third nozzle and the fourth nozzle may be nozzles that can hold liquid or nozzles that cannot hold liquid.

[0067] In one embodiment, please refer to Figure 2 and Figure 6 , the first air guide channel 500 includes a first air duct 610 and an air guide cavity 510. The first air duct 610 is formed in the air guide pipe 160, that is, the aerosol in the air flow cavity 147 is introduced into the first nozzle 900 through the first air duct 610 and the air guide cavity 510.

[0068] In one embodiment, please refer to Figure 5 , a plurality of air outlets 1557 communicating with the air guide cavity 510 are distributed on the circumferential side wall of the first battery structure 200 or the electronic control component 150, and each air outlet 1557 is used to communicate with the first nozzle 900.

[0069] In this embodiment, through the settings of the air guide cavity 510 and each air outlet 1557, the aerosol generated by the evaporation structure 100 can be guided circumferentially to the first nozzle 900, so that the aerosol can be evenly distributed circumferentially in the first nozzle 900 when passing through, thereby improving the cooling efficiency and filtering efficiency of the liquid in the first nozzle 900 for the aerosol. In addition, by forming the air guide cavity 510 at the connection between the first battery structure 200 and the electronic control component 150, it is convenient to cancel or close the air guide cavity 510 through the design of the second battery structure 300 when connecting the electronic control component 150 to the second battery structure 300, so as to avoid aerosol leakage from the air guide cavity 510 and the air outlets 1557 when connecting the second nozzle. It can be understood that in other embodiments of the present application, the above air guide cavity 510 may also be formed in the first battery structure 200 or the electronic control component 150, and the number of the above air outlets 1557 may be one or more. In addition, the first air guide channel 500 may also be extended from the evaporation base 141 to the side of the electronic control component 150 to communicate with the first nozzle 900, and this is not limited uniquely here.

[0070] In one embodiment, please refer toFigure 2 The docking member 155 includes a substrate 1551, a second surrounding bone 1552 formed on one side of the substrate 1551, and a first surrounding bone 1553 formed on the other side of the substrate. The second surrounding bone 1552 is inserted into the bottom end of the housing 153 to be sleeved with the housing 153. The first surrounding bone 1553 is used to sleeve the outside of one end of the battery structure 800 to form a connection with the battery structure 800. The end faces of the substrate 1551, the first surrounding bone 1553, and the battery structure 800 jointly enclose the above-mentioned air guide cavity 510. A first through hole is formed on the substrate 1551. One end of the air guide pipe 160 facing away from the evaporation base 141 is inserted into the first through hole, and the communication between the air guide pipe 160 and the air guide cavity 510 is formed.

[0071] In one embodiment, the first battery structure 200 and the evaporation structure 100 are connected longitudinally. The first battery structure 200 and the evaporation structure 100 jointly form a socket part for the first nozzle 900 to be sleeved. The first battery structure 200 and the evaporation structure 100 are respectively formed with steps located on opposite sides of the socket part and used for longitudinally limiting the first nozzle 900.

[0072] It should be noted that the longitudinal direction here refers to the height direction when the battery structure 800 and the evaporation structure 100 are placed vertically, that is, the axial direction of the evaporation structure 100 and the battery structure 800.

[0073] In this embodiment, the setting of the socket part enables the first nozzle 900 to be sleeved on the first battery structure 200 and the evaporation structure 100. The setting of the two steps can support and limit the first nozzle 900 longitudinally, that is, it can support the first nozzle 900 with a certain weight, thereby ensuring the firm assembly and stability of the first nozzle 900 on the first battery structure 200 and the evaporation structure 100.

[0074] In a specific embodiment, please refer to Figure 6 The first battery structure 200 includes a first socket part 210 and a support part 220 that are connected to each other. The evaporation structure 100 includes a second socket part 110 and a limiting part 120 that are connected to each other. The first socket part 210 and the second socket part 110 are detachably connected longitudinally to jointly form the socket part. The support part 220 is located on the side of the first socket part 210 away from the second socket part 110. The support part 220 extends radially outward relative to the first socket part 210. A first step 230 is formed at the connection of the first socket part 210 and the support part 220. The limiting part 120 is located on the side of the second socket part 110 away from the first socket part 210. The limiting part 120 extends radially outward relative to the second socket part 110. A second step 130 is formed at the connection of the second socket part 110 and the support part 220.

