Atomization device

Abstract

The utility model discloses an atomization device, and belongs to the technical field of atomization, the atomization device comprises a storage module, an atomization module and a power supply module, and the three modules are mutually independent and can be spliced and combined into a whole; the storage module is in liquid path connection with the atomization module, the atomization module is electrically connected with the power supply module, and the atomization module is used for carrying out atomization treatment on the aerosol matrix to generate aerosol; the storage module, the atomization module and the power supply module are arranged in a first direction in any sequence, a first one and a second one of the storage module, the atomization module and the power supply module are respectively arranged on two opposite sides of a third one, and a first connecting module is arranged between the first one and the third one, so that the first one and the third one are detachably and fixedly connected; and a second connecting module is arranged between the second part and the third part, so that the second part and the third part are detachably and fixedly connected. The storage module, the atomization module and the power supply module are independent of one another and can be spliced and combined into a whole, so that the personalized requirements of users are met.

Description

Technical Field

[0001] The present application relates to the technical field of atomization, and more particularly, to an atomization device. Background Art

[0002] Existing atomization devices include a liquid storage component, an atomization component, and a power supply component. The liquid storage component, the atomization component, and the power supply component are housed in the same housing. When one of the components needs to be replaced, the entire atomization device needs to be disassembled. The disassembly process of the entire atomization device is complex, resulting in difficulty in replacing components. When a user needs to adjust the aerosol generated by the atomization device, they cannot replace the corresponding components by themselves to achieve the adjustment of the aerosol, making it difficult to meet the personalized needs of users. Summary of the Utility Model

[0003] The main purpose of the present application is to provide an atomization device to solve the problem that the existing atomization device is difficult to meet the personalized needs of users for aerosols.

[0004] An atomization device includes a storage module, an atomization module, and a power supply module. The storage module, the atomization module, and the power supply module are independent of each other and can be spliced and combined into one body. There is a liquid path connection between the storage module and the atomization module to enable the aerosol matrix contained in the storage module to be transported into the atomization module. There is an electrical connection between the atomization module and the power supply module to enable the power supply module to provide electrical energy to the atomization module. The atomization module is used to atomize the aerosol matrix to generate aerosol. The storage module, the atomization module, and the power supply module are arranged in a first direction in any order. The first and the second of the three are respectively disposed on opposite sides of the third. A first connection module is provided between the first and the third, and the first connection module is used to connect the first and the third to enable detachable and fixed connection between the first and the third. A second connection module is provided between the second and the third, and the second connection module is used to connect the second and the third to enable detachable and fixed connection between the second and the third.

[0005] In some other embodiments, the storage module and the power module are respectively disposed on opposite sides of the atomization module. The first connection module includes a first connector and a second connector. The first connector is disposed on a side wall of the storage module close to the atomization module, and the second connector is disposed on a side wall of the atomization module close to the storage module. The second connector cooperates with the first connector to detachably and fixedly connect the atomization module to the storage module. The second connection module includes a third connector and a fourth connector. The third connector is disposed on a side wall of the atomization module close to the power module, and the fourth connector is disposed on a side wall of the power module close to the atomization module. The fourth connector cooperates with the third connector to detachably and fixedly connect the power module to the atomization module.

[0006] In some other embodiments, one of the first connector and the second connector includes a plug portion, and the other of the first connector and the second connector includes a plug slot. The plug portion and the plug slot are slidably inserted into each other to detachably and fixedly connect the atomization module to the storage module. Alternatively, one of the first connector and the second connector includes a first plug portion and a first plug slot, and the other of the first connector and the second connector includes a second plug portion and a second plug slot. The first plug portion and the second plug slot are slidably inserted into each other, and the second plug portion and the first plug slot are slidably inserted into each other to detachably and fixedly connect the atomization module to the storage module.

[0007] In some other embodiments, the third connector includes a first magnetic member, and the fourth connector includes a second magnetic member. The first magnetic member and the second magnetic member attract each other to detachably and fixedly connect the atomization module to the power module.

[0008] In some other embodiments, a first installation groove is provided on a side wall of the atomization module close to the power module, and the first magnetic member is fixedly installed in the first installation groove. A third installation groove is provided on a side wall of the power module close to the atomization module, and the second magnetic member is fixedly installed in the third installation groove so that the contact surface between the power module and the atomization module is a plane.

[0009] In some other embodiments, the storage module and the atomization module are respectively disposed on opposite sides of the power module. The first connection module includes a first connector and a second connector. The first connector is disposed on a side wall of the storage module close to the power module, and the second connector is disposed on a side wall of the power module close to the storage module. The second connector cooperates with the first connector to detachably and fixedly connect the power module and the storage module. The second connection module includes a third connector and a fourth connector. The third connector is disposed on a side wall of the power module close to the atomization module, and the fourth connector is disposed on a side wall of the atomization module close to the power module. The fourth connector cooperates with the third connector to detachably and fixedly connect the power module and the atomization module.

[0010] In some other embodiments, the atomization module and the power module are respectively disposed on opposite sides of the storage module. The first connection module includes a first connector and a second connector. The first connector is disposed on a side wall of the atomization module close to the storage module, and the second connector is disposed on a side wall of the storage module close to the atomization module. The second connector cooperates with the first connector to detachably and fixedly connect the atomization module and the storage module. The second connection module includes a third connector and a fourth connector. The third connector is disposed on a side wall of the storage module close to the power module, and the fourth connector is disposed on a side wall of the power module close to the storage module. The fourth connector cooperates with the third connector to detachably and fixedly connect the storage module and the power module.

[0011] In some other embodiments, the atomization module includes an atomization assembly, a power receiving connector, and a second housing. The atomization assembly is received in the second housing. The power receiving connector passes through a side wall of the second housing close to the power module, and a part of the power receiving connector protrudes out of the second housing. The power receiving connector is electrically connected to the atomization assembly. The power module includes a battery, a power supply connector, and a third housing. The battery is received in the third housing. The power supply connector passes through a side wall of the third housing close to the atomization module, and a part of the power supply connector protrudes out of the third housing. The protruding part of the power supply connector abuts against the protruding part of the power receiving connector to electrically connect the power supply connector and the power receiving connector. The battery is electrically connected to the power supply connector so that the battery is electrically connected to the atomization assembly through the power supply connector and the power receiving connector.

[0012] In some other embodiments, the power supply connector extends towards the power receiving connector and / or the power receiving connector extends towards the power supply connector so that the power supply connector abuts against the power receiving connector; when the atomization module and the power supply module are respectively located on opposite sides of the storage module, the storage module is provided with a power-on channel penetrating through the storage module, and the power-on channel is arranged along the direction from the atomization module towards the power supply module, and the extending part of the power supply connector and / or the power receiving connector is located in the power-on channel.

[0013] In some other embodiments, the storage module includes a first housing, a first receiving cavity is formed inside the first housing, and the first receiving cavity is used for receiving the aerosol matrix. A first liquid passing hole is provided on the side wall of the first housing close to the atomization module; the atomization module includes an atomization assembly and a second housing, a second receiving cavity is formed inside the second housing, the atomization assembly is received in the second receiving cavity, a second liquid passing hole is provided on the side wall of the second housing close to the storage module, and the second liquid passing hole is communicated with the first liquid passing hole. The aerosol matrix received in the first receiving cavity moves to the atomization assembly through the first liquid passing hole and the second liquid passing hole, so that the aerosol matrix contacts the atomization assembly, and the atomization assembly works to generate aerosol.

[0014] In some other embodiments, a liquid passing channel is provided between the first liquid passing hole and the second liquid passing hole, and the liquid passing channel is for the aerosol matrix to pass through, so that the aerosol matrix received in the first receiving cavity moves to the atomization assembly through the first liquid passing hole, the liquid passing channel and the second liquid passing hole.

[0015] In some other embodiments, when the storage module and the atomization module are respectively located on opposite sides of the power supply module, the liquid passing channel penetrates through the power supply module, and the liquid passing channel is arranged along the direction from the atomization module towards the storage module.

[0016] In some other embodiments, the side wall of the first housing close to the atomization module fits with the side wall of the second housing close to the storage module so that the first liquid passing hole is communicated with the second liquid passing hole. A third sealing member is provided between the side wall of the first housing close to the atomization module and the side wall of the second housing close to the storage module, and the third sealing member surrounds the connection part of the second liquid passing hole and the first liquid passing hole to prevent the aerosol matrix from leaking at the connection part of the second liquid passing hole and the first liquid passing hole.

[0017] In some other embodiments, a third groove is provided on a side wall of the first housing close to the atomization module and / or a side wall of the second housing close to the storage module, and the third seal is disposed in the third groove.

[0018] In some other embodiments, a second installation groove is provided on a side wall of the second housing close to the storage module, the opening of the second installation groove faces the storage module, the atomization module further includes a first rotating member, the first rotating member is installed in the second installation groove to cover the side of the second liquid passing hole facing away from the second receiving cavity, and the first rotating member is provided with a third liquid passing hole deviating from the central axis of the first rotating member; when the atomization module is in a working state, the third liquid passing hole is communicated with the second liquid passing hole, and the third liquid passing hole is communicated with the first liquid passing hole, so that the aerosol matrix in the first receiving cavity is output to the second receiving cavity through the first liquid passing hole, the third liquid passing hole, and the second liquid passing hole; when the atomization module is switched from the working state to the non-working state, the first rotating member rotates around its central axis, and the relative position of the third liquid passing hole and the second liquid passing hole changes, so that the first rotating member closes the second liquid passing hole.

[0019] In some other embodiments, an installation hole is provided on a side of the second installation groove close to the second receiving cavity, the installation hole communicates with the second receiving cavity, the first rotating member is provided with a buckle extending towards the second receiving cavity, and the buckle passes through the installation hole to abut against the inner side of the side wall of the second housing close to the storage module.

[0020] In some other embodiments, a first through hole is provided on a side wall of the first housing away from the first liquid passing hole, the storage module includes a push rod, the push rod passes through the first through hole to insert into the first receiving cavity, and the push rod can move along the direction of the first liquid passing hole pointing to the first through hole; when the storage module is in an unactivated state, one end of the push rod away from the first through hole inserts into the first liquid passing hole to block the first liquid passing hole; when the storage module is switched from the unactivated state to the activated state, the push rod moves along the direction of the first liquid passing hole pointing to the first through hole, so that the first liquid passing hole is communicated with the first receiving cavity.

[0021] In some other embodiments, a guiding portion is provided on the side wall of the first housing provided with the first through hole, the guiding portion extends towards the first receiving cavity along the outer edge of the first through hole, and the guiding portion abuts against the outer peripheral surface of the push rod to fix the moving direction of the push rod.

[0022] In some other embodiments, the second housing is provided with a suction nozzle, an air inlet hole, and an atomization channel. The atomization channel communicates with the suction nozzle and the air inlet hole. The atomization assembly is disposed in the atomization channel so that the aerosol generated by the atomization assembly is mixed with the air entering the atomization channel through the air inlet hole. The mixed gas is inhaled into the user's mouth through the suction nozzle as the user of the atomization device sucks.

