US2026047607A1PendingUtilityA1

Atomization device

Assignee: SHENZHEN GEEKVAPE TECH CO LTDPriority: Aug 14, 2024Filed: Aug 14, 2025Published: Feb 19, 2026
Est. expiryAug 14, 2044(~18 yrs left)· nominal 20-yr term from priority
Inventors:CAO DONG
A24F 40/40A24F 40/485A24F 40/50A24F 40/42A24F 40/10A24F 40/46
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Claims

Abstract

The present disclosure relates to an atomization device comprising a storage module, an atomization module, and a power supply module. The modules are structurally independent and detachably connectable to form an integral unit. The storage module is in fluid communication with the atomization module, which is in electrical communication with the power supply module and configured to atomize an aerosol substrate to generate an aerosol. The three modules are arranged in a first direction in any order, with a first and a second module disposed on opposite sides of a third module. A first connection module is provided between the first and third modules, and a second connection module is provided between the second and third modules, each enabling detachable fixed connection to meet customized user requirements.

Claims

exact text as granted — not AI-modified
1 . An atomization device, comprising:
 a storage module ( 10 ), an atomizing module ( 20 ), and a power supply module ( 30 ), the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) being independent from one another and configured to be assembled together;   a liquid passage connection between the storage module ( 10 ) and the atomizing module ( 20 ) so that an aerosol substrate accommodated in the storage module ( 10 ) is delivered into the atomizing module ( 20 );   an electrical connection between the atomizing module ( 20 ) and the power supply module ( 30 ) so that the power supply module ( 30 ) provides electrical energy to the atomizing module ( 20 );   the atomizing module ( 20 ) being configured to atomize the aerosol substrate to generate an aerosol;   wherein the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) are arranged in a first direction in any order, a first one and a second one of the three modules being respectively disposed on opposite sides of a third one of the three modules, a first connection module ( 71 ) being provided between the first one and the third one, the first connection module ( 71 ) being configured to connect the first one and the third one so that the first one and the third one are detachably and fixedly connected; and a second connection module ( 72 ) being provided between the second one and the third one, the second connection module ( 72 ) being configured to connect the second one and the third one so that the second one and the third one are detachably and fixedly connected.   
     
     
         2 . The atomization device of  claim 1 , wherein the storage module ( 10 ) and the power supply module ( 30 ) are respectively disposed on opposite sides of the atomizing module ( 20 ), the first connection module ( 71 ) comprises a first connecting member ( 711 ) and a second connecting member ( 712 ), the first connecting member ( 711 ) being disposed on a side wall of the storage module ( 10 ) adjacent to the atomizing module ( 20 ), the second connecting member ( 712 ) being disposed on a side wall of the atomizing module ( 20 ) adjacent to the storage module ( 10 ), the second connecting member ( 712 ) being configured to mate with the first connecting member ( 711 ) so that the atomizing module ( 20 ) and the storage module ( 10 ) are detachably and fixedly connected;
 the second connection module ( 72 ) comprises a third connecting member ( 721 ) and a fourth connecting member ( 722 ), the third connecting member ( 721 ) being disposed on a side wall of the atomizing module ( 20 ) adjacent to the power supply module ( 30 ), the fourth connecting member ( 722 ) being disposed on a side wall of the power supply module ( 30 ) adjacent to the atomizing module ( 20 ), the fourth connecting member ( 722 ) being configured to mate with the third connecting member ( 721 ) so that the power supply module ( 30 ) and the atomizing module ( 20 ) are detachably and fixedly connected.   
     
     
         3 . The atomization device of  claim 2 , wherein one of the first connecting member ( 711 ) and the second connecting member ( 712 ) comprises an insertion portion, and the other of the first connecting member ( 711 ) and the second connecting member ( 712 ) comprises an insertion slot, the insertion portion being slidably inserted into the insertion slot so that the atomizing 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 ) comprises a first insertion portion and a first insertion slot, and the other of the first connecting member ( 711 ) and the second connecting member ( 712 ) comprises a second insertion portion and a second insertion slot; the first insertion portion being slidably inserted into the second insertion slot, and the second insertion portion being slidably inserted into the first insertion slot so that the atomizing module ( 20 ) and the storage module ( 10 ) are detachably and fixedly connected.   
     