[0075] During assembly, the first suction nozzle 900 is sleeved outside the first socket part 210 and the second socket part 110. The first suction nozzle 900 is supported on the support part 220, and the limiting part 120 is supported on the first suction nozzle 900. That is, the first step 230 and the second step 130 respectively abut against the opposite sides of the first suction nozzle 900 in the longitudinal direction, so as to realize the support and limitation of the first suction nozzle 900.

[0076] In one embodiment, please refer to Figure 6 , the electronic evaporator further includes a first sealing ring 700 and a second sealing ring 1561. The first sealing ring 700 abuts between the first suction nozzle 900 and the first socket part 210, and the second sealing ring 1561 abuts between the first suction nozzle 900 and the second socket part 110. In the longitudinal direction, the first sealing ring 700 and the second sealing ring 1561 are respectively located on the opposite sides of each air outlet 1557, so as to prevent the aerosol from leaking out through the gap between the first suction nozzle 900 and the first socket part 210, and also prevent the aerosol from leaking out through the gap between the first suction nozzle 900 and the second socket part 110, ensuring the connection sealing performance between the first suction nozzle 900 and the air guide cavity 510.

[0077] In one embodiment, please refer to Figure 2 and Figure 6 , the electronic control component 150 further includes a first sealing sleeve 156. The first sealing sleeve 156 is sleeved outside the housing 153. The first sealing sleeve 156 elastically abuts between the first suction nozzle 900 and the housing 153. The second sealing ring 1561 is formed by a protrusion on the surface of the first sealing sleeve 156. That is, the second sealing ring 1561 is a part of the first sealing sleeve 156. Through the first sealing sleeve 156, the socket sealing performance between the first suction nozzle 900 and the evaporation structure 100 can be formed.

[0078] In one embodiment, please refer to Figure 6 , the first battery structure 200 includes a support part 220 and a first socket part 210. The first socket part 210 has a first inner cavity, and the support part 220 has a second inner cavity. A first battery 240 and a battery board 250 are arranged in the second inner cavity. The first battery 240 is electrically connected to the battery board 250, and the battery board 250 is electrically connected to a third conductive post on the first socket part 210 through a wire.

[0079] Specifically, the battery panel 250 is disposed at a position in the second inner cavity close to the first inner cavity. The first battery 240 is disposed on the side of the battery panel 250 facing away from the first inner cavity. LED lights are distributed around the periphery of the side of the battery panel 250 facing the first inner cavity. Each LED light is correspondingly arranged with the first suction nozzle 900. The support portion 220 is transparently arranged at the position corresponding to each LED light and protrudes outward relative to each LED light. When each LED light emits light, the light irradiates into the liquid of the first suction nozzle 900 through the transparent position of the support portion 220, presenting a dazzling light scene and improving the user experience.

[0080] In one embodiment, please refer to Figure 6 , a button 260 is provided on the side wall of the support portion 220, and a key is provided on the battery panel 250. By pressing the button 260, the key is driven, thereby starting the evaporation structure 100, and at the same time, each LED light also emits light.

[0081] In one embodiment, please refer to Figure 6 , the first battery structure 200 includes a transparent member 270, a light-shielding member 280, and a bottom cover 290. The transparent member 270 includes a light-transmitting plate 271 and a first cylinder 272 and a second cylinder 273 respectively formed on opposite sides of the light-transmitting plate 271. The top of the first cylinder 272 is provided with a cover. The first cylinder 272 is the above-mentioned second socket portion 110. The second cylinder 273 covers the outside of the battery panel 250 and each first battery 240. The bottom cover 290 is disposed on the side of the second cylinder 273 facing away from the first cylinder 272 and is connected to the second cylinder 273. The light-shielding member 280 is disposed around the outside of the second cylinder 273 to increase the second cylinder 273, the first battery 240, the battery panel 250, and the bottom cover 290. The light-transmitting plate 271 protrudes outward relative to each LED light. The first suction nozzle 900 is sleeved outside the first cylinder 272. The first suction nozzle 900 is supported on the light-shielding member 280, and the first suction nozzle 900 is spaced from the light-shielding member 280.

