FIELD OF THE INVENTION
The present invention relates to a direct-feeding liquid-passing heat-generating atomization device, an atomization assembly, and an electronic atomization apparatus.
DESCRIPTION OF THE RELATED ART
Arranging a gas channel on a lateral side of a ceramic makes a side-feeding ceramic. A portion of the side-feeding ceramic that is arranged to abut an internal wall of a central tube functions to conduct a liquid, such as Patent Application No. 2022109812767. The liquid-conducting projection that is set to abut the internal wall of the central tube is provided with a liquid path zone, and the liquid path zone functions to conduct the liquid. In other words, the ceramic is allowed to directly carry out linear liquid conduction. Although, under this condition, the ceramic can speed up the transfer rate of the atomizable liquid, the transfer of the atomizable liquid on the ceramic still takes time. For a demand of a relatively high amount of generation of aerosol, meaning a large power atomization structure, the liquid-conducting projection still suffers issues of core burning resulting from insufficiency of liquid supplied through conduction, leading to a poor effect of atomization.
SUMMARY OF THE INVENTION
In view of the above, it is desired to provide a direct-feeding liquid-passing heat-generating atomization device, an atomization assembly, and an electronic atomization apparatus that provide a high liquid conduction efficiency to effectively reduce the issues of core burning and provide better universal applicability.
A direct-feeding liquid-passing heat-generating atomization device comprises a ceramic body and a heating member, wherein an atomization surface is arranged on an outside wall of the ceramic body, and the heating member is arranged on the atomization surface, the atomization surface surrounding and defining, in combination with an internal wall of a central tube, a gas passage channel, the ceramic body comprising a ceramic liquid-absorption core and at least one structure supporting portion, the structure supporting portion being fixed to the ceramic liquid-absorption core, the atomization surface being arranged on the ceramic liquid-absorption core; and
- the structure supporting portion is formed with a liquid passage channel, one end of the liquid passage channel being in communication with the external liquid, another end of the liquid passage channel being in communication with the ceramic liquid-absorption core.
An atomization assembly comprises an atomization base, a central tube, and the direct-feeding liquid-passing heat-generating atomization device described in any of the above embodiments, wherein the atomization base is connected to the ceramic liquid-absorption core and/or the structure supporting portion, and the atomization base is connected to the central tube, and the central tube is formed with the liquid passage hole, and the structure supporting portion is arranged at site of the liquid passage hole and is connected to the central tube, and the atomization surface of the ceramic liquid-absorption core encloses, with respect to an internal wall of the central tube, and defines the gas passage channel, one end of the liquid passage channel being in communication with the liquid passage hole.
An electronic atomization apparatus comprises a liquid cup and the atomization assembly described in any of the above embodiments, wherein the liquid cup is formed with a liquid chamber, and the liquid cup is connected to the structure supporting portion, and the liquid passage channel is in communication with the liquid chamber, and the liquid cup is connected to the atomization base.
Details of one or multiple embodiments of the present invention will be introduced in the following drawing and description. Other features, objectives, and advantages of the present invention will become apparent from the disclosure, the drawings, and the claims.
BRIEF DESCRIPTION OF THE DRAWINGS
To more clearly expound the technical solution of embodiments of the present invention, as well as that of the prior art, a brief description will be provided below for the drawings that are necessary for the illustration of the embodiments of the present invention or that of the prior art. Obviously, the drawings described below show only some of the embodiments of the present invention, and those having ordinary skill in the art may envisage, based on the attached drawings, drawings of other embodiments without creative endeavor.