     
         4 . The atomization device of  claim 2 , wherein the third connecting member ( 721 ) comprises a first magnetic element, and the fourth connecting member ( 722 ) comprises a second magnetic element, the first magnetic element and the second magnetic element being magnetically attracted to each other so that the atomizing module ( 20 ) and the power supply module ( 30 ) are detachably and fixedly connected. 
     
     
         5 . The atomization device of  claim 4 , wherein a side wall of the atomizing module ( 20 ) adjacent to the power supply module ( 30 ) is provided with a first mounting groove ( 2114 ), the first magnetic element being fixedly mounted in the first mounting groove ( 2114 ); a side wall of the power supply module ( 30 ) adjacent to the atomizing module ( 20 ) is provided with a third mounting groove ( 3122 ), the second magnetic element being fixedly mounted in the third mounting groove ( 3122 ), such that the contact surface between the power supply module ( 30 ) and the atomizing module ( 20 ) is a flat surface. 
     
     
         6 . The atomization device of  claim 1 , wherein the storage module ( 10 ) and the atomizing module ( 20 ) are respectively disposed on opposite sides of the power supply module ( 30 ), the first connection module ( 71 ) comprises a first connecting member ( 711 ) and a second connecting member ( 712 ), the first connecting member ( 711 ) being disposed on a side wall of the storage module ( 10 ) adjacent to the power supply module ( 30 ), the second connecting member ( 712 ) being disposed on a side wall of the power supply module ( 30 ) adjacent to the storage module ( 10 ), the second connecting member ( 712 ) being configured to mate 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 ) comprises a third connecting member ( 721 ) and a fourth connecting member ( 722 ), the third connecting member ( 721 ) being disposed on a side wall of the power supply module ( 30 ) adjacent to the atomizing module ( 20 ), the fourth connecting member ( 722 ) being disposed on a side wall of the atomizing module ( 20 ) adjacent to the power supply module ( 30 ), the fourth connecting member ( 722 ) being configured to mate with the third connecting member ( 721 ) so that the power supply module ( 30 ) and the atomizing module ( 20 ) are detachably and fixedly connected.   
     
     
         7 . The atomization device of  claim 1 , wherein the atomizing module ( 20 ) and the power supply module ( 30 ) are respectively disposed on opposite sides of the storage module ( 10 ), the first connection module ( 71 ) comprises a first connecting member ( 711 ) and a second connecting member ( 712 ), the first connecting member ( 711 ) being disposed on a side wall of the atomizing module ( 20 ) adjacent to the storage module ( 10 ), the second connecting member ( 712 ) being disposed on a side wall of the storage module ( 10 ) adjacent to the atomizing module ( 20 ), the second connecting member ( 712 ) being configured to mate with the first connecting member ( 711 ) so that the atomizing module ( 20 ) and the storage module ( 10 ) are detachably and fixedly connected;
 the second connection module ( 72 ) comprises a third connecting member ( 721 ) and a fourth connecting member ( 722 ), the third connecting member ( 721 ) being disposed on a side wall of the storage module ( 10 ) adjacent to the power supply module ( 30 ), the fourth connecting member ( 722 ) being disposed on a side wall of the power supply module ( 30 ) adjacent to the storage module ( 10 ), the fourth connecting member ( 722 ) being configured to mate with the third connecting member ( 721 ) so that the storage module ( 10 ) and the power supply module ( 30 ) are detachably and fixedly connected.   
     
     
         8 . The atomization device of  claim 1 , wherein the atomizing module ( 20 ) comprises an atomizing assembly ( 23 ), a power receiving connector ( 25 ), and a second housing ( 21 ), the atomizing assembly ( 23 ) being accommodated in the second housing ( 21 ), the power receiving connector ( 25 ) passing through a side wall of the second housing ( 21 ) adjacent to the power supply module ( 30 ), a portion of the power receiving connector ( 25 ) being exposed from the second housing ( 21 ), the power receiving connector ( 25 ) being electrically connected to the atomizing assembly ( 23 );
 the power supply module ( 30 ) comprises a battery ( 33 ), a power supply connector ( 35 ), and a third housing ( 31 ), the battery ( 33 ) being accommodated in the third housing ( 31 ), the power supply connector ( 35 ) passing through a side wall of the third housing ( 31 ) adjacent to the atomizing module ( 20 ), a portion of the power supply connector ( 35 ) being exposed from the third housing ( 31 ), the exposed portion of the power supply connector ( 35 ) being configured to abut against the exposed portion of the power receiving connector ( 25 ) to electrically connect the power supply connector ( 35 ) and the power receiving connector ( 25 ), the battery ( 33 ) being electrically connected to the power supply connector ( 35 ) so that the battery ( 33 ) is electrically connected to the atomizing assembly ( 23 ) via the power supply connector ( 35 ) and the power receiving connector ( 25 ).   
     
