CN213344345U - Aerosol generating system and power supply device - Google Patents

Abstract

The utility model provides an aerosol generating system and a power supply device; wherein the aerosol-generating system comprises an atomising device and a power supply device; the power supply device includes: a power supply housing; an air inlet at least partially formed in the power supply housing and used for allowing external air to enter the atomization device; an airflow adjustment element positioned within the power supply housing and arranged to move relative to the power supply housing to adjust the size of the air intake to control the amount of outside air entering the air intake. In the aerosol-generating system, the power supply device is provided with the air inlet for the external air to enter during the suction process, and the size of the air inlet is adjusted by the movable airflow adjusting element so as to control the air quantity of the external air entering the air inlet.

Description

Aerosol generating system and power supply device

Technical Field

The embodiment of the utility model provides a relate to aerosol generation system field, especially relate to an aerosol generation system and power supply unit who is used for aerosol generation system.

Background

Aerosol-providing articles, such as so-called e-cigarette devices, exist. These devices typically contain a liquid that is heated to vaporize it, thereby generating an inhalable vapor or aerosol. The liquid may comprise nicotine and/or a fragrance and/or an aerosol generating substance (e.g. glycerol). Figure 1 shows the construction of an existing classic electronic cigarette, comprising a nebulizer 1 and a power supply 2 that can be separated from each other; wherein the power source 2 comprises a receiving chamber 3, the atomizer 1 being removably received in the receiving chamber 3. Simultaneously, be provided with first magnetism on the atomizer 1 and inhale component 4, power 2 is provided with and inhales component 5 with the second magnetism that component 4 cooperation was inhaled to first magnetism when atomizer 1 received in power 2 to make atomizer 1 and the automatic magnetic adsorption of power 2 form and keep, the user of being convenient for uses.

Further based on the requirement of facilitating the user to adjust the amount of aerosol drawn by himself, a known electronic cigarette device is provided with an air inlet on the outer housing of the atomizer 1, which can be changed or adjusted in size, in use, to facilitate the user to adjust the amount of aerosol drawn. In practice, since the atomizer 1 is substantially received in the receiving chamber 3, the operation of adjusting the air inlet needs to be performed after the atomizer 1 is removed from the power source 2, which affects the use.

SUMMERY OF THE UTILITY MODEL

Based on the above, embodiments of the present invention provide an aerosol-generating system comprising an atomising device for atomising an aerosol-forming substrate to generate an aerosol for inhalation, and a power supply device to supply power to the atomising device; the power supply device comprises a receiving cavity, and the atomization device is removably received in the receiving cavity; the atomization device is provided with a first electrode, and the power supply device is provided with a second electrode; when the atomization device is received in the receiving cavity, the second electrode and the first electrode form conductive connection, so that the power supply device supplies power to the atomization device; characterized in that the aerosol-generating system further comprises: a holding element configurable between a first position and a second position different from the first position; wherein the retaining element, when in the first position, locks the aerosolization device received within the receiving cavity to prevent removal of the aerosolization device from the receiving cavity; the holding member releases the locking of the atomizing device when in the second position.

In a more preferred implementation, the power supply device further comprises: an outer housing at least partially defining the receiving cavity; the retaining element is positioned within the outer housing and is configured to move within the outer housing, thereby changing the configuration between the first and second positions.

In a more preferred implementation, the power supply device further comprises: the operating element is at least partially exposed on the surface of the outer shell and is configured to drive the holding element to move in the outer shell so as to be configured from the first position to the second position.

In a more preferred implementation, inside the outer casing: a bracket at least partially abutting the retaining element to provide support to the retaining element.

In a further preferred embodiment, the holder is provided with a guide structure, and the holding element is moved within the outer housing at least partially under the guidance of the guide structure.

In a more preferred implementation, the holding element is configured to at least partially surround the stent in a circumferential direction of the stent.

In a more preferred implementation, the cradle at least partially defines the receiving cavity.

In a more preferred implementation, the power supply device further includes a battery cell for supplying power;

the second electrode is positioned on the support and at least partially exposed to the receiving cavity.

In a more preferred implementation, the second electrode is configured to be elastic; the atomizing device at least partially compresses the second electrode when received within the receiving cavity; during removal of the aerosolizing device from within the receiving cavity, the second electrode is further configured to at least partially provide a resilient pushing force applied to the aerosolizing device to facilitate the removal.