FIG. 1 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to an embodiment of the present invention;
FIG. 2 is a cross-sectional view of the direct-feeding liquid-passing heat-generating atomization device shown in FIG. 1;
FIG. 3 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to another embodiment of the present invention;
FIG. 4 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to a further embodiment of the present invention;
FIG. 5 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to a further embodiment of the present invention;
FIG. 6 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to a further embodiment of the present Invention;
FIG. 7 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to a further embodiment of the present invention;
FIG. 8 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to a further embodiment of the present invention;
FIG. 9 is a cross-sectional view of the direct-feeding liquid-passing heat-generating atomization device shown in FIG. 8;
FIG. 10 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to a further embodiment of the present Invention;
FIG. 11 is a perspective view showing a direct-feeding liquid-passing heat-generating atomization device according to a further embodiment of the present invention;
FIG. 12 is a perspective view of a portion of the direct-feeding liquid-passing heat-generating atomization device shown in FIG. 10;
FIG. 13 is a perspective view showing an atomization assembly according to an embodiment of the present invention;
FIG. 14 is a sectional view of a portion of the atomization assembly shown in FIG. 13;
FIG. 15 is another sectional perspective view of a portion of the atomization assembly shown in FIG. 13;
FIG. 16 is a perspective view of a portion of the atomization assembly shown in FIG. 13;
FIG. 17 is a perspective view showing an electronic atomization apparatus according to an embodiment of the present invention; and
FIG. 18 is a cross-sectional view of the electronic atomization apparatus shown in FIG. 17.
DETAILED DESCRIPTION OF PREFERRED EMBODIMENTS OF THE INVENTION
For better understanding of the present invention, the following provides a more comprehensive description of the present invention by taking reference to the attached drawings. However, the present invention can be embodied in various forms and is not limited to the embodiment described herein. On the contrary, the purpose of providing such embodiments is to allow the disclosed contents of the present invention to be understood in a more throughout manner.
It is noted that when an element is referred to as being “fixed” on another element, it can be directly arranged on said another element or there can be an intermediate therebetween. When an element is referred to as being “connected” to another element, it can be directly connected to said another element or there can be an intermediate element therebetween. The terms “vertical”, “horizontal”, “left”, and “right”, and similar expressions as used herein are only for the purpose of illustration and are not intended to define a sole way of embodying.
Unless otherwise defined, all the terminology and scientific terms used herein are of the same meaning as that commonly understood by the technicians of the art to which the invention belongs. The terminology used in the disclosure of the present invention is only adopted for the purposes of illustrating specific embodiments, and is not for limiting the present invention. The term “and/or” as used herein includes any and all combinations of one or more related items that are listed.
Referring jointly to FIGS. 1-2, a direct-feeding liquid-passing heat-generating atomization device 10 of an embodiment comprises a ceramic body 100 and a heating member 200. An atomization surface 101 is arranged on an outside wall of the ceramic body 100, and the heating member 200 is arranged on the atomization surface 101. The atomization surface 101 functions to surround and define, in combination with an internal wall of a central tube, a gas passage channel. The ceramic body 100 comprises a ceramic liquid-absorption core 110 and at least one structure supporting portion 120. The structure supporting portion 120 is fixed to the ceramic liquid-absorption core 110. The atomization surface 101 is arranged on the ceramic liquid-absorption core 110. Further, the structure supporting portion 120 is formed with a liquid passage channel 102. One end of the liquid passage channel 102 is in communication with external liquid, and another end of the liquid passage channel 102 is in communication with the ceramic liquid-absorption core 110.
The direct-feeding liquid-passing heat-generating atomization device 10 discussed above is such that the structure supporting portion 120 is fixed to the ceramic liquid-absorption core 110, and the atomization surface 101 is arranged on the ceramic liquid-absorption core 110, and the atomization surface 101 functions to collaborate with the internal wall of the central tube to surround and define the gas passage channel, and the structure supporting portion 120 is formed with the liquid passage channel 102, and one end of the liquid passage channel 102 is in communication with the external liquid and another end of the liquid passage channel 102 is in communication with the ceramic liquid-absorption core 110, so that the structure supporting portion 120 is made to serve as a structure that realizes communication between the ceramic liquid-absorption core 110 and the external liquid, and the external liquid is allowed to directly pass through the liquid passage channel 102 to reach the ceramic liquid-absorption core 110, thereby effectively reducing the time for transferring the external liquid in the structure supporting portion 120 to therefore better improve the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10, reducing the issue of core burning, and providing the direct-feeding liquid-passing heat-generating atomization device 10 with better universal applicability.