[0082] In one embodiment, please refer to Figures 7 to 9 , a connecting pipe 340 is provided in the second battery structure 300. The inlet of the connecting pipe 340 is communicated with the air guide cavity 510, and the outlet of the connecting pipe 340 is used to connect to the second suction nozzle.

[0083] Specifically, the second air guide channel 600 includes a first air channel 610 formed in the air guide pipe 160 and a second air channel 620 formed in the connecting pipe 340. Among them, the first air channel 610 is communicated with the evaporation chamber 143, and the second air channel 620 is used to be communicated with the second suction nozzle.

[0084] In this embodiment, by arranging the second air guiding channel 600 to penetrate through the second battery structure 300, it is not necessary to provide two different air guiding channels on the evaporation structure 100, thereby simplifying the evaporation structure 100. In addition, a first suction nozzle 900 can be sleeved outside the second battery structure 300 and the evaporation structure 100, and there is no structural interference between the first suction nozzle 900 and the second suction nozzle. When the user uses the first suction nozzle 900, it is not necessary to disassemble the second suction nozzle. When using the second suction nozzle outdoors, only the first suction nozzle 900 needs to be disassembled, which is convenient to operate.

[0085] In a specific embodiment, please refer to Figure 9 , a seal 310 is installed on the second battery structure 300. The seal 310 is used to form a seal between the air guiding pipe 160 and the connecting pipe 340 in the air guiding cavity 510. In this application, since the electronic control component 150 and the second battery structure 300 are detachably connected, and an air guiding cavity 510 is formed between the first air duct 610 and the second air duct 620, the arrangement of the seal 310 can ensure the connection tightness between the first air duct 610 and the second air duct 620, that is, ensure the airtightness of the airflow of the second air guiding channel 600. In addition, it can also prevent the aerosol in the first air duct 610 from being led out through the air outlet 1557 of the air guiding cavity 510. Specifically, when the first battery structure 200 is connected to the electronic control component 150, there is no seal 310 and the second air duct 620 on the first battery structure 200, and the first air duct 610 communicates with the air guiding cavity 510. When the second battery structure 300 is connected to the electronic control component 150, since the seal 310 disconnects the seal between the first air duct 610 and the air guiding cavity 510, the first air duct 610 can only communicate with the second air duct 620.

[0086] In an embodiment, please refer to Figure 9 , the seal 310 includes a plugging portion 311 and an abutting portion 312. The plugging portion 311 is in a cylindrical shape and is plugged into the first air duct 610. The abutting portion 312 is trapezoidally connected to the plugging portion 311. The abutting portion 312 is used to axially abut between one end face of the electronic control component 150 facing the second battery structure 300 and the first end face of the second battery structure 300 facing the electronic control component 150, that is, abut between the outer end face of the first air duct 610 and the outer end face of the second air duct 620, that is, abut between the two inner walls along the longitudinal direction of the air guiding cavity 510, so as to realize the sealed connection between the first air duct 610 and the second air duct 620.

[0087] In an embodiment, please refer to Figures 7 to 9, the electronic evaporator further includes a connector 400. The connector 400 is installed on the electronic control component 150 or the second battery structure 300. The connector 400 is in communication with the air duct 160, and the connector 400 is used for assembling the second mouthpiece. Among them, by installing the connector 400 on the electronic control component 150 or the second battery structure 300, users can install various styles of second mouthpieces on the connector 400 according to their preferences.

[0088] Specifically, the second mouthpiece is generally a bent tubular structure. As long as one end of the second mouthpiece can be press-fitted over the connector 400, the structural shape and style of the second mouthpiece can be set arbitrarily to meet the different needs of users.

[0089] Specifically, the connector 400 is installed on the evaporation structure 100 or the second battery structure 300 by press-fit insertion. The connector 400 is a tubular structure with a gradually changing outer diameter.