In a more preferred implementation, the bracket is provided with a concave cavity close to the receiving cavity; the second electrode is positioned at least partially within the cavity.

In a more preferred implementation, the first electrode is at least partially convex with respect to the aerosolizing device and is configured to protrude into the recess to form an electrically conductive connection with the second electrode when the aerosolizing device is received in the receiving cavity.

In a more preferred implementation, the first electrode at least partially protrudes with respect to the atomizing device.

In a more preferred implementation, the atomization device is provided with a first connecting structure;

and the holding element is provided with a second connecting structure which is matched with the first connecting structure, and the second connecting structure is matched with the first connecting structure to lock the atomization device at the first position.

In a more preferred implementation, the first connection structure includes a card slot; the second connecting structure comprises a buckle matched with the clamping groove.

In a more preferred implementation, the catch includes at least a portion of an inclined surface that is obliquely disposed; the catch is brought into engagement with the catch at least partially under the guidance of the inclined surface of the catch.

In a more preferred implementation, the first connection structure comprises a groove extending at least partially in a circumferential direction of the atomization device; the second connection structure includes a snap projection extending into the recess in the first position.

In a more preferred implementation, the atomization device comprises: the groove is formed on the first electrode.

In a more preferred implementation, the power supply device further comprises: a biasing element configured to bias the retaining element toward the first position.

In a more preferred implementation, the biasing element comprises a spring.

In a more preferred implementation, the outer housing comprises a longitudinal direction and a transverse direction perpendicular to the longitudinal direction; the holding element is configured to be movable in the transverse direction between the first position and the second position.

An embodiment of the present invention further provides a power supply device for an aerosol-generating system, for supplying power to an atomizing device; comprises a receiving cavity, wherein the atomization device is removably received in the receiving cavity; the atomization device is provided with a first electrode, and the power supply device is provided with a second electrode; when the atomization device is received in the receiving cavity, the second electrode and the first electrode form conductive connection, so that the power supply device supplies power to the atomization device; the power supply device includes: a holding member that includes holding the atomizing device and is configurable between a first position and a second position different from the first position; wherein the retaining element, when in the first position, locks the aerosolization device received within the receiving cavity to prevent removal of the aerosolization device from the receiving cavity; the holding member releases the locking of the atomizing device when in the second position.

The aerosol generation system or the power supply device can be operated between connection maintaining and disconnection of the atomization device and the power supply device, so that the atomization device and the power supply device can be stably combined and are convenient to use, and the atomization device and the power supply device can be conveniently removed.

A further embodiment of the invention also provides an aerosol-generating system comprising an atomising device for atomising an aerosol-forming substrate to generate an aerosol, and a power supply device for supplying power to the atomising device; the power supply device includes: a power supply housing; an air inlet formed at least in part on the power supply housing and configured to allow, in use, external air to enter the aerosolization device; an airflow adjustment element positioned within the power supply housing and arranged to be movable relative to the power supply housing to adjust the size of the air intake to control the amount of outside air entering the air intake.

In a more preferred implementation, the power supply housing is provided with a through hole, and the through hole is matched with the airflow adjusting element to limit the air inlet; the airflow adjustment member is arranged to move relative to the power supply housing to vary the degree of overlap with the through-hole and thereby adjust the size of the air inlet.

In a more preferred implementation, the airflow adjustment element comprises: an operating portion extending at least partially from the through-hole to outside the power supply housing and configured to actuate the airflow regulating member through the operating portion to drive movement of the airflow regulating member.

In a more preferred implementation, the airflow adjustment member is arranged to be linearly movable relative to the power supply housing; alternatively, the airflow adjustment member is arranged to be rotationally movable relative to the power supply housing.

In a more preferred implementation, the power supply housing further comprises: a flexible damping element at least partially in abutment with the airflow adjustment element and configured to provide damping in movement of the airflow adjustment element.

In a more preferred implementation, the flexible element includes a receiving hole; the airflow adjustment member is at least partially received in the receiving hole and moves relative to the power supply housing in the receiving hole.

In a more preferred implementation, the power supply housing further comprises: a receiving chamber within which the aerosolization apparatus is removably received; a guide wall at least partially defining the receiving cavity and at least partially disposed at an incline for providing guidance when the atomizing device is received in the receiving cavity.

In a more preferred implementation, the power supply housing includes: a main housing having an insertion opening formed on a side wall; a face housing positioned outside the main housing and configured to extend at least partially from the insertion opening into the main housing forming the guide wall.