Referring jointly to FIGS. 1-2, in one embodiment, the ceramic liquid-absorption core 110 is formed with a liquid storage channel 103, and the liquid storage channel 103 is in communication with the liquid passage channel 102. It is appreciated that making the liquid storage channel 103 in communication with the liquid passage channel 102 allows the liquid entering the liquid passage channel 102 to directly pass through the liquid storage channel 103 to be stored, in an obstacle-free manner, in the ceramic liquid-absorption core 110, making the cigarette liquid closer to the heating member 200, thereby reducing a liquid transfer distance of the ceramic liquid-absorption core 110, making liquid feeding more sufficient and thus reducing the time for transferring the liquid in the ceramic liquid-absorption core 110 thereby further enhancing the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10, allowing the liquid to efficiently and directly transfer from the liquid storage channel 103 to the heating member 200 arranged on the atomization surface 101, greatly increasing the liquid supplementing efficiency, thereby further enhancing the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10, reducing the issue of core burning, and providing the direct-feeding liquid-passing heat-generating atomization device 10 with better universal applicability.
Referring jointly to FIGS. 1-2, in one embodiment, the ceramic body 100 comprises two structure supporting portions 120. The liquid storage channels 103 of the two structure supporting portions 120 are both is in communication with the liquid passage channel 102 to better enhance the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10, reducing the issue of core burning, and providing the direct-feeding liquid-passing heat-generating atomization device 10 with better universal applicability.
Referring jointly to FIGS. 1-2, in one embodiment, the two structure supporting portions 120 are arranged opposite to each other on two sides of the ceramic liquid-absorption core 110, and two ends of the liquid passage channel 102 are each in communication with an end of the liquid storage channel 103 of each of the two structure supporting portion 120 to better ensure the smoothness of the liquid entering the liquid storage channels 103 for the direct-feeding liquid-passing heat-generating atomization device 10 being positioned in a lying condition at different angles to thereby enhance the easiness and experience of using the liquid.
Referring jointly to FIGS. 6-7, in one embodiment, the liquid passage channel 102 comprises a blind hole structure 10B formed in the ceramic body 100. The blind hole structure 10B is arranged on the structure supporting portion 120. It is appreciated that in case that the liquid passage channel 102 is a blind hole structure 10B formed in the ceramic body 100, the blind hole structure 10B can be used to contain and hold a portion of the cigarette liquid when the direct-feeding liquid-passing heat-generating atomization device 10 is used in a lying condition to thereby allow the blind hole structure 10B to realize shortening of the transfer path of the cigarette liquid to further realize prevention of thy burning for the direct-feeding liquid-passing heat-generating atomization device 10 used in a lying condition to better suit the user's needs for operating the direct-feeding liquid-passing heat-generating atomization device 10 in a lying condition.
Referring jointly to FIGS. 6-7, in one embodiment, there are plural ones of the blind hole structure 10B used, and the plural blind hole structures 10B are arrayed, at intervals, on the structure supporting portion 120 to better realize increase of the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10 and to better suit the user's needs for operating the direct-feeding liquid-passing heat-generating atomization device 10 in a lying condition.
Referring jointly to FIGS. 3-5, in one embodiment, the liquid passage channel 102 comprises a through hole structure 10A formed in the ceramic body 100, and the through hole structure 10A is located on the structure supporting portion 120. It is appreciated that in case that the liquid passage channel 102 is a through hole structure 10A formed in the ceramic body 100, the liquid entering the liquid passage channel 102 can be stored, in a direct and obstacle-free manner, in the ceramic liquid-absorption core 110 to greatly reduce the transfer time of the liquid in the ceramic liquid-absorption core 110 to further increase the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10 so as to have the liquid transfer efficiently and directly from the liquid storage channel 103 to the heating member 200 arranged on the atomization surface 101 to greatly enhance the liquid supplementing efficiency to thereby further increase the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10, reducing the issue of core burning, and providing the direct-feeding liquid-passing heat-generating atomization device 10 with better universal applicability.