[0023] In some other aspects, the present application further provides an atomization device, including a storage module, an atomization module, and a power module. The storage module, the atomization module, and the power module are independent of each other and can be spliced and combined into one body. There is a liquid path connection between the storage module and the atomization module so that the aerosol matrix accommodated in the storage module is transported into the atomization module. There is an electrical connection between the atomization module and the power module so that the power module provides electrical energy for the atomization module. The atomization module is used for atomizing the aerosol matrix to generate an aerosol. The housing of the first of the storage module, the atomization module, and the power module includes a first main body and a second main body. One end of the first main body is connected to one end of the second main body and forms an included angle so that the housing and the first one are in an L shape. The second and the third of the storage module, the atomization module, and the power module are located on the second main body. The first main body and the second one are respectively disposed on opposite sides of the third one. A first connection module is provided between the first one and the third one, and the first connection module is used for connecting the first one and the third one so that the first one and the third one are detachably and fixedly connected. A second connection module is provided between the second one and the third one, and the second connection module is used for connecting the second one and the third one so that the second one and the third one are detachably and fixedly connected.

[0024] In some other embodiments, the first one is the storage module, the second one is the atomization module, and the third one is the power module. The housing of the storage module includes a first main body and a second main body. One end of the first main body is connected to one end of the second main body and forms an included angle so that the housing and the storage module are in an L shape. The atomization module and the power module are located on the second main body. The first main body and the atomization module are respectively disposed on opposite sides of the power module.

[0025] In some other embodiments, the first entity is the power module, the second entity is the atomization module, and the third entity is the storage module. The housing of the power module includes a first main body and a second main body. One end of the first main body is connected to one end of the second main body and forms an included angle so that the housing and the power module are in an L shape. The atomization module and the storage module are located on the second main body; the first main body and the atomization module are respectively disposed on opposite sides of the storage module.

[0026] In some other aspects, the present application further provides an atomization device, including a storage module, an atomization module, and a power module. The storage module, the atomization module, and the power module are independent of each other and can be spliced and combined into one body; there is a liquid path connection between the storage module and the atomization module so that the aerosol matrix contained in the storage module is transported into the atomization module. The atomization module is electrically connected to the power module so that the power module provides electrical energy for the atomization module. The atomization module is used for atomizing the aerosol matrix to generate aerosol; the housing of the first entity among the storage module, the atomization module, and the power module includes a first main body and a second main body. One end of the first main body is connected to one side of the second main body and forms an included angle so that the housing and the first entity are in an inverted T shape. The second entity and the third entity among the storage module, the atomization module, and the power module are located on the second main body; the second entity and the third entity are respectively disposed on opposite sides of the first main body. A first connection module is provided between the first entity and the third entity, and the first connection module is used to connect the first entity and the third entity so that the first entity and the third entity are detachably and fixedly connected; a second connection module is provided between the second entity and the first entity, and the second connection module is used to connect the second entity and the first entity so that the second entity and the first entity are detachably and fixedly connected.

[0027] In some other embodiments, the first entity is the storage module, the second entity is the power module, and the third entity is the atomization module. The housing of the storage module includes a first main body and a second main body. The power module and the atomization module are respectively disposed on opposite sides of the storage module. One end of the first main body is connected to one side of the second main body and forms an included angle so that the housing and the storage module are in an inverted T shape. The atomization module and the power module are located on the second main body.

[0028] In some other embodiments, the first is the power module, the second is the storage module, and the third is the atomization module. The housing of the power module includes a first body and a second body. The storage module and the atomization module are respectively disposed on opposite sides of the power module. One end of the first body is connected to one side of the second body and forms an angle so that the housing and the power module are in an inverted T shape, and the atomization module and the storage module are located above the second body.

[0029] In the present utility model, the storage module, the atomization module and the power module are independent of each other and can be spliced and combined into one body. A liquid path connection is provided between the storage module and the atomization module, and an electrical connection is provided between the atomization module and the power module, achieving the effect of disassembling and replacing any one of the three modules of the storage module, the atomization module and the power module, so that the user can replace the storage module, the atomization module and the power module according to personal preferences to meet the personalized needs of the user. The user can quickly replace different flavors of e-liquid by quickly replacing the storage module, and can also change the amount of smoke and the suction taste by replacing the atomization module, and achieve the effects of quick battery replacement and changing the control method by replacing the power module. BRIEF DESCRIPTION OF THE DRAWINGS

[0030] The drawings described herein are used to provide a further understanding of the present application and form a part of the present application. The illustrative embodiments of the present application and their descriptions are used to explain the present application and do not constitute an improper limitation of the present application. In the drawings:

[0031] Figure 1 is a perspective view of the atomization device disclosed in the present application.

[0032] Figure 2 is an exploded view of the atomization device disclosed in the present application.

[0033] Figure 3 is Figure 1 a cross-sectional view taken along the A-A' direction in

[0034] Figure 4 is Figure 3 an enlarged view at D in

[0035] Figure 5 is Figure 1 a cross-sectional view taken along the B-B' direction in

[0036] Figure 6 is Figure 1 a cross-sectional view taken along the C-C' direction in

[0037] Figure 7 is an exploded view of the storage module disclosed in the present application.

[0038] Figure 8Isometric view of another perspective of the storage module disclosed in the present application.

[0039] Figure 9 Isometric view of the atomization module disclosed in the present application.

[0040] Figure 10 Is along the Figure 1 Cross-sectional view of the atomization module in the present application in the A-A direction.

[0041] Figure 11 Isometric view of another perspective of the atomization module disclosed in the present application.

[0042] Figure 12 Isometric view of the power module disclosed in the present application.

[0043] Figure 13 Is the cross-sectional view of the atomization device in the A-A' direction in the second embodiment.

[0044] Figure 14 Is the cross-sectional view of the atomization device in the A-A' direction in the third embodiment.

[0045] Figure 15 Is the cross-sectional view of the atomization device in the A-A' direction in the fourth embodiment.

[0046] Figure 16 Is the cross-sectional view of the atomization device in the A-A' direction in the fifth embodiment.

[0047] Figure 17 Is the cross-sectional view of the atomization device in the A-A' direction in the sixth embodiment.

[0048] Figure 18 Is the cross-sectional view of the atomization device in the A-A' direction in the seventh embodiment. Detailed implementation manners

[0049] It should be noted that, without conflict, the embodiments in the present application and the features in the embodiments may be combined with each other. The present application will be described in detail below with reference to the drawings and in combination with the embodiments.

[0050] It should be noted that the terms used herein are only for describing the specific implementation manners and are not intended to limit the exemplary embodiments according to the present application. As used herein, unless the context clearly indicates otherwise, the singular form is also intended to include the plural form. In addition, it should be understood that when the terms "comprise" and / or "include" are used in this specification, they indicate the presence of features, steps, operations, devices, components and / or their combinations.

[0051] Unless otherwise specifically stated, the relative arrangements, numerical expressions, and numerical values of the components and steps set forth in these embodiments do not limit the scope of the present application. At the same time, it should be understood that for the sake of convenience of description, the dimensions of the various parts shown in the drawings are not drawn in actual proportional relationships. Technologies, methods, and devices known to those of ordinary skill in the relevant art may not be discussed in detail, but where appropriate, the technologies, methods, and devices should be regarded as part of the authorization specification. In all the examples shown and discussed here, any specific value should be interpreted as merely exemplary and not as a limitation. Therefore, other examples of the exemplary embodiments may have different values. It should be noted that like reference numerals and letters denote like items in the following drawings, and thus, once an item is defined in one drawing, it does not need to be further discussed in subsequent drawings.

[0052] Referring to Figure 1 、 Figure 3 、 Figure 13 and Figure 14 as shown, an atomizing device 100 is provided in an embodiment of the present application, which includes a storage module 10, an atomizing module 20, and a power module 30. The storage module 10, the atomizing module 20, and the power module 30 are independent of each other and can be spliced and combined into one body.

[0053] There is a liquid path connection between the storage module 10 and the atomizing module 20 so that the aerosol matrix contained in the storage module 10 is transported into the atomizing module 20. There is an electrical connection between the atomizing module 20 and the power module 30 so that the power module 30 provides electrical energy for the atomizing module 20. The atomizing module 20 is used to atomize the aerosol matrix to generate an aerosol.

[0054] The storage module 10, the atomizing module 20, and the power module 30 are arranged in a first direction in any order. The first and the second of the three are respectively disposed on opposite sides of the third. A first connection module 71 is provided between the first and the third. The first connection module 71 is used to connect the first and the third so that the first and the third are detachably and fixedly connected. A second connection module 72 is provided between the second and the third. The second connection module 72 is used to connect the second and the third so that the second and the third are detachably and fixedly connected. Specifically, the first direction is as Figure 3 the L2 direction in

[0055] Embodiment 1:

[0056] Referring to Figures 1 to 6As shown, the storage module 10 and the power supply module 30 are respectively arranged on opposite sides of the atomization module 20. The first connection module 71 includes a first connector 711 and a second connector 712. The first connector 711 is arranged on the side wall of the storage module 10 close to the atomization module 20, and the second connector 712 is arranged on the side wall of the atomization module 20 close to the storage module 10. The second connector 712 cooperates with the first connector 711 to detachably and fixedly connect the atomization module 20 and the storage module 10.

[0057] The second connection module 72 includes a third connector 721 and a fourth connector 722. The third connector 721 is arranged on the side wall of the atomization module 20 close to the power supply module 30, and the fourth connector 722 is arranged on the side wall of the power supply module 30 close to the atomization module 20. The fourth connector 722 cooperates with the third connector 721 to detachably and fixedly connect the power supply module 30 and the atomization module 20.

[0058] Referring to Figure 2 、 Figure 8 and Figure 9 as shown, one of the first connector 711 and the second connector 712 includes a plugging portion, and the other of the first connector 711 and the second connector 712 includes a plugging groove. The plugging portion and the plugging groove can be slidably plugged together to detachably and fixedly connect the atomization module 20 and the storage module 10; or, one of the first connector 711 and the second connector 712 includes a first plugging portion and a first plugging groove, and the other of the first connector 711 and the second connector 712 includes a second plugging portion and a second plugging groove; the first plugging portion and the second plugging groove can be slidably plugged together, and the second plugging portion and the first plugging groove can be slidably plugged together to detachably and fixedly connect the atomization module 20 and the storage module 10.

[0059] Specifically, the first connecting member 711 includes a first insertion portion and a first insertion groove. The storage module 10 includes a first housing 11. The first insertion portion and the first insertion groove are disposed on a sidewall of the first housing 11 close to the atomization module 20. The second connecting member 712 includes a second insertion portion and a second insertion groove. The atomization module 20 includes a second housing 21. The second insertion portion and the second insertion groove are disposed on a sidewall of the second housing 21 close to the storage module 10. When the storage module 10 is connected to the atomization module 20, the first insertion portion is inserted into the second insertion groove, and the second insertion portion is inserted into the first insertion groove, so that the atomization module 20 and the storage module 10 are detachably connected. Wherein, a sidewall of the second housing 21 close to the storage module 10 and / or a sidewall of the first housing 11 close to the atomization module 20 is a rough surface, so that the atomization module 20 and the storage module 10 are fixedly connected. In addition, there are other ways to fixedly connect the atomization module 20 and the storage module 10, for example: interference fit between the second insertion portion and the first insertion groove or between the first insertion portion and the second insertion groove, and setting a stop limiting structure to limit the movement of the sliding insertion, etc.

