Liquid storage component, liquid suction module and atomization assembly

Abstract

The embodiment of the utility model relates to an atomization device, especially relates to a liquid storage component, a liquid suction module and an atomization assembly, the liquid storage component is connected with the liquid suction component of atomization assembly, the liquid storage component is used for inserting in the liquid storage bottle of atomization assembly, is used for absorbing the fluid medium that can atomize in liquid storage bottle, the liquid storage component is also used for storing the fluid medium that has absorbed, and the fluid medium that the liquid suction component draws the storage of liquid storage component, compared with prior art, when the medium quality of fluid medium in liquid storage bottle is less, causes its liquid surface to atomization cavity's distance is bigger and bigger, the liquid suction component can directly draw the fluid medium that the storage of liquid storage component, makes the atomization assembly's mist output will not reduce along with the medium quality reduction in liquid storage bottle, thereby guarantees the atomization effect of atomization assembly, improves user's use experience.

Description

Technical Field

[0001] The embodiments of this utility model relate to an atomizing device, and more particularly to a liquid storage component, a liquid suction module, and an atomizing assembly. Background Technology

[0002] Atomizing components, as electronic products that atomize a stored fluid medium by heating it, have been widely used in many fields, such as the medical and home applications. Currently, some atomizing components are also used in fragrance diffusers, where the atomized gas is sprayed out with the airflow to alter the scent in the air and suppress unpleasant odors.

[0003] Currently, atomizing components typically store liquid media that can be atomized into atomized products. However, the inventors discovered that during transportation, atomizing components are susceptible to leakage due to internal sealing issues. Therefore, to avoid this, some atomizing components use gel-like or viscous fluid media, increasing the viscosity to prevent leakage. However, when using gel-like or viscous media, the penetration or creeping speed of these media on the suction component is slow, meaning the suction efficiency is poor. Consequently, during atomization, as the liquid level in the storage bottle decreases, the distance the media needs to travel from the liquid surface through the suction component to the atomization chamber increases, and the time required also increases. This means that within the same time period, the higher the liquid level in the storage bottle, the shorter the distance between the liquid surface and the atomization chamber, and the more atomizable media is available during that time. The greater the atomization volume within a given time, the lower the liquid level in the storage bottle and the farther the liquid surface is from the atomization chamber, the longer it takes for the medium to penetrate into the atomization chamber. This results in less atomizable medium during that time, meaning a smaller atomization volume. This leads to a significant difference between the atomization volume when the medium volume is low and when it is high. Especially when the atomization component is used as a sachet, the amount of fragrance emitted decreases as the internal medium volume decreases, and the fragrance gradually weakens from its initial intensity. This uneven fragrance intensity greatly affects the user experience. Utility Model Content

[0004] The purpose of some embodiments of this utility model is to design a liquid storage component, a liquid absorption module, and an atomizing component, which can ensure that the amount of mist output of the atomizing component does not decrease as the amount of internal medium decreases, thereby improving the atomization effect of the atomizing component.

[0005] To achieve the above objectives, some embodiments of this utility model provide a liquid storage component, which is connected to the liquid absorption component of an atomizing assembly. The liquid storage component is used to be inserted into the liquid storage bottle of the atomizing assembly to absorb the atomizable fluid medium in the liquid storage bottle. The liquid storage component is also used to store the absorbed fluid medium, and the liquid suction component draws up the fluid medium stored in the liquid storage component.

[0006] In addition, some embodiments of this utility model also provide a liquid absorption module, which includes: The liquid storage component as described above; A liquid-absorbing component is connected to the liquid-receiving component; The top cover has an atomizing chamber along its axial direction. The top cover is used to fix the liquid-absorbing component, so that part of the liquid-absorbing component is exposed in the atomizing chamber, and another part passes through the bottom of the top cover and is used to insert into the liquid storage bottle. The bottom of the top cover is also connected to the liquid storage component and is used to press the liquid storage component into the liquid storage chamber. A heating component is disposed in the atomizing chamber of the upper cover and fixed to the liquid suction component, for heating the fluid medium sucked by the liquid suction component, so that the fluid medium is atomized in the atomizing chamber; The top cover is also used to engage with the liquid storage bottle when the liquid storage component is pressed into a preset position inside the liquid storage bottle.

[0007] In addition, some embodiments of this utility model also provide an atomizing component, the atomizing component comprising: A liquid storage bottle; the liquid storage bottle is provided with a liquid storage cavity and an air duct, and both the air duct and the liquid storage cavity extend in the height direction of the liquid storage bottle; The liquid suction module described above is detachably mounted on the liquid storage bottle; Both the liquid suction component and the liquid storage component are inserted into the liquid storage cavity. The top cover is snapped onto the top of the liquid storage bottle and is used to seal the liquid storage cavity of the liquid storage bottle to prevent the atomizing medium from flowing out.