Referring jointly to FIGS. 3-5, in one embodiment, there are plural ones of the through hole structure 10A used, and the plural through hole structures 10A are arrayed, at intervals, on the structure supporting portion 120 to better realize increase of the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10.
Referring jointly to FIGS. 8-10, in one embodiment, the liquid passage channel 102 comprises a blind hole structure 10B and a through hole structure 10A that are both formed in the ceramic body 100, and the blind hole structure 10B and the through hole structure 10A are arranged, at intervals, on the structure supporting portion 120. It is appreciated that the blind hole structure 10B and the through hole structure 10A can both effectively reduce the transfer path of the cigarette liquid and can better realize increase of the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10, reducing the issue of core burning, and the blind hole structure 10B can contain and hold a portion of the cigarette liquid when the direct-feeding liquid-passing heat-generating atomization device 10 is used in a lying condition, and the through hole structure 10A allows the liquid entering the liquid passage channel 102 to store, in a direct and Obstacle-free manner, in the ceramic liquid-absorption core 110, and therefore, using the blind hole structure 10B and the through hole structure 10A in a manner of being arranged at intervals can better satisfy the user's demand for liquid transfer efficiency and suit user's needs for operating the direct-feeding liquid-passing heat-generating atomization device 10 in a lying condition, and also, ensures the structural strength of the ceramic body 100 while better increasing the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10.
Referring jointly to FIGS. 8-10, in one embodiment, there are plural ones of each of the blind hole structure 10B and the through hole structure 10A used, and the plural blind hole structures 10B and the plural through hole structures 10A are arrayed, at intervals, on the structure supporting portion 120 to better satisfy the user's demand for liquid transfer efficiency and suit user's needs for operating the direct-feeding liquid-passing heat-generating atomization device 10 in a lying condition, and to also increase the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10 to reduce the issue of core burning, while ensure the structural strength of the ceramic body 100.
Referring jointly to FIGS. 1, 3, 6, 7 and 11, in one embodiment, the heating member 200 comprises a heat generation plate 210 and lead pins 220. The heat generation plate 210 and the lead pins 220 are both arranged on the atomization surface 101 and are both connoted to the outside wall of the ceramic body 100 to better match with the blind hole structure 10B and the through hole structure 10A to achieve full atomization of the liquid.
Referring jointly to FIGS. 11 and 12, in one embodiment, each of two opposite outside walls of the ceramic body 100 is provided with the atomization surface 101. Further, the heat generation plate 210 comprises a first heating plate 211, a transition portion 212, and a second heating plate 213. The first heating plate 211 is connected through the transition portion 212 to the second heating plate 213. The transition portion 212 is connected to the ceramic liquid-absorption core 110. The first heating plate 211 and the second heating plate 213 are respectively arranged on the two atomization surfaces 101 of the ceramic body. It is appreciated that making the transition portion 212 connected to the ceramic liquid-absorption core 110 and the first heating plate 211 and the second heating plate 213 respectively arranged on the two atomization surfaces 101 of the ceramic body 100 make the first heating plate 211 and the second heating plate 213 arranged on the atomization surfaces 101 of the ceramic body 100 in a symmetric manner, wherein the first heating plate 211 and the second heating plate 213 are both connected to the ceramic liquid-absorption core 110 and the structure supporting portion 120, or the first heating plate 211 and the second heating plate 213 are both connected to the ceramic liquid-absorption core 110, to thereby make the first heating plate 211 and the second heating plate 213 better match with the blind hole structure 10B and/or the through hole structure IDA, and the first heating plate 211 and the second heating plate 213 do not require preheating, realizing full atomization of the liquid.