[0060] More specifically, the first housing 11 includes a first front cover 111 and a first rear cover 112. The first front cover 111 is close to the atomization module 20, and the first rear cover 112 is far from the atomization module 20. The first front cover 111 and the first rear cover 112 are connected to form a first receiving cavity 12. The first front cover 111 and the first rear cover 112 are ultrasonically welded. The first liquid passing hole 1111 is disposed on the first front cover 111, the first through hole 1124 is disposed on the first rear cover 112, and a liquid injection hole 1121 is provided at the top of the first rear cover 112. When the storage module 10 replenishes the aerosol matrix, the aerosol matrix is replenished through the liquid injection hole 1121. The storage module 10 further includes a rubber plug 17, and the rubber plug 17 is inserted into the liquid injection hole 1121 to block the liquid injection hole 1121.

[0061] The first housing 11 is provided with a first groove 1112 at the first liquid passing hole 1111. The first groove 1112 is used to place the first seal 15. The first seal 15 cooperates with the push rod 141 to further seal the first liquid passing hole 1111. The first housing 11 is provided with a second groove 1122 at the first through hole 1124. The second groove 1122 is used to place the second seal 16. The second seal 16 cooperates with the push rod 141 to further seal the first through hole 1124.

[0062] The second housing 21 includes a first upper cover 211 and a first lower cover 212. The first upper cover 211 and the first lower cover 212 are connected to form a second receiving cavity 22. An elastic member is in interference fit between the first upper cover 211 and the first lower cover 212 to maintain the connection between the first upper cover 211 and the first lower cover 212. A second liquid passing hole 2111, a first mounting hole 2112, a third groove 2113, and a second mounting groove 2115 are provided on the side wall of the first upper cover 211 close to the storage module 10. A first mounting groove 2114 is provided on the side wall of the first upper cover 211 close to the power module 30. A partition 201 and an atomizing wall 202 are provided on the first lower cover 212. An avoidance hole 2121 is provided on the side wall of the first lower cover 212 close to the second liquid passing hole 2111 for avoiding the buckle 282 and the liquid path of the second liquid passing hole 2111.

[0063] The third housing 31 includes a second front cover 311 and a second rear cover 312. The second front cover 311 and the second rear cover 312 are connected to form a third receiving cavity 32. The second front cover 311 and the second rear cover 312 are ultrasonically welded. A detection hole 3121 and a third mounting groove 3122 are provided on the side wall of the second rear cover 312 close to the atomizing module 20.

[0064] Refer to Figure 2 、 Figure 3 、 Figure 5 and Figures 9 to 12 As shown in

[0065] Refer to Figure 2 、 Figure 4 and Figure 11 As shown in

[0066] The atomization module 20 includes an atomization component 23, a power receiving connector 25, and a second housing 21. The atomization component 23 is housed within the second housing 21. The power receiving connector 25 penetrates through the side wall of the second housing 21 close to the power module 30, and a part of the power receiving connector 25 is exposed outside the second housing 21. The power receiving connector 25 is electrically connected to the atomization component 23.

[0067] The power module 30 includes a battery 33, a power supply connector 35, and a third housing 31. The battery 33 is housed within the third housing 31. The power supply connector 35 penetrates through the side wall of the third housing 31 close to the atomization module 20, and a part of the power supply connector 35 is exposed outside the third housing 31. The exposed part of the power supply connector 35 abuts against the exposed part of the power receiving connector 25 to electrically connect the power supply connector 35 and the power receiving connector 25. The battery 33 is electrically connected to the power supply connector 35 so that the battery 33 is electrically connected to the atomization component 23 through the power supply connector 35 and the power receiving connector 25. Specifically, the atomization component 23 includes a heating mesh 231, and the power receiving connector 25 is electrically connected to the heating mesh 231 in the atomization component 23 so that the battery 33 is electrically connected to the heating mesh 231 in the atomization component 23 through the power supply connector 35 and the power receiving connector 25.

[0068] In specific implementation, the power module further includes a control circuit board 34. The battery 33 is electrically connected to the control circuit board 34, and the power supply connector 35 is electrically connected to the control circuit board 34 so that the battery 33 is electrically connected to the power supply connector 35. Specifically, the atomization component 23 includes a heating mesh 231, and the power receiving connector 25 is electrically connected to the heating mesh 231 in the atomization component 23 so that the battery 33 is electrically connected to the heating mesh 231 in the atomization component 23 through the control circuit board 34, the power supply connector 35, and the power receiving connector 25. The electric energy delivered by the battery 33 is received by the heating mesh 231 to make the heating mesh 231 work. The control circuit board 34 controls whether the electric energy delivered by the battery 33 is delivered to the heating mesh 231 according to a control signal to control the operation of the heating mesh 231.

[0069] Both the power supply connector 35 and the power receiving connector 25 are spring pins to ensure electrical connection when the power supply connector 35 and the power receiving connector 25 are in abutment.

[0070] In some embodiments, the power supply connector 35 extends towards the power receiving connector 25 and / or the power receiving connector 25 extends towards the power supply connector 35 so that the power supply connector 35 abuts against the power receiving connector 25.

[0071] In some embodiments, the power module 30 includes a charging connector 38 received in the third receiving cavity 32. The third housing 31 is provided with a charging port 37. A part of the charging connector 38 extends out of the charging port 37 or one end of the charging connector 38 is inserted into the charging port 37 and flush with the surface of the third housing 31. The charging connector 38 is electrically connected to the control circuit board 34, and the battery 33 is electrically connected to the control circuit board 34. The battery 33 is charged by an external charging circuit through the charging connector 38.

[0072] Referring to Figure 3 and Figure 4 As shown, the liquid path connection of the atomizing device is as follows: A first receiving cavity 12 is formed inside the first housing 11 of the storage module 10. The first receiving cavity 12 is used to receive the aerosol matrix. The side wall of the first housing 11 close to the atomizing module 20 is provided with a first liquid passing hole 1111. A second receiving cavity 22 is formed inside the second housing 21 of the atomizing module 20. The atomizing assembly 23 is received in the second receiving cavity 22. The side wall of the second housing 21 close to the storage module 10 is provided with a second liquid passing hole 2111. The second liquid passing hole 2111 is communicated with the first liquid passing hole 1111. The aerosol matrix received in the first receiving cavity 12 moves to the atomizing assembly 23 through the first liquid passing hole 1111 and the second liquid passing hole 2111, so that the aerosol matrix contacts the atomizing assembly 23, and the atomizing assembly 23 works to generate aerosol.

[0073] Referring to Figure 3 , Figure 4 , Figure 8 and Figure 10 As shown, the side wall of the first housing 11 close to the atomizing module 20 is attached to the side wall of the second housing 21 close to the storage module 10 so that the first liquid passing hole 1111 is communicated with the second liquid passing hole 2111. A third sealing member 29 is provided between the side wall of the first housing 11 close to the atomizing module 20 and the side wall of the second housing 21 close to the storage module 10. The third sealing member 29 surrounds the connection of the second liquid passing hole 2111 and the first liquid passing hole 1111 to prevent the aerosol matrix from leaking at the connection of the second liquid passing hole 2111 and the first liquid passing hole 1111. Specifically, the side wall of the first housing 11 close to the atomizing module 20 and / or the side wall of the second housing 21 close to the storage module 10 is provided with a third groove 2113, and the third sealing member 29 is disposed in the third groove 2113.

[0074] Referring to Figure 3 , Figure 4 , Figure 9 and Figure 10As shown, a second installation groove 2115 is provided on the side wall of the second housing 21 close to the storage module 10. The opening of the second installation groove 2115 faces the storage module 10. The atomization module 20 further includes a first rotating member 28. The first rotating member 28 is installed in the second installation groove 2115 to cover the first rotating member 28 on the side of the second liquid passing hole 2111 facing away from the second receiving cavity 22. The first rotating member 28 is provided with a third liquid passing hole 281 deviating from the central axis of the first rotating member 28.

[0075] When the atomization module 20 is in the working state, the third liquid passing hole 281 is communicated with the second liquid passing hole 2111, and the third liquid passing hole 281 is communicated with the first liquid passing hole 1111, so that the aerosol matrix in the first receiving cavity 12 is output to the second receiving cavity 22 through the first liquid passing hole 1111, the third liquid passing hole 281, and the second liquid passing hole 2111.

[0076] When the atomization module 20 is switched from the working state to the non-working state, the first rotating member 28 rotates around its central axis, and the relative position between the third liquid passing hole 281 and the second liquid passing hole 2111 changes, so that the first rotating member 28 closes the second liquid passing hole 2111.

[0077] Specifically, an installation hole 2112 is provided on the side of the second installation groove 2115 close to the second receiving cavity 22. The installation hole 2112 communicates with the second receiving cavity 22. The first rotating member 28 is provided with a buckle 282 extending toward the second receiving cavity 22. The buckle 282 passes through the installation hole 2112 to abut against the inner side of the side wall of the second housing 21 close to the storage module 10.

[0078] Refer to Figure 3 、 Figure 4 、 Figure 6 and Figure 7 As shown, a first through hole 1124 is provided on the side wall of the first housing 11 away from the first liquid passing hole 1111. The storage module 10 includes a push rod 141. The push rod 141 passes through the first through hole 1124 to insert into the first receiving cavity 12. The push rod 141 can move along the direction of the first liquid passing hole 1111 pointing to the first through hole 1124. When the storage module 10 is in the unactivated state, the end of the push rod 141 away from the first through hole 1124 inserts into the first liquid passing hole 1111 to block the first liquid passing hole 1111. When the storage module 10 is switched from the unactivated state to the activated state, the push rod 141 moves along the direction of the first liquid passing hole 1111 pointing to the first through hole 1124, so that the first liquid passing hole 1111 is communicated with the first receiving cavity 12.

[0079] Specifically, the side wall of the first through hole 1124 provided in the first housing 11 is provided with a guiding portion 1123. The guiding portion 1123 extends from the outer edge of the first through hole 1124 towards the first receiving cavity 12. The guiding portion 1123 abuts against the outer peripheral surface of the push rod 141 to fix the moving direction of the push rod 141, so as to prevent the first through hole 1124 from being enlarged due to the swing of the push rod 141, resulting in the leakage of the aerosol reference from the first through hole 1124.

[0080] More specifically, the first housing 11 is provided with a groove around the first liquid passing hole 1111 at the first liquid passing hole 1111. The groove is used to install a sealing rubber ring, and the sealing rubber ring cooperates with the push rod 141 to seal the first liquid passing hole 1111. The first housing 11 is provided with a groove around the first through hole 1124 at the first through hole 1124. The groove is used to install a sealing rubber ring, and the sealing rubber ring cooperates with the push rod 141 to seal the first through hole 1124.