[0008] Compared to the prior art, the embodiments of this utility model, in addition to the liquid suction component, also include a liquid storage component inserted into the liquid storage bottle of the atomizing assembly. This liquid storage component is connected to the liquid suction component. The liquid storage component can absorb the fluid medium in the liquid storage bottle and store the absorbed fluid medium. For example, when the amount of fluid medium in the liquid storage bottle is sufficient, the liquid storage component can directly contact the fluid medium, thereby directly absorbing and storing the fluid medium. However, when the amount of fluid medium in the liquid storage bottle gradually decreases, causing the liquid storage component to be unable to directly contact the fluid medium... At this time, the liquid storage component can not only absorb and store the liquid medium absorbed by the liquid absorption component, but also, when the fluid medium is a viscous liquid containing additives, the liquid storage component can also achieve liquid absorption and storage by means of the viscosity of the fluid medium. That is, when the liquid level in the liquid storage bottle is decreasing, some of the viscous fluid medium will stick to the inner wall of the liquid storage bottle. Through the sticky part of the fluid medium sticking to the inner wall of the liquid storage bottle, the liquid storage component is always in communication with the fluid medium in the liquid storage bottle, thereby continuously supplying liquid to the liquid storage component, so that the liquid storage component can also achieve the storage of the absorbed fluid medium. Therefore, during the atomization process, as the amount of fluid in the storage bottle gradually decreases, the distance between the liquid surface and the atomization chamber increases. The suction component can directly draw in the fluid stored in the storage component, ensuring that the time for the fluid to penetrate into the atomization chamber does not change due to the liquid level. This means that the amount of mist produced by the atomization component will not decrease as the amount of medium in the storage bottle decreases, thus guaranteeing the atomization effect of the atomization component and improving the user experience. Attached Figure Description

[0009] Figure 1 This is an isometric view of the liquid storage component in some embodiments of the present invention; Figure 2 for Figure 1 A top-down view; Figure 3 This is an isometric view of the liquid absorption module in some embodiments of the present invention; Figure 4 This is a cross-sectional schematic diagram of the liquid absorption module in some embodiments of the present invention; Figure 5 This is an isometric perspective view of the atomizing component in some embodiments of the present invention; Figure 6 This is a cross-sectional schematic diagram of an atomizing component in one embodiment of the present invention, wherein the liquid storage component is partially submerged below the liquid surface of the fluid medium. Figure 7 This is a cross-sectional schematic diagram of the atomizing component below the liquid surface, away from the fluid medium, in some embodiments of the present invention. Detailed Implementation

[0010] To make the objectives, technical solutions, and advantages of the embodiments of this utility model clearer, the various embodiments of this utility model will be described in detail below with reference to the accompanying drawings. However, those skilled in the art will understand that many technical details have been presented in the various embodiments of this utility model to enable the reader to better understand this application. However, the technical solutions claimed in this application can be implemented even without these technical details and with various changes and modifications based on the following embodiments.

[0011] Example 1 The first embodiment of this utility model relates to a liquid storage component, such as... Figure 3 and Figure 4 As shown, the liquid storage component 11 is connected to the liquid suction component 12 of the atomizing assembly, and combined with... Figure 5 and Figure 6 As shown, the liquid storage component 11 is inserted into the liquid storage bottle 2 of the atomizing assembly to absorb the atomizable fluid medium in the liquid storage bottle 2.

[0012] Secondly, such as Figure 5 and Figure 6 As shown, the liquid storage component 11 is also used to store the absorbed fluid medium, and the liquid suction component 12 draws up the fluid medium stored in the liquid storage component 11.

[0013] As can be seen from the above, in addition to the liquid suction component 12, the liquid storage bottle 2 of the atomizing assembly also contains a liquid storage component 11, which is connected to the liquid suction component 12. The liquid storage component 11 can absorb the fluid medium in the liquid storage bottle 2 and store the absorbed fluid medium. For example, when the amount of fluid medium in the liquid storage bottle 2 is sufficient, the liquid storage component 11 can directly contact the fluid medium, thereby directly absorbing and storing the fluid medium. However, when the amount of fluid medium in the liquid storage bottle 2 gradually decreases, causing the liquid storage component 11 to be unable to directly contact the fluid medium, the liquid storage component 11... Component 11 can not only absorb and store the liquid medium absorbed by the liquid absorption component 12, but also, when the fluid medium is a viscous liquid containing additives, the liquid storage component 11 can also absorb and store the liquid by means of the viscosity of the fluid medium. That is, when the liquid level in the liquid storage bottle 2 is decreasing, some of the viscous fluid medium will stick to the inner wall 21 of the liquid storage bottle. Through the sticky part of the fluid medium sticking to the inner wall 21 of the liquid storage bottle 2, the liquid storage component 11 is always in communication with the fluid medium in the liquid storage bottle 2, thereby continuously supplying liquid to the liquid storage component 11, so that the liquid storage component 11 can also store the absorbed fluid medium. Therefore, during the atomization process, as the amount of fluid in the storage bottle 2 gradually decreases, the distance between the liquid surface and the atomization chamber 131 increases. The suction component 12 can directly absorb the fluid stored in the storage component 11, ensuring that the time it takes for the fluid to penetrate into the atomization chamber does not change due to the liquid level. This prevents the atomization output of the atomization component from decreasing as the amount of fluid in the storage bottle 2 decreases, thus guaranteeing the atomization effect of the atomization component and improving the user experience.