Referring jointly to FIGS. 11 and 12, in one embodiment, the transition portion 212 comprises a first positioning part 2121, a connecting part 2122, and a second positioning part 2123. The first positioning part 2121 is connected through the connecting part 2122 to the second positioning part 2123. The connecting part 2122 is connected to an end portion of the ceramic liquid-absorption core 110. The first positioning part 2121 is connected to the first heating plate 211, and the first positioning part 2121 is arranged on one of the atomization surfaces 101. The second positioning part 2123 is connected to the second heating plate 213, and the second positioning part 2123 is arranged on another one of the atomization surfaces 101. It is appreciated that by making the connecting part 2122 connected to the end portion of the ceramic liquid-absorption core 110, the first positioning part 2121 connected to the first heating plate 211, and the first positioning part 2121 arranged on one of the atomization surfaces 101, and the second positioning part 2123 connected to the second heating plate 213, and the second positioning part 2123 arranged on another one of the atomization surfaces 101, the transition portion 212 is set on three adjacent sides of the ceramic body 100 so as to have the transition portion 212 provide an effect of positioning the heating member on the ceramic body 100 to enhance assembly accuracy of the heating member 200 to thereby make the heating member 200 better match with the blind hole structure 10B and/or the through hole structure 10A to realize full atomization of the liquid.
Referring jointly to FIGS. 11 and 12, in one embodiment, the connecting part 2122 is embedded in the ceramic liquid-absorption core 110, and the connecting part 2122 is formed with a liquid penetration hole 201 to establish communication in the interior of the ceramic liquid-absorption core 110, helping the cigarette liquid to efficiently and fully permeate to store in every part of the ceramic body 100, thereby helping overall permeation of the ceramic body 100 and reducing the issue of core burning.
Referring jointly to FIGS. 11 and 12, in one embodiment, the heating member 200 further comprises at least one reinforcing member 230. The reinforcing member 230 is connected to the first heating plate 211 and/or the second heating plate 213. The reinforcing member 230 functions to have a connecting part between the first heating plate 211 and the reinforcing member 230 bent and inserted into the ceramic body 100; and/or, the reinforcing member functions to have a connecting part between the second heating plate 213 and the reinforcing member 230 bent and inserted into the ceramic liquid-absorption core 110. It is appreciated that providing the reinforcing member 230 to have the connecting part between the heat generation plate 210 and the reinforcing member 230 bent and inserted into the ceramic body 100 makes the reinforcing member 230 providing an effect of positioning during ceramic in-mold injection to enhance the accuracy of positioning of the heating member 200 in the ceramic body 100 to thereby make the heating member 200 better match with the blind hole structure 10B and the through hole structure 10A, realizing full atomization of the liquid. Further, the reinforcing member collaborates with the first positioning part 2121, the connecting part 2122, and the second positioning part 2123 of the transition portion 212 to further enhance the accuracy of positioning of the heating member 200 in the ceramic body 100 to thereby make the heating member 200 better match with the blind hole structure 10B and/or the through hole structure 10A, realizing full atomization of the liquid.
Referring jointly to FIGS. 11 and 12, in one embodiment, the first heating plate 211 comprises a soldering part 2111 and a wave-shaped heating filament part 2112. The soldering part 2111 is connected to the wave-shaped heating filament part 2112, and the soldering part 2111 is connected to the lead pins 220. The reinforcing member 230 is arranged to connect to a ridge and/or a trough of the wave-shaped heating filament part 2112, and the reinforcing member 230 is arranged to have a connecting part between the wave-shaped heating filament part 2112 and the reinforcing member 230 bent and inserted into the structure supporting portion 120 and/or the ceramic liquid-absorption core 110. It is appreciated that arranging the first heating plate 211 in the form of a heating filament to realize atomizing and heating of the liquid, electrical resistance is fixed and stability of atomization temperature can be ensured, but since the heating filament is readily deformed during shaping thereof, in order to ensure the structural stability of the heating filament, in the application, a primary heating part of the first heating plate 211 is made as the wave-shaped heating filament part 2112, and the reinforcing member 230 is arranged to connect to a ridge and/or a trough of the wave-shaped heating filament part 2112 to effectively enhance the structural strength of the wave-shaped heating filament part 2112 to thereby better ensure the structural stability of the first heating plate 211.