[0081] Refer to Figure 3 and Figure 10 As shown, the second housing 21 is provided with a mouthpiece 60, an air inlet hole 41, and an atomization channel 42. The atomization channel 42 communicates the mouthpiece 60 and the air inlet hole 41. The atomization assembly 23 is disposed in the atomization channel 42 so that the aerosol generated by the atomization assembly 23 is mixed with the air entering the atomization channel 42 from the air inlet hole 41. The atomization channel 42 is connected between the mouthpiece 60 and the air inlet hole 41. The mixed gas is inhaled into the user's mouth through the mouthpiece 60 as the user of the atomization device sucks.

[0082] Specifically, a sealing member, a partition 201, and an atomization wall 202 are provided in the second housing 21. The partition 201 and the atomization wall 202 are disposed on the bottom wall of the second housing 22. The partition 201 and the atomization wall 202 extend towards the second receiving cavity 22. The sealing member is covered on one end of the partition 201 away from the bottom wall, so that the sealing member and the second housing 21 enclose a receiving space. The partition 201 divides the receiving space into a liquid storage cavity 221 and a power connection cavity 222. The atomization wall 202 is disposed on one side of the partition 201 close to the liquid storage cavity 221. The atomization wall 202 is disposed in a surrounding manner to form a blind hole with an upward opening to form a communication space 224. The atomization wall 202 is attached to the partition 201. Ventilation holes 2011 are provided on one side of the atomization wall 202 close to the partition 201 and on one side of the partition 201 close to the atomization wall 202. The ventilation holes 2011 communicate the power connection cavity 222 and the communication space 224. The second housing 21 extends towards the second receiving cavity 22 along the mouthpiece 60 to form an airway wall 24. The atomization channel 42 includes a first airway 421. The airway wall 24 is disposed around a part of the atomization channel 42 close to the mouthpiece 60 for one week to form the first airway 421. More specifically, the second direction is the axial direction of the first airway 421. The second direction is such as Figure 3 the L1 direction in Figure 3in the L2 direction.

[0083] The atomization component 23 is disposed through the liquid storage cavity 221. One end of the atomization component 23 is inserted into the communication space 224 and abuts against the atomization wall 202. The seal member is provided with a through hole, and the other end of the atomization component 23 passes through the through hole and abuts against the airway wall 24. The atomization component 23 includes an atomization housing 232 and a heating mesh 231. An atomization space 233 is formed inside the atomization housing 232. The heating mesh 231 is disposed in the atomization space 233. The atomization housing is provided with a first atomization hole 2321, a second atomization hole 2322, and a third atomization hole 2323. Among them, the first atomization hole 2321 communicates the liquid storage cavity 221 and the atomization space 233, the second atomization hole 2322 communicates the atomization space 233 and the first airway 421, and the third atomization hole 2323 communicates the atomization space 233 and the communication space 224. The atomization channel 42 is composed of the first airway 421, the atomization space 233, the communication space 224, and the power connection cavity 222.

[0084] The usage process of the atomization device is as follows:

[0085] Air enters the second receiving cavity 22 through the air inlet hole 41, specifically enters the power connection cavity 222, enters the communication space 224 located below the atomization component 23 through the ventilation hole 2011 provided on the partition plate 201, and then the air enters the atomization space 233 inside the atomization component 23 through the third atomization hole 2323. The aerosol matrix enters the second receiving cavity 22 through the second liquid passing hole 2111, specifically enters the liquid storage cavity 221, and the aerosol matrix enters the atomization space 233 through the first atomization hole 2321 so that the aerosol matrix contacts the heating mesh 231. When the atomization component 23 works, the heating mesh 231 heats the aerosol matrix to generate aerosol. The aerosol is mixed with air and is sucked by the user of the atomization device, enters the first airway 421 through the second atomization hole 2322, and finally the mixed gas of aerosol and air is sucked out from the mouthpiece.

[0086] Refer to Figure 3 As shown, the atomization device further includes a microphone 50. The microphone 50 is electrically connected to the control circuit board 34. The microphone 50 is used to send a signal to control the start of the atomization device according to the user's suction. The second housing 21 is provided with a detection channel 43. The detection channel 43 is connected between the mouthpiece 60 and the microphone 50. Specifically, the detection channel 43 can be directly connected to the mouthpiece 60, or the detection channel 43 can be connected to the atomization channel 42 and connected to the mouthpiece 60 through the atomization channel 42.

[0087] In some embodiments, the microphone 50 is a negative pressure microphone, and the microphone 50 is disposed within the power module 30. A detection hole 3121 is provided on the side wall of the third housing 31 close to the atomization module 20. The microphone 50 extends out of the detection hole 3121 or the detection surface of the microphone 50 is flush with the surface of the third housing 31. The second housing 21 is provided with a detection air hole 431, and the detection air hole 431 communicates with the detection channel 43. When the power module 30 and the atomization module 20 are assembled, the microphone 50 is connected to the detection channel 43. Specifically, the microphone 50 abuts against the side of the detection air hole 431 close to the power module, so that the microphone 50 can sense the suction air flow in the detection channel 43.

[0088] In some other embodiments, the microphone 50 is disposed within the detection channel 43, and the end of the detection channel 43 away from the mouthpiece 60 communicates with air, so that the microphone 50 can sense the suction air flow in the detection channel 43. Alternatively, the microphone 50 is disposed within the atomization channel 42, so that the microphone 50 senses the suction air flow in the atomization channel 42.

[0089] The assembly process of the atomization device is as follows:

[0090] First step: Activate the storage module 10, place the storage module 10 in a posture with the first liquid passing hole 1111 facing upward, and pull the push rod assembly 14 in the storage module 10 to activate the storage module 10. Specifically, pull the push rod cap 142. As the push rod cap 142 is pulled out, the push rod 141 is pulled out from the first liquid passing hole 1111.

[0091] Second step: Switch the atomization module 20 from the non-working state to the working state, and rotate the first rotating member 28 of the atomization module 20 so that the third liquid passing hole 281 communicates with the second liquid passing hole 211.

[0092] Third step: Assemble the storage module 10 and the atomization module 20. Insert the first insertion portion of the storage module 10 into the second insertion slot of the atomization module 20, and insert the second insertion portion of the atomization module 20 into the first insertion slot of the storage module 10, so that the storage module 10 and the atomization module 20 are detachably and fixedly connected.

[0093] Fourth step: Assemble the power module 30 and the atomization module 20. The first magnetic member of the atomization module 20 and the second magnetic member of the power module 30 attract each other, so that the atomization module 20 and the power module 30 are detachably and fixedly connected.

[0094] The disassembly process of the atomization device is as follows:

[0095] First step: Place the atomization device in a posture with the atomization module 20 above and the power module 30 below.

[0096] Second step: Disassemble the power module 30 and pull the power module 30 off the atomization device.

[0097] Step 3: Pull out the second plugging part from the first plugging slot, and at the same time pull out the first plugging part from the second plugging slot to disassemble the assembly into the storage module 10 and the atomization module 20.

[0098] Step 4: Switch the storage module 10 from the activated state to the non-activated state, and drag the push rod assembly 14, specifically push the push rod cap 142. As the push rod cap 142 is dragged, the push rod 141 is inserted into the first liquid passing hole 1111 to block the first liquid passing hole 1111.

[0099] Step 5: Switch the atomization module 20 from the working state to the non-working state, and rotate the first rotating part 28 to stagger the third liquid passing hole 281 from the second liquid passing hole 2111, and the first rotating part 28 closes the second liquid passing hole 2111.

[0100] Embodiment 2:

[0101] Refer to Figure 13 As shown, the storage module 10 and the atomization module 20 are respectively arranged on opposite sides of the power module 30. The first connection module 71 includes a first connecting part 711 and a second connecting part 712. The first connecting part 711 is arranged on the side wall of the storage module 10 close to the power module 30, and the second connecting part 712 is arranged on the side wall of the power module 30 close to the storage module 10. The second connecting part 712 cooperates with the first connecting part 711 to detachably and fixedly connect the power module 30 and the storage module 10;

[0102] The second connection module 72 includes a third connecting part 721 and a fourth connecting part 722. The third connecting part 721 is arranged on the side wall of the power module 30 close to the atomization module 20, and the fourth connecting part 722 is arranged on the side wall of the atomization module 20 close to the power module 30. The fourth connecting part 722 cooperates with the third connecting part 721 to detachably and fixedly connect the power module 30 and the atomization module 20.

[0103] Compared with Embodiment 1, the differences in the connection between the storage module 10 and the power module 30 in Embodiment 2 are as follows:

[0104] The first connecting part 711 includes a first plugging part and a first plugging slot. The storage module 10 includes a first housing 11, and the first plugging part and the first plugging slot are arranged on the side wall of the first housing 11 close to the power module 30; the second connecting part 712 includes a second plugging part and a second plugging slot. The power module 30 includes a third housing 31, and the second plugging part and the second plugging slot are arranged on the side wall of the third housing 31 close to the storage module 10. When the storage module 10 is connected to the power module 30, the first plugging part is inserted into the second plugging slot, and the second plugging part is inserted into the first plugging slot to detachably connect the power module 30 and the storage module 10.

[0105] Compared with the first embodiment, the differences in the connection between the atomization module 20 and the power module 30 in the second embodiment are as follows:

[0106] The third connecting member 721 includes a third insertion portion and a third insertion groove. The power module 30 includes a third housing 31. The third insertion portion and the third insertion groove are provided on the side wall of the third housing 31 close to the atomization module 20. The fourth connecting member 722 includes a fourth insertion portion and a fourth insertion groove. The atomization module 20 includes a second housing 21. The second insertion portion and the second insertion groove are provided on the side wall of the second housing 21 close to the power module 30. When the power module 30 is connected to the atomization module 20, the first insertion portion is inserted into the second insertion groove, and the second insertion portion is inserted into the first insertion groove, so that the atomization module 20 and the power module 30 are detachably connected.

[0107] Compared with the first embodiment, the differences in the liquid path connection of the atomization device in the second embodiment are as follows:

[0108] A first accommodation cavity 12 is formed inside the first housing 11 of the storage module 10. The first accommodation cavity 12 is used to accommodate the aerosol matrix. A first liquid passing hole 1111 is provided on the side wall of the first housing 11 close to the atomization module 20. A second accommodation cavity 22 is formed inside the second housing 21 of the atomization module 20. The atomization assembly 23 is accommodated in the second accommodation cavity 22. A second liquid passing hole 2111 is provided on the side wall of the second housing 21 close to the storage module 10. The second liquid passing hole 2111 is communicated with the first liquid passing hole 1111. The aerosol matrix accommodated in the first accommodation cavity 12 moves to the atomization assembly 23 through the first liquid passing hole 1111 and the second liquid passing hole 2111, so that the aerosol matrix contacts the atomization assembly 23, and the atomization assembly 23 works to generate aerosol.

[0109] A liquid passing channel 73 is provided between the first liquid passing hole 1111 and the second liquid passing hole 2111. The liquid passing channel 73 is for the aerosol matrix to pass through, so that the aerosol matrix accommodated in the first accommodation cavity 12 moves to the atomization assembly 23 through the first liquid passing hole 1111, the liquid passing channel 73 and the second liquid passing hole 2111. Specifically, when the storage module 10 and the atomization module 20 are respectively located on opposite sides of the power module 30, the liquid passing channel 73 penetrates through the power module 30, and the liquid passing channel 73 is arranged in the direction from the atomization module 20 to the storage module 10.