In a more preferred implementation, the airflow regulating member is positioned between the guide wall and the main housing.

In a more preferred implementation, the power supply housing further comprises: a receiving chamber within which the aerosolization apparatus is removably received; an air flow passage for providing an air flow path between the air inlet and the atomizing device when the atomizing device is received within the chamber.

In a more preferred implementation, the power supply housing further comprises: a sealing element arranged in an annular shape around the airflow passage and configured to seal a gap between the atomizing device and the power supply housing.

In a more preferred implementation, a battery cell for supplying power is arranged in the power supply shell; the air inlet is along the length direction of power casing avoids the electricity core.

An embodiment of the present invention further provides a power supply device for an aerosol-generating system, for supplying power to an atomizing device; the power supply device includes: a power supply housing; an air inlet provided on the power supply housing and configured to allow, in use, external air to enter the aerosol-generating system; an airflow adjustment element positioned within the power supply housing and arranged to be movable relative to the power supply housing to adjust the size of the air intake to control the amount of outside air entering the air intake.

In the aerosol-generating system and the power supply device, the power supply device is provided with the air inlet for allowing the external air to enter the aerosol-generating system in the suction process, and the size of the air inlet is adjusted through the movable air flow adjusting element so as to control the air quantity of the external air entering the air inlet.

Drawings

One or more embodiments are illustrated by way of example in the accompanying drawings, which correspond to the figures in which like reference numerals refer to similar elements and which are not to scale unless otherwise specified.

Fig. 1 is a schematic structural diagram of a conventional classic electronic cigarette;

fig. 2 is a schematic diagram of an aerosol-generating system according to an embodiment of the present invention;

FIG. 3 is a schematic view of the atomizer device of FIG. 2 shown removed from the power supply device;

FIG. 4 is a schematic diagram of the atomization device of FIG. 3 from another perspective;

FIG. 5 is a schematic cross-sectional view of the atomizing device of FIG. 3 from a perspective;

FIG. 6 is a schematic cross-sectional view of a perspective of the power supply apparatus of FIG. 3;

FIG. 7 is an exploded view of the power supply apparatus of FIG. 6 from one perspective;

FIG. 8 is a schematic view of the power supply unit of FIG. 7 connected to the atomizing unit;

FIG. 9 is an exploded view of the coupling mechanism of FIG. 7;

fig. 10 is an exploded view of the power supply housing of fig. 6.

Detailed Description

In order to facilitate understanding of the present invention, the present invention will be described in more detail with reference to the accompanying drawings and embodiments.

An embodiment of the present invention provides an aerosol-generating system product of the type for heating and atomizing a liquid substrate. As exemplified by the configuration shown in fig. 2 in one embodiment, the aerosol-generating system may generate an aerosol for inhalation by thermal atomization of an internally stored liquid substrate.

Further on the functional composition of the aerosol-generating system, reference may be made to the exploded schematic view shown in fig. 3, comprising an atomizing device 100 for atomizing a liquid substrate to generate an aerosol for inhalation, and a power supply device 200 for powering the atomizing device 100. Of course, the atomizer 100 and the power supply device 200 are removably coupled. In particular, the method comprises the steps of,

the atomizing device 100 includes:

the housing of the atomizing device, in the preferred embodiment shown in fig. 3, is formed by two parts, a first housing 10 and a second housing 20, which can be coupled to and uncoupled from each other in the longitudinal direction.

And a suction nozzle 30 formed on the atomizer housing and at least partially protruding from the atomizer housing. Of course, in the preferred design shown in FIG. 3, the mouthpiece 30 is cylindrical in shape to facilitate the sucking action of the user; it can of course be seen from fig. 3 that the suction nozzle 30 is substantially in the shape of a truncated cone with a gradually decreasing outer diameter. Meanwhile, the suction nozzle 30 has a suction port a for suction according to common knowledge.

In a preferred embodiment, at least a portion of the housing of the atomizing device, such as the first housing 10, is a transparent member made of a transparent material, such that at least a portion of the liquid medium or the airflow path therein is visible during use, thereby facilitating a user to view the liquid medium inventory or operation at a proper time.