[0090] In one embodiment, please refer to Figure 9 , the connector 400 is installed at one end of the second battery structure 300 facing away from the electronic control component 150, and the second air guide channel 600 runs through the second battery structure 300. Among them, the second air guide channel 600 runs through the second battery structure 300, that is, by designing the second battery structure 300 so that the aerosol can be guided to the connector 400 via the second battery structure 300. In this embodiment, by installing the connector 400 at one end of the second battery structure 300 facing away from the electronic control component 150, there is no need to set an installation hole on the electronic control component 150 that can install the connector 400, and there is no need to set two different air guide channels on the electronic control component 150, thus simplifying the electronic control component 150.

[0091] In one embodiment, please refer to Figure 9 , the second battery structure 300 includes a second battery compartment 320, a second battery 330 and a connecting pipe 340. The second battery compartment 320 has a top connection hole and a bottom connection hole. The connecting pipe 340 is arranged in the second battery compartment 320. The top end of the connecting pipe 340 is installed in the top mounting hole, and the bottom end of the connecting pipe 340 is installed in the bottom mounting hole. The second air passage 620 is formed in the connecting pipe 340. The second battery 330 is arranged in the second battery compartment 320 and surrounds the connecting pipe 340. One end of the connector 400 is press-fitted into the bottom mounting hole and is in butt communication with the connecting pipe 340.

[0092] In this embodiment, the evaporation module can be switched on the evaporation component 140 or the second battery structure 300, and the evaporation module is started by the switch.

[0093] On the other hand, the present application also provides an evaporation device, which includes a nozzle and an electronic evaporator, and the nozzle is communicated with the outlet of the air duct 160.

[0094] Specifically, the nozzle can be a first nozzle 900 capable of accommodating liquid, or the nozzle can also be a second nozzle that cannot accommodate liquid. When the evaporation device includes the first battery structure 200, the second battery structure 300, the first nozzle 900 and the second nozzle at the same time, the evaporation structure 100, the first battery structure 200 and the first nozzle 900 are combined to form a first evaporation module, and the evaporation structure 100, the second battery structure 300 and the second nozzle are combined to form a second evaporation module.

[0095] In one embodiment, please refer to Figure 6 , the first nozzle 900 is sleeved outside the electronic control component 150 and the first battery structure 200. The first nozzle 900 includes a filtering part 910 and a suction part 920. The filtering part 910 is sleeved outside the first battery structure 200 and the first battery structure 200. The suction part 920 extends outward from the side wall of the filtering part 910. The filtering part 910 is used to accommodate liquid to filter and cool the aerosol, and the suction part 920 is used to direct the aerosol to the user's mouth.

[0096] In one embodiment, the filtering part 910 is a three-layer structure. The filtering part 910 includes an inner layer 911, a middle layer 912 and an outer layer 913. The inner layer 911, the middle layer 912 and the outer layer 913 are sequentially arranged at intervals from the inside to the outside. A first filtering cavity 930 is formed by enclosing the inner layer 911 and the middle layer 912, and a second filtering cavity 940 is formed by enclosing the middle layer 912 and the outer layer 913. First connection ports 9111 are respectively formed at positions of the inner layer 911 corresponding to the air outlets 1557, and the first connection ports 9111 are located at positions of the inner layer 911 close to the top; an air guiding port 9121 is formed at the bottom of the middle layer 912, and the air guiding ports 9121 are sequentially arranged at intervals along the circumferential direction of the middle layer 912. A second connection port 9131 is formed at a position of the outer layer 913 close to the top. The aerosol in the evaporation structure 100 enters the first filtering cavity 930 through the first connection ports 9111, then enters the second filtering cavity 940 through the air guiding ports 9121, and finally is directed to the suction part 920 through the second connection ports 9131.

[0097] Among them, by setting the first connection ports 9111 and the second connection ports 9131 at positions close to the top and setting the air guiding ports 9121 at the bottom position, the aerosol can flow from the top to the bottom of the first filtering cavity 930, and then flow from the bottom to the top of the second filtering cavity 940, thus ensuring the filtering and cooling effect of the liquid on the aerosol and avoiding the aerosol flowing directly from the first connection ports 9111 to the second connection ports 9131 without achieving the filtering and cooling effect.