[0110] In the second embodiment, the circuit connection and the gas path setting of the atomization device are the same as those in the first embodiment.

[0111] The assembly process of the atomization device is as follows:

[0112] The first step: activating the storage module 10, placing the storage module 10 in a posture with the first liquid hole 1111 facing upward, pulling the push rod assembly 14 in the storage module 10 to activate the storage module 10, specifically pulling the push rod cap 142, and as the push rod cap 142 is pulled out, the push rod 141 is pulled out from the first liquid hole 1111.

[0113] Step 2: Assemble the power module 30 and the storage module 10, insert the first plug-in portion of the storage module 10 into the second plug-in slot of the power module 30, and insert the second plug-in portion of the power module 30 into the first plug-in slot of the storage module 10, so that the storage module 10 and the power module 30 can be detachably fixedly connected.

[0114] Step 3: Switch the atomization module 20 from the non-operating state to the operating state, and rotate the first rotating member 28 of the atomization module 20 to make the third liquid passage hole 281 communicate with the second liquid passage hole 2111 .

[0115] Step 4: Assemble the power module 30 and the atomizer module 20, insert the first plug-in portion of the power module 30 into the second plug-in slot of the atomizer module 20, and insert the second plug-in portion of the power module 30 into the first plug-in slot of the atomizer module 20, so that the atomizer module 20 and the power module 30 can be detachably fixedly connected.

[0116] The disassembly process of the atomizer is as follows:

[0117] Step 1: Place the atomization device in a position where the atomization module 20 is on the top and the storage module 10 is on the bottom.

[0118] Step 2: Disassemble the atomization module 20, pull the second plug-in portion out of the first plug-in slot, and at the same time pull the first plug-in portion out of the second plug-in slot, so as to remove the atomization module 20 from the atomization device.

[0119] Step 3: Switch the atomization module 20 from the working state to the non-working state, rotate the first rotating member 28 so that the third liquid passage hole 281 is staggered with the second liquid passage hole 2111 , and the first rotating member 28 closes the second liquid passage hole 2111 .

[0120] Step 4: Pull the second plug-in portion out of the first plug-in slot, and at the same time pull the first plug-in portion out of the second plug-in slot, so as to separate the assembly into the storage module 10 and the power module 30 .

[0121] Step 5: Switch the storage module 10 from the activated state to the inactivated state, drag the push rod assembly 14, specifically push the push rod cap 142, as the push rod cap 142 is dragged, the push rod 141 is inserted into the first liquid hole 1111 to block the first liquid hole 1111.

[0122] The use process of the atomizing device of the second embodiment is consistent with that of the first embodiment.

[0123] Embodiment III:

[0124] Referring to Figure 14 as shown, the atomization module 20 and the power module 30 are respectively arranged on opposite sides of the storage module 10. The first connection module 71 includes a first connector 711 and a second connector 712. The first connector 711 is arranged on the side wall of the atomization module 20 close to the storage module 10, and the second connector 712 is arranged on the side wall of the storage module 10 close to the atomization module 20. The second connector 712 cooperates with the first connector 711 to detachably and fixedly connect the atomization module 20 and the storage module 10;

[0125] The second connection module 72 includes a third connector 721 and a fourth connector 722. The third connector 721 is arranged on the side wall of the storage module 10 close to the power module 30, and the fourth connector 722 is arranged on the side wall of the power module 30 close to the storage module 10. The fourth connector 722 cooperates with the third connector 721 to detachably and fixedly connect the storage module 10 and the power module 30.

[0126] Compared with Embodiment I, the connection difference between the power module 30 and the storage module 10 in Embodiment III is as follows:

[0127] The first connector 711 and the second connector 712 are magnetic parts, and the first connector 711 and the second connector 712 attract each other to detachably and fixedly connect the storage module 10 and the power module 30.

[0128] Compared with Embodiment I, the connection difference between the atomization module 20 and the storage module 10 in Embodiment III is as follows:

[0129] The third connector 721 includes a third insertion part and a third insertion slot. The storage module 10 includes a first housing 11, and the third insertion part and the third insertion slot are arranged on the side wall of the first housing 11 close to the atomization module 20; the fourth connector 722 includes a fourth insertion part and a fourth insertion slot. The atomization module 20 includes a second housing 21, and the second insertion part and the second insertion slot are arranged on the side wall of the second housing 21 close to the storage module 10. When the storage module 10 is connected to the atomization module 20, the first insertion part is inserted into the second insertion slot, and the second insertion part is inserted into the first insertion slot to detachably connect the atomization module 20 and the storage module 10.

[0130] Compared with Embodiment I, the circuit connection difference of the atomization device in Embodiment III is as follows:

[0131] The atomization module 20 includes an atomization component 23, a power receiving connector 25, and a second housing 21. The atomization component 23 is received within the second housing 21. The power receiving connector 25 penetrates through the side wall of the second housing 21 close to the power module 30. A part of the power receiving connector 25 exposes outside the second housing 21, and the power receiving connector 25 is electrically connected to the atomization component 23.

[0132] The power module 30 includes a battery 33, a power supply connector 35, and a third housing 31. The battery 33 is received within the third housing 31. The power supply connector 35 penetrates through the side wall of the third housing 31 close to the atomization module 20. A part of the power supply connector 35 exposes outside the third housing 31. The exposed part of the power supply connector 35 abuts against the exposed part of the power receiving connector 25 to electrically connect the power supply connector 35 and the power receiving connector 25. The battery 33 is electrically connected to the power supply connector 35, so that the battery 33 is electrically connected to the atomization component 23 through the power supply connector 35 and the power receiving connector 25.

[0133] In specific implementation, the power module further includes a control circuit board 34. The battery 33 is electrically connected to the control circuit board 34, and the power supply connector 35 is electrically connected to the control circuit board 34, so that the battery 33 is electrically connected to the power supply connector 35. Specifically, both the power supply connector 35 and the power receiving connector 25 are spring pins to ensure electrical connection when the power supply connector 35 abuts against the power receiving connector 25.

[0134] In some embodiments, the power supply connector 35 extends towards the power receiving connector 25 and / or the power receiving connector 25 extends towards the power supply connector 35, so that the power supply connector 35 abuts against the power receiving connector 25.

[0135] The storage module 10 is provided with a power-on channel 74 penetrating through the storage module 10. The power-on channel 74 is arranged in the direction from the atomization module 20 towards the power module 30. The extending parts of the power supply connector 35 and / or the power receiving connector 25 are located within the power-on channel 74.

[0136] Compared with the first embodiment, the differences in the liquid path connection of the atomization device in the third embodiment are as follows:

[0137] The storage module 10 does not include a push rod assembly 14. The storage module 10 includes a second rotating member 19. The second rotating member 19 is installed on the side wall of the first housing 11 close to the atomization module 20. The second rotating member 19 covers the side of the first liquid passing hole 1111 facing away from the first receiving cavity 12. The second rotating member 19 is provided with a fourth liquid passing hole 191 deviating from the central axis of the second rotating member 19.

[0138] When the storage module 10 is in the activated state, the fourth liquid passing hole 191 communicates with the first liquid passing hole 1111, the fourth liquid passing hole 281 communicates with the third liquid passing hole 281 of the atomization module 20 in the working state, and the third liquid passing hole 281 communicates with the second liquid passing hole 2111, so that the aerosol matrix in the first accommodation cavity 12 is output to the second accommodation cavity 22 through the first liquid passing hole 1111, the fourth liquid passing hole 191, the third liquid passing hole 281, and the second liquid passing hole 2111.

[0139] When the storage module 10 is switched from the activated state to the non-activated state, the second rotating member 19 rotates around its central axis, and the relative position between the fourth liquid passing hole 191 and the first liquid passing hole 1111 changes, so that the second rotating member 19 closes the first liquid passing hole 1111.

[0140] Specifically, a second mounting hole 1113 is formed in the side wall of the first housing 11 close to the atomization module 20, and a part of the second rotating member 19 passes through the second mounting hole 1113 to mount the second rotating member 19. More specifically, the part of the second rotating member 19 passing through the second mounting hole 1113 is a connecting structure, such as a buckle.

[0141] The gas path setting of the atomization device in Embodiment 3 is the same as that in Embodiment 1.

[0142] The assembly process of the atomization device is as follows:

[0143] The first step: Assemble the storage module 10 and the power module 30. The first magnetic member of the power module 30 and the second magnetic member of the storage module 10 attract each other, so that the power module 30 and the storage module 10 are detachably and fixedly connected, and the power supply connecting member 35 is inserted into the power-on channel 74.

[0144] The second step: Activate the storage module 10, place the storage module 10 in a posture with the first liquid passing hole 1111 facing upward, and rotate the second rotating member 19 of the storage module 10 so that the fourth liquid passing hole 191 communicates with the first liquid passing hole 1111.

[0145] The third step: Switch the atomization module 20 from the non-working state to the working state, and rotate the first rotating member 28 of the atomization module 20 so that the third liquid passing hole 281 communicates with the second liquid passing hole 2111.

[0146] The fourth step: Assemble the storage module 10 and the atomization module 20. The first insertion part of the storage module 10 is inserted into the second insertion slot of the atomization module 20, and the second insertion part of the storage module 10 is inserted into the first insertion slot of the atomization module 20, so that the atomization module 20 and the storage module 10 are detachably and fixedly connected.

[0147] The disassembly process of the atomization device is as follows:

[0148] Step 1: Arrange the atomizing device such that the atomizing module 20 is above and the power module 30 is below.

[0149] Step 2: Disassemble the atomizing module 20. Pull out the second plugging part from the first plugging slot, and at the same time, pull out the first plugging part from the second plugging slot to remove the atomizing module 20 from the atomizing device.

[0150] Step 3: Switch the atomizing module 20 from the working state to the non - working state. Rotate the first rotating part 28 so that the third liquid - passing hole 281 is staggered from the second liquid - passing hole 2111, and the first rotating part 28 closes the second liquid - passing hole 2111.

[0151] Step 4: Switch the storage module 10 from the activated state to the non - activated state. Rotate the second rotating part 19 so that the fourth liquid - passing hole 191 is staggered from the first liquid - passing hole 1111, and the second rotating part 19 closes the first liquid - passing hole 1111.

[0152] Step 5: Pull out the power module 30 from the assembly of the power module 30 and the storage module 10.

[0153] The using process of the atomizing device in Embodiment 3 is the same as that in Embodiment 1.