Further in fig. 4, one side wall 14 of the atomizer housing in the width direction is provided with a first air inlet 21 for allowing external air to enter during suction, which external air enters into the atomizer 100 through the first air inlet 21 as shown by an arrow R1 in the drawing, and carries aerosol formed inside the atomizer 100 to be output from the suction opening a of the suction nozzle 30. Of course, according to the preferred embodiment of fig. 4, the first air inlet 21 is located on the second housing 20.

The power supply device 200 includes:

the power supply housing, in the preferred embodiment shown in fig. 3, is formed by the main housing 210 and the face housing 220 formed on one side in the thickness direction of the main housing 210.

A receiving chamber 230 formed to be open near an upper end of the power supply housing in a length direction in fig. 3, for receiving at least a portion of the atomizing device 100;

a window 221, such as the main housing 210 or the face housing 220, is formed in the power supply housing, and is used to allow a transparent portion of the housing of the aerosolization device to be visible through the window 221 when the aerosolization device 100 is received in the receiving chamber 230, thereby facilitating a user to view the usage.

Further to complete the implementation details of the atomizing device 100, fig. 4 and 5 show schematic diagrams of the detailed construction of the atomizing device 100 proposed by a preferred embodiment; the method comprises the following steps:

a flue gas transmission pipe 11 arranged along the axial direction of the first shell 10, the upper end of which is in air flow communication with the suction nozzle 30;

a liquid storage chamber 12, which is generally defined by the space between the flue gas conveying pipe 11 and the inner wall of the first shell 10, and is used for storing liquid matrix;

a porous body 40, which is hollow and columnar in fig. 5, is arranged coaxially with the flue gas conveying pipe 11, is close to the lower end of the flue gas conveying pipe 11, and is at least partially surrounded by the flue gas conveying pipe 11;

a heating element 50 formed inside the porous body 40; in use, the liquid substrate, as indicated by the arrow R2 in fig. 5, is absorbed by the outer surface of the porous body 40 in the radial direction, and then transported by capillary channels inside the porous body 40 to the inner surface, and heated and atomized by the heating element 50 to form the aerosol.

An intake pipe 60 forming an air flow passage flowing from the first intake port 21 to the hollow inside of the porous body 40; of course, as shown in fig. 5, the sidewall of the air inlet tube 60 is opened with a first through hole 61, and further, the first through hole 61 is in air flow communication with the first air inlet 21.

In use, referring to fig. 5, the complete airflow path is that the external air enters the atomizing device 100 through the first air inlet 21, enters the air inlet pipe 60 through the first through hole 61, passes through the hollow interior of the porous body 40, carries the generated aerosol, and is output to the suction opening a through the smoke transmission pipe 11 to be sucked.

With further reference to fig. 4 and 5, a first electrode 31 and a second electrode 32 are disposed at the bottom end of the second housing 20 of the atomizing device 100. In use, the first electrode 31 is electrically connected to one end of the heating element 50 and the second electrode 32 is connected to the other end of the heating element 50 for use in powering the heating element 50 after being used in conjunction with the power supply device 200.

In the preferred embodiment shown in fig. 4, the first electrode 31 has a cylindrical shape, and the second electrode 32 has an annular shape surrounding the first electrode 32; of course, an annular insulating silicone ring 33 is disposed between the first electrode 31 and the second electrode 32 to insulate the first electrode 31 from the second electrode 32.

Further as shown in fig. 4 and 5, the first electrode 31 and the second electrode 32 are respectively arranged on the upper side and the lower side of the housing of the atomizing device together with the suction nozzle 30, and the electrodes are coaxially opposite to the suction nozzle 30 in the length direction; while the first electrode 31 and the second electrode 32 are at least partly protruding at the bottom end of the housing of the atomizing device.

Meanwhile, a groove 321 circumferentially surrounding the second electrode 32 is provided on an outer side wall of the second electrode 32 for connection and retention with the power supply device 200.

In yet another alternative embodiment, the first electrode 31 and the second electrode 32 are of a fixed integral and protruding design, which facilitates the removal or replacement of the atomizing assembly comprising the porous body 40 and the heating element 50. Specifically, the porous body 40 and the heating element 50 are supported by the first electrode 31 and the second electrode 32 and held or fixed in the atomization device 100. Meanwhile, the first electrode 31 and the second electrode 32 are removable or detachable from each other along the length direction; of course, in operation the user can act as a location for the force by means of the recess 321 of the second electrode 32. The atomizing assembly including the porous body 40 and the heating element 50 may be removed from the atomizing device 100 along with the removal or detachment of the first electrode 31 and the second electrode 32 during the removal process, thereby facilitating the removal and replacement.