[0098] In one embodiment, the inner layer 911, the middle layer 912, and the outer layer 913 are all made of glass. During processing, after arranging the inner layer 911, the middle layer 912, and the outer layer 913 in sequence, the tops and bottoms of the inner layer 911, the middle layer 912, and the outer layer 913 are sintered respectively, so that the entire first nozzle 900 has a complete structure and only the first pair of interfaces 9111 and the suction port on the surface.

[0099] In one embodiment, the second nozzle can be connected to the outside of the electronic control component 150 or the second battery structure 300 through a connector.

[0100] The above are only the preferred embodiments of the present application and are not intended to limit the present application. Any modifications, equivalent replacements, and improvements made within the spirit and principles of the present application shall be included within the protection scope of the present application.

Claims

1. An electronic evaporator, characterized in that, It includes an evaporation component, an electronic control component, and a battery structure; the electronic control component is connected between the evaporation component and the battery structure, the electronic control component is detachably connected to and electrically connected to the battery structure, and the electronic control component is used to supply power to the evaporation component; the evaporation component includes an evaporation base, an evaporation chamber, and an upper cover, the evaporation chamber is used to store the medium, the upper cover covers the top opening of the evaporation chamber, and the upper cover has an air inlet communicating with the evaporation chamber; the evaporation chamber is installed in the evaporation base, and an air flow chamber is formed between the outer side wall of the evaporation chamber and the inner side wall of the evaporation base, and the air flow chamber communicates with the evaporation chamber; a gas guide pipe is connected to the bottom of the evaporation base, the inlet of the gas guide pipe communicates with the air flow chamber, and the outlet of the gas guide pipe is used to communicate with a mouthpiece.

2. The electronic evaporator according to claim 1, wherein, The gas guide pipe penetrates through the electronic control component, and a gas guide chamber is formed by enclosing between the battery structure and the electronic control component, and the gas guide chamber communicates with the outlet of the gas guide pipe, and the gas guide chamber is used to communicate with the mouthpiece.

3. The electronic evaporator according to claim 2, wherein, A plurality of air outlet ports communicating with the gas guide chamber are distributed on the circumferential side wall of the battery structure or the electronic control component, and each of the air outlet ports is used to communicate with the mouthpiece.

4. The electronic evaporator according to claim 2, wherein, A connecting pipe is provided in the battery structure, the inlet of the connecting pipe communicates with the gas guide chamber, and the outlet of the connecting pipe is used to connect to the mouthpiece.

5. The electronic evaporator according to claim 4, wherein, A sealing member is installed on the battery structure, and the sealing member is used to form a seal between the gas guide pipe and the connecting pipe in the gas guide chamber.

6. The electronic evaporator according to any one of claims 1 to 5, characterized in that, The electronic evaporator further includes a connector, the connector is installed on the electronic control component or the battery structure, the connector communicates with the gas guide pipe, and the connector is used to assemble the mouthpiece.

7. The electronic evaporator according to any one of claims 1 to 5, characterized in that The electronic control component is rotatably connected to the battery structure, and the electronic control component rotates relative to the battery structure and has a first circumferential position and a second circumferential position; when the electronic control component is in the first circumferential position, it forms an axial limit with the battery structure; When the electronic control component is in the second circumferential position, it can be axially separated from the battery structure.

8. The electronic evaporator according to claim 7, characterized in that The battery structure and the electronic control component are sleeved with each other, one of the battery structure and the electronic control component is provided with a convex block, and the other of the battery structure and the electronic control component forms a limiting groove, the limiting groove includes a first groove portion and a second groove portion, the first groove portion extends along the axial direction of the electronic control component, and the second groove portion extends along the circumferential direction of the electronic control component, and the first groove portion is used to guide the convex block to be stuck into the second groove portion.

9. An evaporation device, characterized in that, It includes a mouthpiece and the electronic evaporator according to any one of claims 1 to 8, and the mouthpiece communicates with the outlet of the gas guide pipe.

10. The evaporation device according to claim 9, characterized in that, The mouthpiece is sleeved outside the electronic control component and the battery structure, and the inside of the mouthpiece can hold liquid easily; Alternatively, the mouthpiece is connected to the outside of the electronic control component or the battery structure through a connector.

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