[0154] Refer to Figure 15 and Figure 16 As shown in

[0155] This embodiment of the present utility model also provides an atomizing device, which includes a storage module 10, an atomizing module 20, and a power module 30. The storage module 10, the atomizing module 20, and the power module 30 are independent of each other and can be spliced and combined into one body;

[0156] There is a liquid - path connection between the storage module 10 and the atomizing module 20 so that the aerosol matrix contained in the storage module 10 is transported into the atomizing module 20. There is an electrical connection between the atomizing module 20 and the power module 30 so that the power module 30 provides electrical energy for the atomizing module 20. The atomizing module 20 is used for atomizing the aerosol matrix to generate aerosol;

[0157] The first body and the second body are respectively arranged on opposite sides of the third body. A first connection module is provided between the first body and the third body, and the first connection module is used to connect the first body and the third body so that the first body and the third body are detachably and fixedly connected; a second connection module is provided between the second body and the third body, and the second connection module is used to connect the second body and the third body so that the second body and the third body are detachably and fixedly connected.

[0158] Embodiment 4:

[0159] Refer to Figure 15 As shown, the first body is the storage module 10, the second body is the atomization module 20, and the third body is the power supply module 30. The housing of the storage module 10 includes a first main body and a second main body. One end of the first main body is connected to one end of the second main body and forms an included angle so that the housing and the storage module 10 are in an L shape. The atomization module 20 and the power supply module 30 are located on the second main body; the first main body and the atomization module 20 are respectively arranged on opposite sides of the power supply module 30.

[0160] The first connection module 71 includes a first connecting member 711 and a second connecting member 712. The first connecting member 711 is arranged on the side wall of the first main body close to the power supply module 30, and the second connecting member 712 is arranged on the side wall of the power supply module 30 close to the first main body. The second connecting member 712 cooperates with the first connecting member 711 so that the power supply module 30 and the first main body are detachably and fixedly connected.

[0161] The second connection module 72 includes a third connecting member 721 and a fourth connecting member 722. The third connecting member 721 is arranged on the side wall of the power supply module 30 close to the atomization module 20, and the fourth connecting member 722 is arranged on the side wall of the atomization module 20 close to the power supply module 30. The fourth connecting member 722 cooperates with the third connecting member 721 so that the power supply module 30 and the atomization module 20 are detachably and fixedly connected.

[0162] One of the first connecting member 711 and the second connecting member 712 includes a plugging portion, and the other of the first connecting member 711 and the second connecting member 712 includes a plugging groove. The plugging portion and the plugging groove can be slidably plugged so that the power supply module 30 and the storage module 10 are detachably and fixedly connected; alternatively, one of the first connecting member 711 and the second connecting member 712 includes a first plugging portion and a first plugging groove, and the other of the first connecting member 711 and the second connecting member 712 includes a second plugging portion and a second plugging groove; the first plugging portion and the second plugging groove can be slidably plugged, and the second plugging portion and the first plugging groove can be slidably plugged so that the power supply module 30 and the storage module 10 are detachably and fixedly connected.

[0163] One of the third connecting member 721 and the fourth connecting member 722 includes a plugging portion, and the other of the third connecting member 721 and the fourth connecting member 722 includes a plugging groove. The plugging portion and the plugging groove are slidably plugged with each other so that the atomization module 20 and the power module 30 are detachably and fixedly connected; or, one of the third connecting member 721 and the fourth connecting member 722 includes a first plugging portion and a first plugging groove, and the other of the third connecting member 721 and the fourth connecting member 722 includes a second plugging portion and a second plugging groove; the first plugging portion and the second plugging groove are slidably plugged with each other, and the second plugging portion and the first plugging groove are slidably plugged with each other so that the power module 30 and the atomization module 20 are detachably and fixedly connected.

[0164] Compared with the first embodiment, the difference in the liquid path connection of the atomization device in the fourth embodiment is as follows:

[0165] A first accommodation cavity 12 is formed inside the first housing 11 of the storage module 10. The first accommodation cavity 12 is used to accommodate the aerosol matrix. A first liquid passing hole 1111 is provided on the side wall of the second main body close to the atomization module 20. A second accommodation cavity 22 is formed inside the second housing 21 of the atomization module 20. The atomization assembly 23 is accommodated in the second accommodation cavity 22. A second liquid passing hole 2111 is provided on the side wall of the second housing 21 close to the second main body. The second liquid passing hole 2111 is communicated with the first liquid passing hole 1111. The aerosol matrix accommodated in the first accommodation cavity 12 moves to the atomization assembly 23 through the first liquid passing hole 1111 and the second liquid passing hole 2111, so that the aerosol matrix contacts the atomization assembly 23, and the atomization assembly 23 works to generate aerosol.

[0166] Compared with the first embodiment, the difference in the circuit connection of the atomization device in the fourth embodiment is that the power receiving connecting member 35 is arranged above the sealing member.

[0167] The using process of the atomization device in the fourth embodiment is the same as that in the first embodiment.

[0168] The assembling process of the atomization device is as follows:

[0169] The first step: Assemble the power module 30 and the storage module 10. Insert the first plugging portion of the storage module 10 into the second plugging groove of the power module 30, and insert the second plugging portion of the power module 30 into the first plugging groove of the storage module 10 so that the storage module 10 and the power module 30 are detachably and fixedly connected.

[0170] The second step: Switch the atomization module 20 from the non-working state to the working state, and rotate the first rotating member 28 of the atomization module 20 so that the third liquid passing hole 281 is communicated with the second liquid passing hole 2111.

[0171] Step 3: Assemble the power module 30 and the atomizer module 20, insert the first plug-in portion of the power module 30 into the second plug-in slot of the atomizer module 20, and insert the second plug-in portion of the power module 30 into the first plug-in slot of the atomizer module 20, so that the atomizer module 20 and the power module 30 can be detachably fixedly connected.

[0172] Step 4: Activate the storage module 10, place the storage module 10 in a position with the first liquid hole 1111 facing upward, pull the push rod assembly 14 in the storage module 10 to activate the storage module 10, specifically pull the push rod cap 142, and as the push rod cap 142 is pulled out, the push rod 141 is pulled out from the first liquid hole 1111.

[0173] The disassembly process of the atomizer is as follows:

[0174] Step 1: Disassemble the atomization module 20, pull the second plug-in portion out of the first plug-in slot, and at the same time pull the first plug-in portion out of the second plug-in slot, so as to remove the atomization module 20 from the atomization device.

[0175] Step 2: Switch the atomization module 20 from the working state to the non-working state, rotate the first rotating member 28 so that the third liquid passage hole 281 is staggered with the second liquid passage hole 2111 , and the first rotating member 28 closes the second liquid passage hole 2111 .

[0176] Step 3: Switch the storage module 10 from the activated state to the inactivated state, drag the push rod assembly 14, specifically push the push rod cap 142, as the push rod cap 142 is dragged, the push rod 141 is inserted into the first liquid hole 1111 to block the first liquid hole 1111.

[0177] Step 4: Pull the second plug-in portion out of the first plug-in slot, and at the same time pull the first plug-in portion out of the second plug-in slot, so as to remove the power module 30 from the assembly of the power module 30 and the storage module 10 .

[0178] Embodiment five:

[0179] See also Figure 16 As shown, the first is a power module 30, the second is an atomizer module 20, and the third is a storage module 10. The shell of the power module 30 includes a first body and a second body. One end of the first body is connected to one end of the second body and forms an angle so that the shell and the power module 30 are L-shaped. The atomizer module 20 and the storage module 10 are located on the second body; the first body and the atomizer module 20 are respectively arranged on opposite sides of the storage module 10.

[0180] The first connection module 71 includes a first connecting member 711 and a second connecting member 712. The first connecting member 711 is disposed on the side wall of the first main body close to the storage module 10, and the second connecting member 712 is disposed on the side wall of the storage module 10 close to the first main body. The second connecting member 712 cooperates with the first connecting member 711 to detachably and fixedly connect the storage module 10 and the first main body.

[0181] The second connection module 72 includes a third connecting member 721 and a fourth connecting member 722. The third connecting member 721 is disposed on the side wall of the storage module 10 close to the atomization module 20, and the fourth connecting member 722 is disposed on the side wall of the atomization module 20 close to the storage module 10. The fourth connecting member 722 cooperates with the third connecting member 721 to detachably and fixedly connect the storage module 10 and the atomization module 20.

[0182] Compared with the first embodiment, the difference in the connection between the power supply module 30 and the storage module 10 in the fifth embodiment is as follows:

[0183] The first connecting member 711 and the second connecting member 712 are magnetic members, and the first connecting member 711 and the second connecting member 712 attract each other to detachably and fixedly connect the storage module 10 and the power supply module 30.

[0184] The connection between the atomization module 20 and the storage module 10 in the fifth embodiment is the same as that in the third embodiment.

[0185] Specifically, the power supply module 30 includes a battery 33 and a control circuit board 34. The battery 33 is located in the third receiving cavity 32 of the first main body, and the control circuit board 34 is located in the third receiving cavity 32 of the second main body. The control circuit board 34 is electrically connected to the battery 33.

[0186] Compared with the first embodiment, the difference in the circuit connection of the atomization device in the fifth embodiment is that the power supply connecting member 25 penetrates through the side wall of the second main body close to the atomization module 20, and the power receiving connecting member penetrates through the side wall of the second housing close to the second main body.

[0187] The liquid path connection of the atomization device in the fifth embodiment is the same as that in the third embodiment.

[0188] The assembly process of the atomization device is as follows:

[0189] The first step: Assemble the storage module 10 and the power supply module 30. The first magnetic member of the power supply module 30 attracts the second magnetic member of the storage module 10 to detachably and fixedly connect the power supply module 30 and the storage module 10, so that the power supply connecting member 35 is inserted into the power-on channel 74.

[0190] Step 2: Activate the storage module 10, place the storage module 10 with the first liquid passing hole 1111 facing upward, and rotate the second rotating part 19 of the storage module 10 so that the fourth liquid passing hole 191 communicates with the first liquid passing hole 1111.

[0191] Step 3: Switch the atomization module 20 from the non - working state to the working state, and rotate the first rotating part 28 of the atomization module 20 so that the third liquid passing hole 281 communicates with the second liquid passing hole 2111.

[0192] Step 4: Assemble the storage module 10 and the atomization module 20. Insert the first insertion part of the storage module 10 into the second insertion slot of the atomization module 20, and insert the second insertion part of the storage module 10 into the first insertion slot of the atomization module 20, so that the atomization module 20 and the storage module 10 are detachably and fixedly connected.

[0193] The disassembly process of the atomization device is as follows:

[0194] Step 1: Place the atomization device with the atomization module 20 on top and the power module 30 at the bottom.

[0195] Step 2: Disassemble the atomization module 20. Pull out the second insertion part from the first insertion slot, and at the same time pull out the first insertion part from the second insertion slot to remove the atomization module 20 from the atomization device.

[0196] Step 3: Switch the atomization module 20 from the working state to the non - working state, and rotate the first rotating part 28 so that the third liquid passing hole 281 is misaligned with the second liquid passing hole 2111, and the first rotating part 28 closes the second liquid passing hole 2111.

[0197] Step 4: Switch the storage module 10 from the activated state to the non - activated state, and rotate the second rotating part 19 so that the fourth liquid passing hole 191 is misaligned with the first liquid passing hole 1111, and the second rotating part 19 closes the first liquid passing hole 1111.

[0198] Step 5: Pull the power module 30 off the assembly of the power module 30 and the storage module 10.