As shown in fig. 3 and 4, the atomizer 100 further includes a locking slot 22 disposed at the bottom of the housing of the atomizer, and the locking slot 22 is used to form a fixed connection when the atomizer 100 is combined with the power supply device 200. Of course, according to the preferred embodiment shown in fig. 4, the number of the catching grooves 22 is two, and both sides in the thickness direction of the atomizing device 100 are oppositely disposed.

With respect to the structure of the power supply device 200, see fig. 6 and 7; comprises the following steps:

in order to facilitate the receiving operation of the atomization device 100 in the receiving chamber 230, a guide wall 231 is disposed in the receiving chamber 230 and is inclined along the length direction, and the side wall 14 of the atomization device 100 is also inclined to match with the guide wall 231, so that when the atomization device 100 is received in the receiving chamber 230 along the length direction, the operation guide can be provided in cooperation with each other.

The bracket 262, which is made of rigid plastic material in practice, extends along the cross-sectional direction of the power supply housing, so as to divide the internal space of the power supply housing into two parts, i.e., the receiving cavity 230 located above and the installation space located below for installing the battery cell 261 for supplying power.

The first conductive elastic pin 263 and the second conductive elastic pin 264 penetrate through the bracket 262 from the lower part of the bracket 262 to the receiving cavity 230; for conducting an electrical current between the core 261 and the electrodes (i.e., the first electrode 31 and the second electrode 32) of the atomizing device 100. In particular, the method comprises the steps of,

the number of the first conductive pogo pins 263 is one, and is substantially located at the central axis of the receiving cavity 230;

the second conductive pogo pins 264 are two in number, and are disposed on both sides of the first conductive pogo pins 264 in the thickness direction of the power supply device 200 in a straight line.

In use, the first conductive pogo pin 263 abuts against the first electrode 31 of the atomizer 100 to form electrical conduction, and the second conductive pogo pin 264 abuts against the second electrode 32 of the atomizer to form electrical conduction. And the number of the second conductive pogo pins 264 is two, the stability of abutting or contacting with the second electrode 32 can be maintained.

As further shown in fig. 9, to facilitate the above conductive contact and to be more stable, the holder 262 is provided with a substantially circular recess 2621, and the first electrode 31 and the second electrode 32 of the atomizer device 100 are inserted into the recess 2621 when combined.

Of course, the first conductive pogo pin 263 and the second conductive pogo pin 264 penetrate into the cavity 2621, so that when the first electrode 31 and the second electrode 32 of the atomizer 100 extend into the cavity 2621, electrical conduction is formed.

As further shown in fig. 7 to 9, in order to stably maintain the connection with the power supply device 200 and form a lock when the atomization device 100 is received in the receiving chamber 230; a holding member 270 is also provided in the power supply device 200; the holding member 270 is driven to move in the width direction by the operation button 240 located at one side portion in the width direction of the power supply device 200. Wherein locking may mean that the aerosolization apparatus 100 is fixed or restrained, at least not freely movable and thus not removable from within the receiving chamber 230, when received in the receiving chamber 230.

The overall shape of the particular retaining element 270 is generally a C-shape that at least partially circumferentially surrounds the brace 262. The retaining member 270 is at least partially supported by the bracket 262 upon installation and is thus installed within the power supply apparatus 200. Meanwhile, the bracket 262 is further provided with a guide structure for providing a guide during the movement of the holding member 270 so that it can be stably moved in the width direction relative to the bracket 262 under the guide.

Meanwhile, the holding element 270 is provided with a catch 271 for cooperating with the catch 22 of the atomizing device 100 to form a snap connection when the atomizing device 100 is received in the receiving chamber 230, as shown in fig. 8. Of course, in the preferred embodiment shown in fig. 7-9, at least a portion of the surface of the top of the catch 271 is a sloped surface to provide a sloped guide for the opening of the catch 22 when the atomization device 100 is combined lengthwise.

When the atomization device 100 and the power supply device 200 need to be disengaged, the operation button 240 is pressed to drive the holding element 270 to move leftward in the width direction indicated by the arrow R3 in fig. 8, and the atomization device 100 can be removed in the length direction after the buckle 271 is disengaged from the card slot 22. In other alternative implementations, as the operating means for driving the holding member 270 to move and thus unlock the atomization device 100, other operating members actuated by sliding, rotating, or the like may be used instead of the above operating button 240.