Referring jointly to FIGS. 11 and 12, in one embodiment, the soldering part 2111 is adjacent to one end of the lead pins 220 to be in alignment with one end of the ceramic liquid-absorption core 110 that is adjacent to the lead pins 220, so as to realize an effect of positioning of the heating member 200, enhancing the accuracy of the heating member 200 positioning in the ceramic body 100 to thereby make the heating member 200 better match with the blind hole structure 10B and the through hole structure 10A, realizing full atomization of the liquid. Further, the soldering part 2111 collaborate with the reinforcing member 230 and the first positioning part 2121, the connecting part 2122, and the second positioning part 2123 of the transition portion 212 to further enhance the accuracy of positioning the heating member 200 in the ceramic body 100 to thereby make the heating member 200 better match with the blind hole structure 10B and/or the through hole structure 10A, realizing full atomization of the liquid.
Referring jointly to FIGS. 11 and 12, in one embodiment, the lead pins 220 are arranged on the side of the heat generation plate 210 that is adjacent to the ceramic liquid-absorption core 110 to reduce abrasion to molds and the central tube and also to realize an effect of positioning of the heating member.
Reflecting jointly to FIGS. 1-10, in one embodiment, the ceramic body 100 further comprises a retaining engagement protrusion 130. The retaining engagement protrusion 130 is connected to an end of the ceramic liquid-absorption core 110 and/or an end of the structure supporting portion 120 to help fixing cotton enclosing an outside of the ceramic body 100.
Referring jointly to FIGS. 13-15, the application further provides an atomization assembly 10A. The atomization assembly 10A comprises an atomization base 20, a central tube 30, and the direct-feeding liquid-passing heat-generating atomization device 10 according to any one of the embodiments described above. The atomization base 20 is connected to the ceramic liquid-absorption core 110 and/or the structure supporting portion 120, and the atomization base 20 is connected to the central tube 30. The central tube 30 is formed with a liquid passage hole 301. The structure supporting portion 120 is arranged at the site of the liquid passage hole 301 and is connected to the central tube 30. The atomization surface 101 of the ceramic liquid-absorption core 110 encloses, with respect to an internal wall of the central tube 30, and defines the gas passage channel, One end of the liquid passage channel 102 is in communication with the liquid passage hole 301.
In the above-described atomization assembly 10A, the direct-feeding liquid-passing heat-generating atomization device 10 is adopted to effectively increase the transfer efficiency of the liquid, reducing the issue of core burning, better enhancing universal applicability of the atomization assembly 10A, and improving the use experience of the atomization assembly 10A.
Referring jointly to FIGS. 14-16, in one embodiment, the atomization assembly 10A further comprises a sealing cotton body 40. The sealing cotton body 40 is connected, at least partly, to an external wall of the ceramic liquid-absorption core 110 and an internal wall of the central tube 30 and is located at the site of the liquid passage hole 301, and the sealing cotton body 40 is formed with an atomization hollow zone 401 on the gas passage channel. The atomization hollow zone 401 allows the atomization surface 101 to be in direct communication with the gas passage channel. It is appreciated that the atomization surface 101 is arranged on the ceramic liquid-absorption core 110, and the heating member 200 is arranged on the atomization surface 101, and the atomization surface 101 in combination with the internal wall of the central tube 30 surround and define the gas passage channel, so as to realize side gas feeding of the ceramic body 100 and to allow the sealing cotton body 40 to at least partly connected to the external wall of the ceramic liquid-absorption core 110 and the internal wall of the central tube 30 and located at the site of the liquid passage hole 301, and the sealing cotton body 40 is formed with the atomization hollow zone 401 on the atomization surface, and the atomization hollow zone 401 functions to allow the atomization surface 101 to be in direct communication with the gas passage channel, so that when shaped, the sealing cotton body 40 is formed with the atomization hollow zone 401, and the atomization hollow zone 401 is arranged to correspond to the gas passage channel, making the sealing cotton body 40 not covered at the site of the atomization surface 101, so as to not only facilitate assembly of the sealing cotton body 40 and also achieve the sealing cotton body 40 assisting blocking the liquid passage hole 301, and also realize smooth output of aerosol generated on the atomization surface 101 to thereby enhance the assembly efficiency of the atomization assembly 10A and ensure the user's experience of the use.