     
         9 . The atomization device of  claim 8 , wherein the power supply connector ( 35 ) extends toward the power receiving connector ( 25 ) and/or the power receiving connector ( 25 ) extends toward the power supply connector ( 35 ) so that the power supply connector ( 35 ) and the power receiving connector ( 25 ) abut against each other;
 wherein, when the atomizing 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 an electrical conduction channel ( 74 ) penetrating through the storage module ( 10 ), the electrical conduction channel ( 74 ) being arranged in a direction from the atomizing module ( 20 ) toward the power supply module ( 30 ), and the extending portion of the power supply connector ( 35 ) and/or the extending portion of the power receiving connector ( 25 ) is disposed within the electrical conduction channel ( 74 ).   
     
     
         10 . The atomization device of  claim 1 , wherein the storage module ( 10 ) comprises a first housing ( 11 ), a first accommodating cavity ( 12 ) being formed inside the first housing ( 11 ), the first accommodating cavity ( 12 ) being configured to accommodate the aerosol substrate, a side wall of the first housing ( 11 ) adjacent to the atomizing module ( 20 ) being provided with a first liquid-through hole ( 1111 );
 the atomizing module ( 20 ) comprises an atomizing assembly ( 23 ) and a second housing ( 21 ), a second accommodating cavity ( 22 ) being formed inside the second housing ( 21 ), the atomizing assembly ( 23 ) being accommodated in the second accommodating cavity ( 22 ), a side wall of the second housing ( 21 ) adjacent to the storage module ( 10 ) being provided with a second liquid-through hole ( 2111 ), the second liquid-through hole ( 2111 ) being in communication with the first liquid-through hole ( 1111 ), whereby the aerosol substrate accommodated in the first accommodating cavity ( 12 ) moves to the atomizing assembly ( 23 ) via the first liquid-through hole ( 1111 ) and the second liquid-through hole ( 2111 ) so that the aerosol substrate contacts the atomizing assembly ( 23 ), the atomizing assembly ( 23 ) operating to generate the aerosol.   
     
     
         11 . The atomization device of  claim 10 , wherein a liquid passage channel ( 73 ) is provided between the first liquid-through hole ( 1111 ) and the second liquid-through hole ( 2111 ), the liquid passage channel ( 73 ) being configured to allow the aerosol substrate to pass therethrough so that the aerosol substrate accommodated in the first accommodating cavity ( 12 ) moves to the atomizing assembly ( 23 ) via the first liquid-through hole ( 1111 ), the liquid passage channel ( 73 ), and the second liquid-through hole ( 2111 ). 
     
     
         12 . The atomization device of  claim 11 , wherein, when the storage module ( 10 ) and the atomizing module ( 20 ) are respectively located on opposite sides of the power supply module ( 30 ), the liquid passage channel ( 73 ) passes through the power supply module ( 30 ), the liquid passage channel ( 73 ) being arranged in a direction from the atomizing module ( 20 ) toward the storage module ( 10 ). 
     
     
         13 . The atomization device of  claim 10 , wherein a side wall of the first housing ( 11 ) adjacent to the atomizing module ( 20 ) is fitted against a side wall of the second housing ( 21 ) adjacent to the storage module ( 10 ) so that the first liquid-through hole ( 1111 ) is in communication with the second liquid-through hole ( 2111 ), a third sealing member ( 29 ) being provided between the side wall of the first housing ( 11 ) adjacent to the atomizing module ( 20 ) and the side wall of the second housing ( 21 ) adjacent to the storage module ( 10 ), the third sealing member ( 29 ) surrounding a junction between the second liquid-through hole ( 2111 ) and the first liquid-through hole ( 1111 ) to prevent leakage of the aerosol substrate at the junction. 
     
     
         14 . The atomization device of  claim 13 , wherein at least one of the side wall of the first housing ( 11 ) adjacent to the atomizing module ( 20 ) and the side wall of the second housing ( 21 ) adjacent to the storage module ( 10 ) is provided with a third groove ( 2113 ), the third sealing member ( 29 ) being disposed in the third groove ( 2113 ). 
     