In a more preferred embodiment, after the latch 271 is disengaged from the slot 22, a device for providing a pushing force to the atomizer 100 is disposed in the power supply device 200 to assist the atomizer 100 to move out in the length direction. In this embodiment, the pushing force is preferably provided by the elastic force of the first conductive pogo pin 263 and the second conductive pogo pin 264; specifically, when the atomizer 100 is engaged with the power supply device 200 to form electrical conduction, the first conductive pogo pin 263 and the second conductive pogo pin 264 are at least partially compressed, and when the latch 271 is disengaged from the slot 22, the elastic restoring force of the first conductive pogo pin 263 and the second conductive pogo pin 264 acts as an outward pushing force to push the atomizer 100 for a certain stroke displacement so that at least a portion of the atomizer is ejected out of the receiving cavity 230, thereby facilitating the removal operation by the user. Or other variations, a spring or like element may be used alone to provide a similar pushing force to facilitate the removal operation.

Alternatively, in other variant implementations, the first conductive latch 263 and the second conductive latch 264 may be replaced by elastic electric contacts or elastic electric terminals, which are used as electrodes for outputting electric energy from the power supply device 200 and promote the removal of the atomization device 100 from the receiving cavity 230 by elastically forming a pushing force.

Referring to the preferred embodiment shown in fig. 9, to provide stability in mounting the retaining member 270 within the power supply apparatus 200, a biasing member is provided within the power supply apparatus 200, which in fig. 9 is a linear spring 280 extending in the width direction, the linear spring 280 having one end abutting against the bracket 262 and the other end abutting against the retaining member 270. The linear spring 280 provides damping in the movement of the holding element 270 on the one hand; on the other hand, when the latch 271 is engaged with the slot 22, the elastic force opposite to the arrow R3 in fig. 8 is provided to make the latch 271 have a tendency of moving rightward, so as to prevent it from moving leftward in the direction of the arrow R3 to release the engagement. Alternatively, in other embodiments, the biasing function of the biasing element may be provided by a device having an elastic return function, such as a magnet, a torsion spring, or a silicon rubber.

As further shown in fig. 9, the guide structure of the holder 262 to the holding element 270 is embodied with a plurality of portions. For example, in fig. 9 the holder 262 has a partially convex guide surface 2623, against which the holding element 270 is moved on the one hand, and which guide surface 2623, after assembly, projects into a recess on both sides of the holding element 270 in the thickness direction. For another example, a notch 2622 is provided in the wall of holder 262 defining cavity 2621, and retaining element 270 is provided with a protrusion 272 extending toward notch 2622; in practice, the protrusion 272 extends at least partially into the notch 2622 to prevent deflection in other directions during movement of the retaining element 270, and also at least partially provides guidance.

Of course, in order to facilitate the installation of the linear spring 280, the holding member 270 is provided with a receiving hole 273 therein, and the linear spring 280 is received and held in the receiving hole 273.

Meanwhile, the operation button 240 is provided with a coupling structure, such as a snap projection 241 shown in fig. 9, to which the holding member 270 is fixedly coupled.

Or in yet another alternative implementation, may be locked or unlocked using a circumferentially extending groove 321 provided on the outside wall of the second electrode 32. In particular, the method comprises the steps of,

the length of the protrusion 272 of the holding member 270 may be longer, and thus when the atomization device 100 is received in the receiving chamber 230, the protrusion 272 may extend into the groove 321, and the atomization device 100 may be prevented from moving in the length direction to achieve fixation; when the user needs to remove the container, the linear spring 280 is driven or operated by the operating button 24, the holding element 270 is driven to move outwards by the elastic force of the linear spring 280, and the protrusion 272 is disengaged from the groove 321, so that the locking of the atomization device 100 is released.

The holding element 270 in the power supply device 200 is driven to move by the operation button 240, so that the operation can be performed between the engagement and disengagement of the atomization device 100 and the power supply device 200, and the atomization device 100 and the power supply device 200 can be stably combined and conveniently used, and the atomization device 100 and the power supply device 200 can be conveniently removed.

In a variation of the above preferred embodiment, the holding member 270 may also be provided on the atomizing device 100, and the operation member corresponding to the operation button 240 and the like is also formed on the atomizing device 100; at least a portion of the operation member such as the operation button 240 is exposed to the outside for operation when the atomizer 100 is received in the receiving chamber 230. Meanwhile, a structure of fitting locking of the fitting holding member 270 is provided in the power supply device 200, and fitting forms locking.