[0199] The using process of the atomization device in Embodiment 5 is the same as that in Embodiment 1.

[0200] Refer to Figure 17 and Figure 18 As shown, an atomization device includes a storage module 10, an atomization module 20 and a power module 30. The storage module 10, the atomization module 20 and the power module 30 are independent of each other and can be spliced and combined into one body;

[0201] The liquid path between the storage module 10 and the atomization module 20 is connected so that the aerosol matrix contained in the storage module 10 is transported into the atomization module 20. The atomization module 20 is electrically connected to the power module 30 so that the power module 30 provides electrical energy for the atomization module 20. The atomization module 20 is used to atomize the aerosol matrix to generate aerosol;

[0202] The housing of the first of the storage module 10, the atomization module 20, and the power module 30 includes a first main body and a second main body. One end of the first main body is connected to one side of the second main body and forms an angle so that the housing and the first one are in an inverted T shape. The second and the third of the storage module 10, the atomization module 20, and the power module 30 are located above the second main body;

[0203] The second and the third are respectively arranged on opposite sides of the first main body. A first connection module is provided between the first and the third. The first connection module is used to connect the first and the third so that the first and the third are detachably and fixedly connected; A second connection module is provided between the second and the first. The second connection module is used to connect the second and the first so that the second and the first are detachably and fixedly connected.

[0204] Embodiment Six:

[0205] Refer to Figure 17 As shown, the first is the storage module 10, the second is the power module 30, and the third is the atomization module 20. The housing of the storage module 10 includes a first main body and a second main body. The power module 30 and the atomization module 20 are respectively arranged on opposite sides of the storage module 10. One end of the first main body is connected to one side of the second main body and forms an angle so that the housing and the storage module 10 are in an inverted T shape. The atomization module 20 and the power module 30 are located above the second main body.

[0206] Compared with Embodiment Two, the difference in the connection method between the power module 30 and the storage module 10 is that the second insertion part and the second insertion slot of the power module 30 are arranged on the side wall of the first main body close to the storage module 10.

[0207] Compared with Embodiment Two, the difference in the connection method between the power module 30 and the atomization module 20 is that the second insertion part and the second insertion slot of the power module 30 are arranged on the side wall of the first main body close to the atomization module 20.

[0208] Compared with Embodiment Two, the difference in the circuit connection of the atomization device in Embodiment Six is as follows:

[0209] The power supply connecting part 35 penetrates through the side wall of the second main body close to the atomization module 20, and the power receiving connecting part 25 penetrates through the side wall of the second housing close to the second main body.

[0210] The control circuit board 34 is disposed in the third receiving cavity 32 of the second body, and the battery 33 is disposed in the third receiving cavity 32 of the first body.

[0211] The using process of the atomizing device in Embodiment Six is the same as that in Embodiment One.

[0212] The liquid path connection, assembly process and disassembly process of the atomizing device in Embodiment Six are the same as those in Embodiment Two.

[0213] Embodiment Seven:

[0214] Referring to Figure 18 As shown, the first is the power supply module 30, the second is the storage module 10, and the third is the atomizing module 20. The housing of the power supply module 30 includes a first body and a second body. The storage module 10 and the atomizing module 20 are respectively disposed on opposite sides of the power supply module 30. One end of the first body is connected to one side of the second body and forms an included angle so that the housing and the power supply module 30 are in an inverted T shape. The atomizing module 20 and the storage module 10 are located above the second body.

[0215] Compared with Embodiment Three, the difference in the connection manner between the power supply module 30 and the storage module 10 is that the second magnetic member of the storage module 10 is disposed on the side wall of the first body close to the power supply module 30.

[0216] Compared with Embodiment Three, the difference in the connection manner between the storage module 10 and the atomizing module 20 is that the first insertion portion and the first insertion slot of the storage module 10 are disposed on the side wall of the first body close to the atomizing module 20.

[0217] Compared with Embodiment Three, the difference in the circuit connection of the atomizing device in Embodiment Seven is as follows:

[0218] The power supply connecting member 35 penetrates through the side wall of the second body close to the atomizing module 20, and the power receiving connecting member 25 penetrates through the side wall of the second housing close to the second body.

[0219] The control circuit board 34 is disposed in the third receiving cavity 32 of the second body, and the battery 33 is disposed in the third receiving cavity 32 of the first body.

[0220] The using process of the atomizing device in Embodiment Seven is the same as that in Embodiment One.

[0221] The liquid path connection of the atomizing device in Embodiment Seven is the same as that in Embodiment Five.

[0222] The circuit connection, assembly process and disassembly process of the atomizing device in Embodiment Seven are the same as those in Embodiment Three.

[0223] For ease of description, spatial relative terms such as "above", "over", "on the upper surface", "upper" etc. may be used herein to describe the spatial positional relationship of one device or feature to other devices or features as shown in the figures. It should be understood that the spatial relative terms are intended to encompass different orientations in use or operation in addition to the orientation depicted in the figures. For example, if the device in the figures is inverted, a device described as "above" or "over" other devices or structures will then be positioned "below" or "beneath" the other devices or structures. Thus, the exemplary term "above" can include both orientations of "above" and "below". The device may also be positioned in other different ways (rotated 90 degrees or at other orientations), and corresponding interpretations of the spatial relative descriptions used herein will be made.

[0224] In addition, it should be noted that the use of terms such as "first" and "second" to define components is only for the convenience of differentiating the corresponding components. Without additional statements, the above terms have no special meanings and thus should not be construed as limiting the protection scope of the present application.

[0225] The above are only the preferred embodiments of the present application and are not used to limit the present application. For those skilled in the art, the present application can have various modifications and changes. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present application shall be included within the protection scope of the present application.

Claims

1. An atomizing device, characterized in that, It includes a storage module (10), an atomization module (20) and a power supply module (30). The storage module (10), the atomization module (20) and the power supply module (30) are independent of each other and can be spliced and combined into one body; There is a liquid path connection between the storage module (10) and the atomization module (20) so that the aerosol matrix contained in the storage module (10) is transported into the atomization module (20). There is an electrical connection between the atomization module (20) and the power supply module (30) so that the power supply module (30) provides electrical energy for the atomization module (20). The atomization module (20) is used for atomizing the aerosol matrix to generate aerosol; The storage module (10), the atomization module (20) and the power supply module (30) are arranged in a first direction in any order. The first and the second of the three are respectively arranged on opposite sides of the third. There is a first connection module (71) between the first and the third. The first connection module (71) is used to connect the first and the third so that the first and the third are detachably and fixedly connected; There is a second connection module (72) between the second and the third. The second connection module (72) is used to connect the second and the third so that the second and the third are detachably and fixedly connected.

2. The atomization device according to claim 1, characterized in that, The storage module (10) and the power supply module (30) are respectively arranged on opposite sides of the atomization module (20). The first connection module (71) includes a first connecting piece (711) and a second connecting piece (712). The first connecting piece (711) is arranged on the side wall of the storage module (10) close to the atomization module (20). The second connecting piece (712) is arranged on the side wall of the atomization module (20) close to the storage module (10). The second connecting piece (712) cooperates with the first connecting piece (711) so that the atomization module (20) and the storage module (10) are detachably and fixedly connected; The second connection module (72) includes a third connecting piece (721) and a fourth connecting piece (722). The third connecting piece (721) is arranged on the side wall of the atomization module (20) close to the power supply module (30). The fourth connecting piece (722) is arranged on the side wall of the power supply module (30) close to the atomization module (20). The fourth connecting piece (722) cooperates with the third connecting piece (721) so that the power supply module (30) and the atomization module (20) are detachably and fixedly connected.

3. The atomizing device according to claim 2, wherein One of the first connecting piece (711) and the second connecting piece (712) includes a plugging part, and the other of the first connecting piece (711) and the second connecting piece (712) includes a plugging groove. The plugging part and the plugging groove can be slidably plugged so that the atomization module (20) and the storage module (10) are detachably and fixedly connected; Or, One of the first connecting member (711) and the second connecting member (712) includes a first plugging portion and a first plugging groove, and the other of the first connecting member (711) and the second connecting member (712) includes a second plugging portion and a second plugging groove; the first plugging portion and the second plugging groove are slidably plugged with each other, and the second plugging portion and the first plugging groove are slidably plugged with each other, so that the atomization module (20) and the storage module (10) are detachably and fixedly connected.

4. The atomization device according to claim 2, characterized in that, The third connecting member (721) includes a first magnetic member, and the fourth connecting member (722) includes a second magnetic member. The first magnetic member and the second magnetic member attract each other so that the atomization module (20) and the power supply module (30) are detachably and fixedly connected.

5. The atomization device according to claim 4, wherein, A first installation groove (2114) is provided on the side wall of the atomization module (20) close to the power supply module (30), and the first magnetic member is fixedly installed in the first installation groove (2114); a third installation groove (3122) is provided on the side wall of the power supply module (30) close to the atomization module (20), and the second magnetic member is fixedly installed in the third installation groove (3122), so that the contact surface between the power supply module (30) and the atomization module (20) is a plane.

6. The atomization device according to claim 1, wherein, The storage module (10) and the atomization module (20) are respectively arranged on opposite sides of the power supply module (30). The first connection module (71) includes a first connecting member (711) and a second connecting member (712). The first connecting member (711) is arranged on the side wall of the storage module (10) close to the power supply module (30), and the second connecting member (712) is arranged on the side wall of the power supply module (30) close to the storage module (10). The second connecting member (712) cooperates with the first connecting member (711) so that the power supply module (30) and the storage module (10) are detachably and fixedly connected; The second connection module (72) includes a third connecting member (721) and a fourth connecting member (722). The third connecting member (721) is arranged on the side wall of the power supply module (30) close to the atomization module (20), and the fourth connecting member (722) is arranged on the side wall of the atomization module (20) close to the power supply module (30). The fourth connecting member (722) cooperates with the third connecting member (721) so that the power supply module (30) and the atomization module (20) are detachably and fixedly connected.

7. The atomization device according to claim 1, wherein, The atomization module (20) and the power module (30) are respectively arranged on opposite sides of the storage module (10). The first connection module (71) includes a first connecting member (711) and a second connecting member (712). The first connecting member (711) is arranged on the side wall of the atomization module (20) close to the storage module (10), and the second connecting member (712) is arranged on the side wall of the storage module (10) close to the atomization module (20). The second connecting member (712) cooperates with the first connecting member (711) to detachably and fixedly connect the atomization module (20) and the storage module (10); The second connection module (72) includes a third connecting member (721) and a fourth connecting member (722). The third connecting member (721) is arranged on the side wall of the storage module (10) close to the power module (30), and the fourth connecting member (722) is arranged on the side wall of the power module (30) close to the storage module (10). The fourth connecting member (722) cooperates with the third connecting member (721) to detachably and fixedly connect the storage module (10) and the power module (30).