     
         15 . The atomization device of  claim 10 , wherein a side wall of the second housing ( 21 ) adjacent to the storage module ( 10 ) is provided with a second mounting groove ( 2115 ), the second mounting groove ( 2115 ) having an opening facing the storage module ( 10 ), the atomizing module ( 20 ) further comprising a first rotating member ( 28 ), the first rotating member ( 28 ) being mounted in the second mounting groove ( 2115 ) so as to cover the second liquid-through hole ( 2111 ) on a side thereof facing away from the second accommodating cavity ( 22 ), the first rotating member ( 28 ) being provided with a third liquid-through hole ( 281 ) offset from a central axis of the first rotating member ( 28 );
 wherein, when the atomizing module ( 20 ) is in an operating state, the third liquid-through hole ( 281 ) is in communication with the second liquid-through hole ( 2111 ) and the third liquid-through hole ( 281 ) is in communication with the first liquid-through hole ( 1111 ) so that the aerosol substrate in the first accommodating cavity ( 12 ) is output to the second accommodating cavity ( 22 ) via the first liquid-through hole ( 1111 ), the third liquid-through hole ( 281 ), and the second liquid-through hole ( 2111 );   when the atomizing module ( 20 ) switches from the operating state to a non-operating state, the first rotating member ( 28 ) rotates about its central axis, causing a relative positional change between the third liquid-through hole ( 281 ) and the second liquid-through hole ( 2111 ) so that the first rotating member ( 28 ) closes the second liquid-through hole ( 2111 ).   
     
     
         16 . The atomization device of  claim 15 , wherein a side of the second mounting groove ( 2115 ) adjacent to the second accommodating cavity ( 22 ) is provided with a mounting hole ( 2112 ), the mounting hole ( 2112 ) being in communication with the second accommodating cavity ( 22 ), the first rotating member ( 28 ) being provided with a latch ( 282 ) extending toward the second accommodating cavity ( 22 ), the latch ( 282 ) passing through the mounting hole ( 2112 ) so as to abut against an inner side of the side wall of the second housing ( 21 ) adjacent to the storage module ( 10 ). 
     
     
         17 . The atomization device of  claim 10 , wherein a side wall of the first housing ( 11 ) away from the first liquid-through hole ( 1111 ) is provided with a first through hole ( 1124 ), the storage module ( 10 ) comprising a push rod ( 141 ), the push rod ( 141 ) passing through the first through hole ( 1124 ) to be inserted into the first accommodating cavity ( 12 ), the push rod ( 141 ) being movable in a direction from the first liquid-through hole ( 1111 ) toward the first through hole ( 1124 );
 wherein, when the storage module ( 10 ) is in an unactivated state, an end of the push rod ( 141 ) away from the first through hole ( 1124 ) is inserted into the first liquid-through hole ( 1111 ) to block the first liquid-through hole ( 1111 );   when the storage module ( 10 ) switches from the unactivated state to an activated state, the push rod ( 141 ) moves in a direction from the first liquid-through hole ( 1111 ) toward the first through hole ( 1124 ) so that the first liquid-through hole ( 1111 ) is in communication with the first accommodating cavity ( 12 ).   
     
     
         18 . The atomization device of  claim 17 , wherein a side wall of the first housing ( 11 ) provided with the first through hole ( 1124 ) is provided with a guide portion ( 1123 ), the guide portion ( 1123 ) extending from an outer edge of the first through hole ( 1124 ) toward the first accommodating cavity ( 12 ), the guide portion ( 1123 ) being in contact with an outer peripheral surface of the push rod ( 141 ) to fix a movement direction of the push rod ( 141 ). 
     
     
         19 . The atomization device of  claim 10 , wherein the second housing ( 21 ) is provided with a mouthpiece ( 60 ), an air inlet hole ( 41 ), and an atomizing channel ( 42 ), the atomizing channel ( 42 ) being in communication with the mouthpiece ( 60 ) and the air inlet hole ( 41 ), the atomizing assembly ( 23 ) being disposed within the atomizing channel ( 42 ) so that the aerosol generated by the atomizing assembly ( 23 ) is mixed with air entering the atomizing channel ( 42 ) from the air inlet hole ( 41 ), the mixed gas being inhaled into a user's mouth through the mouthpiece ( 60 ) when the atomization device is used. 
     