Further during the suction process, as shown in fig. 7 to 10, the airflow path of the power supply device 200 is configured to include:

the main housing 210 is provided with a second through hole 224, and the second through hole 224 is used as a second air inlet 224 for allowing external air to enter the power supply device 200; of course, the second air inlet 224 is in air flow communication with the first air inlet 21 when the atomizing device 100 is received within the power supply device 200.

The second air inlet 224, in the preferred embodiment shown in fig. 7, is arranged in an elongated shape extending along the length of the power supply housing, generally in the shape of a kidney.

Of course, in a preferred embodiment, the second air inlet 224 and the first air inlet 21 are substantially aligned when the atomizing device 100 is received in the power supply device 200.

An air flow regulating member 250, the air flow regulating member 250 being movable along a length direction of the power supply device 200, and further being movable between a position of fully opening the second through-hole 224 (for example, a state shown in fig. 8) and a position of fully closing the second through-hole 224 (for example, a state shown in fig. 3); and the portion of the airflow adjusting member 250 other than the overlap with the second through-hole 224 during the movement forms the above second air inlet 224, and the size of the formed second air inlet 224 is varied by the difference in the degree or area of the overlap with the second through-hole 224 during the movement to adjust or change the amount of airflow or the airflow rate during the suction.

According to the preferred implementation shown in the figures, the second through hole 224 or the second air inlet 224 defined or formed by the second through hole 224 is near the upper end of the main housing 210. The second through hole 224 or the second air inlet 224 is opposite to the receiving cavity 230, or avoids the battery cell 261 along the length direction of the power supply device 200.

Of course, the movement of the airflow adjusting member 250 is also changed between the state of fully opening the first intake port 21 and the state of fully closing the first intake port 21.

In addition to the preferred embodiment shown in the above figures, the second through hole 224 may be configured as a kidney-shaped hole extending along the circumferential direction of the main housing 210, and the corresponding air flow adjusting member 250 may be disposed by rotating around the circumferential direction of the main housing 210.

Further, to assist the operation of the airflow adjustment member 250, the airflow adjustment member 250 includes a contact 251 for facilitating a user's touch operation, the contact 251 is exposed at least partially through the second air inlet 224 to the outside of the power supply apparatus 200, and the user can drive the airflow adjustment member 250 to move along the length direction through the contact 251 to change the amount of airflow or the airflow speed.

In order to ensure the smooth movement of the airflow adjusting element 250 and the stop and hold at any position, in the preferred embodiment shown in fig. 7 and 8, the power supply device 200 further includes a flexible damping element 252, and the flexible damping element 252 is made of flexible silicone. On the one hand, the airflow adjusting element 250 is attached to or contacts the surface of the flexible damping element 252, so that the flexible damping element 252 can provide damping during movement; and the airflow adjusting member 250 is stably maintained in a stopped state when the movement thereof is stopped by the frictional force of the contact of the flexible material. On the other hand, the flexible damper element 252 is shaped substantially in the form of a ring extending in the longitudinal direction, and a receiving hole for receiving, restricting, and guiding the movement locus of the airflow adjustment element 250 is formed in the interior thereof; so that the airflow adjustment member 250 cannot deviate or deviate from the direction and trajectory of the movement.

Further in the preferred embodiment shown in fig. 10, the airflow adjustment member 250 is mounted and fixed in the gap between the main housing 210 and the face housing 220, thereby facilitating the fixation thereof. In particular, the method comprises the steps of,

an insertion port 211 is formed on one side of the main housing 210 in the thickness direction, and a guide wall 231 for guiding the atomization device 100 to be mounted and combined in the receiving chamber 230 is formed by extending the face housing 220 in the thickness direction; during the assembly of the main housing 210 and the face housing 220, the guide wall 231 may be inserted or protruded from the insertion opening 211 into the main housing 210 in a direction indicated by an arrow R5 in fig. 10 to be fixed.

A certain gap is reserved or maintained between the sidewalls of the main housing 210 corresponding to the guide wall 231, and the airflow adjustment member 250 is installed and fixed in the above-mentioned gap between the main housing 210 and the front housing 220.