8. The atomization device according to claim 1, wherein The atomization module (20) includes an atomization component (23), a power receiving connecting member (25), and a second housing (21). The atomization component (23) is received in the second housing (21). The power receiving connecting member (25) penetrates through the side wall of the second housing (21) close to the power module (30), and a part of the power receiving connecting member (25) protrudes from the second housing (21). The power receiving connecting member (25) is electrically connected to the atomization component (23); The power module (30) includes a battery (33), a power supply connecting member (35), and a third housing (31). The battery (33) is received in the third housing (31). The power supply connecting member (35) penetrates through the side wall of the third housing (31) close to the atomization module (20), and a part of the power supply connecting member (35) protrudes from the third housing (31). The protruding part of the power supply connecting member (35) abuts against the protruding part of the power receiving connecting member (25) to electrically connect the power supply connecting member (35) and the power receiving connecting member (25). The battery (33) is electrically connected to the power supply connecting member (35) so that the battery (33) is electrically connected to the atomization component (23) through the power supply connecting member (35) and the power receiving connecting member (25).

9. The atomizing device according to claim 8, wherein, The power supply connecting member (35) extends towards the power receiving connecting member (25) and / or the power receiving connecting member (25) extends towards the power supply connecting member (35) so that the power supply connecting member (35) abuts against the power receiving connecting member (25); When the atomization module (20) and the power supply module (30) are respectively located on opposite sides of the storage module (10), the storage module (10) is provided with a power-on channel (74) penetrating through the storage module (10). The power-on channel (74) is arranged in the direction from the atomization module (20) to the power supply module (30), and the extended parts of the power supply connecting member (35) and / or the power receiving connecting member (25) are located in the power-on channel (74).

10. The atomization device according to claim 1, wherein, The storage module (10) includes a first housing (11). A first receiving cavity (12) is formed inside the first housing (11). The first receiving cavity (12) is used for receiving the aerosol matrix. A first liquid passing hole (1111) is provided on the side wall of the first housing (11) close to the atomization module (20). The atomization module (20) includes an atomization component (23) and a second housing (21). A second receiving cavity (22) is formed inside the second housing (21). The atomization component (23) is received in the second receiving cavity (22). A second liquid passing hole (2111) is provided on the side wall of the second housing (21) close to the storage module (10). The second liquid passing hole (2111) is communicated with the first liquid passing hole (1111). The aerosol matrix received in the first receiving cavity (12) moves to the atomization component (23) through the first liquid passing hole (1111) and the second liquid passing hole (2111), so that the aerosol matrix contacts the atomization component (23), and the atomization component (23) operates to generate aerosol.

11. The atomization device according to claim 10, wherein, A liquid passing channel (73) is provided between the first liquid passing hole (1111) and the second liquid passing hole (2111). The liquid passing channel (73) allows the aerosol matrix to pass through, so that the aerosol matrix received in the first receiving cavity (12) moves to the atomization component (23) through the first liquid passing hole (1111), the liquid passing channel (73) and the second liquid passing hole (2111).

12. The atomization device according to claim 11, characterized in that, When the storage module (10) and the atomization module (20) are respectively located on opposite sides of the power supply module (30), the liquid passing channel (73) penetrates through the power supply module (30). The liquid passing channel (73) is arranged in the direction from the atomization module (20) to the storage module (10).

13. The atomization device according to claim 10, characterized in that, The side wall of the first shell (11) close to the atomization module (20) is fitted with the side wall of the second shell (21) close to the storage module (10) so that the first liquid hole (1111) is connected to the second liquid hole (2111). A third sealing member (29) is provided between the side wall of the first shell (11) close to the atomization module (20) and the side wall of the second shell (21) close to the storage module (10). The third sealing member (29) surrounds the connection between the second liquid hole (2111) and the first liquid hole (1111) to prevent the aerosol matrix from leaking at the connection between the second liquid hole (2111) and the first liquid hole (1111).

14. The atomization device according to claim 13, wherein A third groove (2113) is provided on a side wall of the first shell (11) close to the atomization module (20) and / or a side wall of the second shell (21) close to the storage module (10), and the third sealing member (29) is arranged in the third groove (2113).

15. The atomization device according to claim 10, characterized in that, The second housing (21) is provided with a second mounting groove (2115) on a side wall close to the storage module (10), and the second mounting groove (2115) opens toward the storage module (10). The atomization module (20) further comprises a first rotating member (28), and the first rotating member (28) is installed in the second mounting groove (2115) so as to cover the first rotating member (28) on a side of the second liquid passage hole (2111) away from the second receiving chamber (22). The first rotating member (28) is provided with a third liquid passage hole (281) deviating from the central axis of the first rotating member (28); When the atomization module (20) is in a working state, the third liquid passage hole (281) is in communication with the second liquid passage hole (2111), and the third liquid passage hole (281) is in communication with the first liquid passage hole (1111), so that the aerosol matrix in the first receiving chamber (12) is output to the second receiving chamber (22) through the first liquid passage hole (1111), the third liquid passage hole (281), and the second liquid passage hole (2111); When the atomization module (20) switches from a working state to a non-working state, the first rotating member (28) rotates around its central axis, and the relative positions of the third liquid passage hole (281) and the second liquid passage hole (2111) change, so that the first rotating member (28) closes the second liquid passage hole (2111).

16. The atomization device according to claim 15, characterized in that, A mounting hole (2112) is provided on one side of the second mounting groove (2115) close to the second receiving cavity (22), and the mounting hole (2112) is connected to the second receiving cavity (22). The first rotating member (28) is provided with a buckle (282) extending toward the second receiving cavity (22), and the buckle (282) passes through the mounting hole (2112) to abut against the inner side of the side wall of the second shell (21) close to the storage module (10).

17. The atomization device according to claim 10, characterized in that, A side wall of the first housing (11) away from the first liquid passage hole (1111) is provided with a first through hole (1124). The storage module (10) includes a push rod (141). The push rod (141) passes through the first through hole (1124) to insert into the first receiving cavity (12). The push rod (141) can move along a direction from the first liquid passage hole (1111) towards the first through hole (1124). When the storage module (10) is in an unactivated state, one end of the push rod (141) away from the first through hole (1124) inserts into the first liquid passage hole (1111) to block the first liquid passage hole (1111). When the storage module (10) is switched from the unactivated state to the activated state, the push rod (141) moves along a direction from the first liquid passage hole (1111) towards the first through hole (1124), so that the first liquid passage hole (1111) communicates with the first receiving cavity (12).

18. The atomization device according to claim 17, characterized in that, A side wall of the first housing (11) provided with the first through hole (1124) is provided with a guiding portion (1123). The guiding portion (1123) extends towards the first receiving cavity (12) along the outer edge of the first through hole (1124). The guiding portion (1123) abuts against the outer peripheral surface of the push rod (141) to fix the moving direction of the push rod (141).

19. The atomizing device according to claim 10, wherein The second housing (21) is provided with a nozzle (60), an air inlet hole (41) and an atomization channel (42). The atomization channel (42) communicates the nozzle (60) and the air inlet hole (41). The atomization assembly (23) is arranged in the atomization channel (42), so that the aerosol generated by the atomization assembly (23) is mixed with the air entering the atomization channel (42) from the air inlet hole (41). The mixed gas is inhaled into the user's mouth through the nozzle (60) as the user of the atomization device sucks.

20. An atomizing device, characterized in that, It includes a storage module (10), an atomization module (20) and a power supply module (30). The storage module (10), the atomization module (20) and the power supply module (30) are independent of each other and can be spliced and combined into one body. There is a liquid path connection between the storage module (10) and the atomization module (20), so that the aerosol matrix contained in the storage module (10) is transported into the atomization module (20). There is an electrical connection between the atomization module (20) and the power supply module (30), so that the power supply module (30) provides electrical energy for the atomization module (20). The atomization module (20) is used for atomizing the aerosol matrix to generate an aerosol. The housing of the first of the storage module (10), the atomization module (20), and the power module (30) includes a first body and a second body. One end of the first body is connected to one end of the second body and forms an included angle so that the housing and the first one are in an L shape. The second and third of the storage module (10), the atomization module (20), and the power module (30) are located on the second body; The first body and the second one are respectively arranged on opposite sides of the third one. A first connection module is provided between the first one and the third one. The first connection module is used to connect the first one and the third one so that the first one and the third one are detachably and fixedly connected; A second connection module is provided between the second one and the third one. The second connection module is used to connect the second one and the third one so that the second one and the third one are detachably and fixedly connected.

21. The atomization device according to claim 20, wherein, The first one is the storage module (10), the second one is the atomization module (20), and the third one is the power module (30). The housing of the storage module (10) includes a first body and a second body. One end of the first body is connected to one end of the second body and forms an included angle so that the housing and the storage module (10) are in an L shape. The atomization module (20) and the power module (30) are located on the second body; The first body and the atomization module (20) are respectively arranged on opposite sides of the power module (30).

22. The atomization device according to claim 20, characterized in that, The first one is the power module (30), the second one is the atomization module (20), and the third one is the storage module (10). The housing of the power module (30) includes a first body and a second body. One end of the first body is connected to one end of the second body and forms an included angle so that the housing and the power module (30) are in an L shape. The atomization module (20) and the storage module (10) are located on the second body; The first body and the atomization module (20) are respectively arranged on opposite sides of the storage module (10).

23. An atomization device, characterized in that, It includes a storage module (10), an atomization module (20), and a power module (30). The storage module (10), the atomization module (20), and the power module (30) are independent of each other and can be spliced and combined into one body; A liquid path is connected between the storage module (10) and the atomization module (20) so that the aerosol matrix contained in the storage module (10) is transported into the atomization module (20). An electrical connection is provided between the atomization module (20) and the power module (30) so that the power module (30) provides electrical energy for the atomization module (20). The atomization module (20) is used to atomize the aerosol matrix to generate aerosol; The housing of the first of the storage module (10), the atomization module (20), and the power supply module (30) includes a first body and a second body. One end of the first body is connected to one side of the second body and forms an included angle so that the housing and the first one are in an inverted T shape. The second and third of the storage module (10), the atomization module (20), and the power supply module (30) are located above the second body; The second and third ones are respectively arranged on opposite sides of the first body. A first connection module is provided between the first one and the third one. The first connection module is used to connect the first one and the third one so that the first one and the third one are detachably and fixedly connected; A second connection module is provided between the second one and the first one. The second connection module is used to connect the second one and the first one so that the second one and the first one are detachably and fixedly connected.

24. The atomizing device according to claim 23, wherein, The first one is the storage module (10), the second one is the power supply module (30), and the third one is the atomization module (20). The housing of the storage module (10) includes a first body and a second body. The power supply module (30) and the atomization module (20) are respectively arranged on opposite sides of the storage module (10). One end of the first body is connected to one side of the second body and forms an included angle so that the housing and the storage module (10) are in an inverted T shape. The atomization module (20) and the power supply module (30) are located above the second body.

25. The atomization device according to claim 23, characterized in that, The first one is the power supply module (30), the second one is the storage module (10), and the third one is the atomization module (20). The housing of the power supply module (30) includes a first body and a second body. The storage module (10) and the atomization module (20) are respectively arranged on opposite sides of the power supply module (30). One end of the first body is connected to one side of the second body and forms an included angle so that the housing and the power supply module (30) are in an inverted T shape. The atomization module (20) and the storage module (10) are located above the second body.

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