Referring jointly to FIGS. 14-16, in one embodiment, the sealing cotton body 40 comprises an end-part attaching cotton 41 and a petal-like enclosing cotton 42. The end-part attaching cotton 41 is attached to an end of the ceramic liquid-absorption core 110 and/or the structure supporting portion 120, and the end-part attaching cotton 41 is arranged to face toward a gas exit channel of the central tube 30. One end of the petal-like enclosing cotton 42 is connected to the end-part attaching cotton 41, and the petal-like enclosing cotton 42 is connected to the external wall of the structure supporting portion 120 and the internal wall of the central tube 30, and the petal-like enclosing cotton 42 functions to cover the liquid passage hole 301. The petal-like enclosing cotton 42 is formed with the atomization hollow zone 401 on the atomization surface 101 to better realize the assembly stability of the sealing cotton body 40 on the ceramic body 100 and to better ensure a blocking effect that the sealing cotton body 40 assists blocking the liquid passage hole 301, and to effectively realize smooth output of the aerosol generated at the site of the atomization surface 101, and also, the sealing cotton body 40 functions to cover the liquid passage hole 301 to have the sealing cotton body 40 provide an effect of buffering and sealing to the liquid at the liquid passage hole 301.
Referring jointly to FIGS. 14-16, in one embodiment, the sealing cotton body 40 is further formed with a through aperture 402. The through aperture 402 is in alignment with the liquid passage hole 301 to reduce influence on the transfer of the liquid, while the liquid is sealed at the site of the liquid passage hole 301.
Referring jointly to FIGS. 17 and 18, the application further provides an electronic atomization apparatus 10B. The electronic atomization apparatus 10B comprises a liquid cup 40 and the atomization assembly 10A described in any of the above embodiments. The liquid cup 40 is formed with a liquid chamber 401A, The liquid cup 40 is connected to the structure supporting portion, and the liquid passage channel is in communication with the liquid chamber 401A, and the liquid cup 40 is connected to the atomization base 20.
In the above-described electronic atomization apparatus 10B, the atomization assembly 10A that includes the direct-feeding liquid-passing heat-generating atomization device is adopted to effectively increase the transfer efficiency of the liquid, reducing the issue of core burning, better enhancing universal applicability of the electronic atomization apparatus 10B, and improving the use experience of the electronic atomization apparatus 10B.
Compared to the known techniques, the present invention provides at least the following advantage:
- The direct-feeding liquid-passing heat-generating atomization device 10 according to the present invention is such that the structure supporting portion 120 and the ceramic liquid-absorption core 110 are fixed to each other, and the atomization surface 101 is arranged on the ceramic liquid-absorption core 110, and the structure supporting portion 120 is formed with the liquid passage channel 102, and one end of the liquid passage channel 102 is in communication with the external liquid and another end of the liquid passage channel 102 is in communication with the ceramic liquid-absorption core 110, so that the structure supporting portion 120 is made to serve as a structure that realizes communication between the ceramic liquid-absorption core 110 and the external liquid, and the external liquid is allowed to directly pass through the liquid passage channel 102 to reach the ceramic liquid-absorption core 110, thereby effectively reducing the time for transferring the external liquid in the structure supporting portion 120 to therefore better improve the liquid transfer efficiency of the direct-feeding liquid-passing heat-generating atomization device 10, reducing the issue of core burning, and providing the direct-feeding liquid-passing heat-generating atomization device 10 with better universal applicability.
All the features of the embodiments described above can be combined arbitrarily, and for simplicity of the description, all possible combinations of the features of the above embodiments have been expounded. However, all the combinations of such features are all considered within the scope of the disclosure provided there is no contradiction between such features.
The above-discussed embodiments only illustrate some of the embodiments of the present invention. The illustration is made specific and detailed, and it should not be construed as being limitative to the scope of protection of the present invention. It is noted that for those having ordinary skill in the art, various changes and modifications can be contemplated without departing from the inventive idea of the present invention, and such are all considered within the scope of protection of the present invention. Thus, the scope of patent protection of the present invention is only defined by the appended claims.
Patent Application
20240138482