     
         20 . An atomization device, comprising:
 a storage module ( 10 ), an atomizing module ( 20 ), and a power supply module ( 30 ), the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) being independent from one another and configured to be assembled together;   a liquid passage connection between the storage module ( 10 ) and the atomizing module ( 20 ) so that an aerosol substrate accommodated in the storage module ( 10 ) is delivered into the atomizing module ( 20 );   an electrical connection between the atomizing module ( 20 ) and the power supply module ( 30 ) so that the power supply module ( 30 ) provides electrical energy to the atomizing module ( 20 );   the atomizing module ( 20 ) being configured to atomize the aerosol substrate to generate an aerosol;   wherein a housing of a first one of the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) comprises a first body and a second body, one end of the first body being connected to one end of the second body to form an angle such that the housing and the first one are L-shaped, a second one and a third one of the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) being located on the second body;   the first body and the second one being respectively disposed on opposite sides of the third one, a first connection module being provided between the first one and the third one, the first connection module being configured to connect the first one and the third one so that the first one and the third one are detachably and fixedly connected; and a second connection module being provided between the second one and the third one, the second connection module being configured 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 of  claim 20 , wherein the first one is the storage module ( 10 ), the second one is the atomizing module ( 20 ), and the third one is the power supply module ( 30 ), the housing of the storage module ( 10 ) comprising the first body and the second body, one end of the first body being connected to one end of the second body to form an angle such that the housing and the storage module ( 10 ) are L-shaped, the atomizing module ( 20 ) and the power supply module ( 30 ) being located on the second body; the first body and the atomizing module ( 20 ) being respectively disposed on opposite sides of the power supply module ( 30 ). 
     
     
         22 . The atomization device of  claim 20 , wherein the first one is the power supply module ( 30 ), the second one is the atomizing module ( 20 ), and the third one is the storage module ( 10 ), the housing of the power supply module ( 30 ) comprising the first body and the second body, one end of the first body being connected to one end of the second body to form an angle such that the housing and the power supply module ( 30 ) are L-shaped, the atomizing module ( 20 ) and the storage module ( 10 ) being located on the second body; the first body and the atomizing module ( 20 ) being respectively disposed on opposite sides of the storage module ( 10 ). 
     
     
         23 . An atomization device, comprising:
 a storage module ( 10 ), an atomizing module ( 20 ), and a power supply module ( 30 ), the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) being independent from one another and configured to be assembled together;   a liquid passage connection between the storage module ( 10 ) and the atomizing module ( 20 ) so that an aerosol substrate accommodated in the storage module ( 10 ) is delivered into the atomizing module ( 20 );   an electrical connection between the atomizing module ( 20 ) and the power supply module ( 30 ) so that the power supply module ( 30 ) provides electrical energy to the atomizing module ( 20 );   the atomizing module ( 20 ) being configured to atomize the aerosol substrate to generate an aerosol;   wherein a housing of a first one of the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) comprises a first body and a second body, one end of the first body being connected to a side of the second body to form an angle such that the housing and the first one are inverted T-shaped, a second one and a third one of the storage module ( 10 ), the atomizing module ( 20 ), and the power supply module ( 30 ) being located on the second body;   the second one and the third one being respectively disposed on opposite sides of the first body, a first connection module being provided between the first one and the third one, the first connection module being configured to connect the first one and the third one so that the first one and the third one are detachably and fixedly connected; and a second connection module being provided between the second one and the first one, the second connection module being configured 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 atomization device of  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 atomizing module ( 20 ), the housing of the storage module ( 10 ) comprising the first body and the second body, the power supply module ( 30 ) and the atomizing module ( 20 ) being respectively disposed on opposite sides of the storage module ( 10 ), one end of the first body being connected to a side of the second body to form an angle such that the housing and the storage module ( 10 ) are inverted T-shaped, the atomizing module ( 20 ) and the power supply module ( 30 ) being located on the second body. 
     
     
         25 . The atomization device of  claim 23 , wherein the first one is the power supply module ( 30 ), the second one is the storage module ( 10 ), and the third one is the atomizing module ( 20 ), the housing of the power supply module ( 30 ) comprising the first body and the second body, the storage module ( 10 ) and the atomizing module ( 20 ) being respectively disposed on opposite sides of the power supply module ( 30 ), one end of the first body being connected to a side of the second body to form an angle such that the housing and the power supply module ( 30 ) are inverted T-shaped, the atomizing module ( 20 ) and the storage module ( 10 ) being located on the second body.

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