In a further preferred embodiment shown in fig. 10, the guide wall 231 is provided with an airflow channel 222 for communicating the second air inlet 224 with the first air inlet 21, so that the second air inlet 224 is in airflow communication with the first air inlet 21.

Further to ensure that when the atomizer device 100 is received in the power supply device 200, air can only pass through the second air inlet hole 224, the air flow channel 222 and the first air inlet 21 in order to enter the atomizer device 100, the power supply device 200 is provided with a sealing element 223 which is annular and surrounds the air flow channel 222 and/or the first air inlet 21 for sealing the gap between the air flow channel 222 and the first air inlet 21, thereby ensuring the realization of the above-mentioned air flow path.

To facilitate the assembly of the sealing member 223, the guide wall 231 is provided with a mounting groove 225 for receiving and holding the sealing member 223.

It should be noted that the preferred embodiments of the present invention are shown in the specification and the drawings, but not limited to the embodiments described in the specification, and further, it will be apparent to those skilled in the art that modifications and variations can be made in the above description and all such modifications and variations should fall within the scope of the appended claims.

Claims (13)

1. An aerosol-generating system comprising an atomising device for atomising an aerosol-forming substrate to generate an aerosol, and power supply means for powering the atomising device; characterized in that the power supply device comprises:

a power supply housing;

an air inlet formed at least in part on the power supply housing and configured to allow, in use, external air to enter the aerosolization device;

an airflow adjustment element positioned within the power supply housing and arranged to be movable relative to the power supply housing to adjust the size of the air intake to control the amount of outside air entering the air intake.

2. An aerosol-generating system according to claim 1, wherein the power supply housing is provided with a through-hole and the through-hole cooperates with the airflow regulating member to define the air inlet; the airflow adjustment member is arranged to move relative to the power supply housing to vary the degree of overlap with the through-hole and thereby adjust the size of the air inlet.

3. An aerosol-generating system according to claim 2, wherein the airflow regulating element comprises:

an operating portion extending at least partially from the through-hole to outside the power supply housing and configured to actuate the airflow regulating member through the operating portion to drive movement of the airflow regulating member.

4. An aerosol-generating system according to any of claims 1 to 3, wherein the airflow regulating element is arranged to be linearly movable relative to the power supply housing;

alternatively, the airflow adjustment member is arranged to be rotationally movable relative to the power supply housing.

5. An aerosol-generating system according to any of claims 1 to 3, wherein the power supply housing further comprises:

a flexible damping element at least partially in abutment with the airflow adjustment element and configured to provide damping in movement of the airflow adjustment element.

6. An aerosol-generating system according to claim 5, wherein the flexible damping element comprises a receiving hole; the airflow adjustment member is at least partially received in the receiving hole and moves relative to the power supply housing in the receiving hole.

7. An aerosol-generating system according to any one of claims 1 to 3, wherein the power supply housing further comprises:

a receiving chamber within which the aerosolization apparatus is removably received;

a guide wall at least partially defining the receiving cavity and at least partially disposed at an incline for providing guidance when the atomizing device is received in the receiving cavity.

8. An aerosol-generating system according to claim 7, wherein the power supply housing comprises:

a main housing having an insertion opening formed on a side wall;

a face housing positioned outside the main housing and configured to extend at least partially from the insertion opening into the main housing forming the guide wall.

9. An aerosol-generating system according to claim 8, wherein the airflow regulating element is positioned between the guide wall and the main housing.

10. An aerosol-generating system according to any one of claims 1 to 3, wherein the power supply housing further comprises:

a receiving chamber within which the aerosolization apparatus is removably received;

an air flow passage for providing an air flow path between the air inlet and the atomizing device when the atomizing device is received within the chamber.

11. An aerosol-generating system according to claim 10, wherein the power supply housing further comprises:

a sealing element arranged in an annular shape around the airflow passage and configured to seal a gap between the atomizing device and the power supply housing.

12. An aerosol-generating system according to claim 10, wherein a cell for supplying power is provided within the power supply housing;

the air inlet is along the length direction of power casing avoids the electricity core.

13. A power supply arrangement for an aerosol-generating system for supplying power to an atomising device; characterized in that the power supply device comprises:

a power supply housing;

an air inlet provided on the power supply housing and configured to allow, in use, external air to enter the aerosol-generating system;

an airflow adjustment element positioned within the power supply housing and arranged to be movable relative to the power supply housing to adjust the size of the air intake to control the amount of outside air entering the air intake.

Images