[0014] Specifically, in some embodiments, such as Figure 5 and Figure 6 As shown, the liquid storage component 11 is located near the mouth of the liquid storage bottle 2. This reduces the penetration path of the liquid absorption component 12, shortens the waiting time for each initial atomization, and ensures the atomization effect of each atomization process, allowing the user to quickly smell the fragrance every time they turn on the device, and ensuring that the fragrance intensity is uniform throughout the atomization process. In some embodiments, the fluid medium is a viscous liquid containing additives, and when the thickness of the liquid storage component 11 is less than 1 / 2 of the height of the liquid storage bottle 2, this not only ensures that the liquid storage bottle 2 has a larger liquid storage space, but also allows the liquid storage component 11 to have multiple different modes of absorbing the fluid medium. For example, when the liquid level of the fluid medium in the liquid storage bottle 2 is high, such that at least part of the liquid storage component 11 can be immersed below the liquid surface 24 of the fluid medium, such as... Figure 6As shown, at this time, the liquid storage component 11 can directly and autonomously absorb the fluid medium through its own liquid absorption capacity, and can store the absorbed fluid medium. When the liquid level of the fluid medium gradually drops below that of the liquid storage component 11, as... Figure 7 As shown, at this time, not only can the liquid suction component 12 absorb liquid and supply it to the liquid storage component 11, but also, by taking advantage of the viscosity of the fluid medium, during the process of liquid level drop, some of the fluid medium will stick to the inner wall 21 of the liquid storage bottle. Through the sticky part of the fluid medium hanging on the inner wall 21 of the liquid storage bottle 2, the liquid storage component 11 is always in communication with the fluid medium in the liquid storage bottle 2, thereby supplying liquid to the liquid storage component 11, so that the liquid storage component 11 can also achieve the storage of the absorbed fluid medium. When atomization starts, the liquid suction component 12 can directly absorb the fluid medium stored in the liquid storage component 11, so that the atomization volume of the atomizing component is always maintained in a constant range, so that the atomization effect is not affected by the liquid level in the liquid storage bottle, and always maintains a stable atomization effect, improving the user experience. In other embodiments, when the thickness of the liquid storage component 11 is large, for example, when the thickness of the liquid storage component 11 is greater than or equal to 1 / 2 of the height of the liquid storage bottle, most of the liquid storage component 11 will be inserted below the liquid surface of the liquid storage bottle 2. Therefore, the fluid medium can be directly absorbed and stored, and at the same time, the liquid storage component 11 can absorb the fluid medium supplied by the liquid absorption component 12 and directly store the absorbed fluid medium.

[0015] Additionally, it is worth mentioning that in some other embodiments, such as Figure 1 and Figure 2 As shown, the liquid storage component 11 is an elastic component with adsorption pores, allowing it to interference fit with the inner wall 21 of the liquid storage bottle 2 after insertion. For example, the liquid storage component 11 can be oil-absorbing cotton. Because oil-absorbing cotton has good liquid absorption capacity and good elastic deformation capacity, it can effectively absorb liquid and deform elastically when inserted into the liquid storage bottle 2. Figure 5 and Figure 6As shown, the oil-absorbing cotton can be easily inserted into the liquid storage bottle 2 through its own deformation. After insertion, it adheres to the inner wall 21 of the bottle, allowing for an interference fit. This not only secures the liquid storage component 11 within the bottle 2 but also, through the interference fit, forms a leak-proof structure. Therefore, when the fluid medium is a viscous liquid containing additives, this leak-proof structure can prevent leakage. It should be noted that in the above embodiment, the liquid storage component 11 is described using oil-absorbing cotton as an example. In other embodiments, other elastic components with liquid absorption capabilities can be used. In this embodiment, the material used for the liquid storage component 11 is not specifically limited.

[0016] In addition, to achieve the connection between the liquid storage component 11 and the liquid absorption component 12, in some other embodiments, such as Figure 4 As shown, the liquid storage component 11 is penetrated by the liquid absorption component 12 along its thickness direction, allowing the liquid storage component 11 to tightly grip the liquid absorption component 12. For example, as... Figure 1 and Figure 2 As shown, the liquid storage component 11 may have a connecting hole 111 along its thickness direction. This connecting hole 111 allows the liquid suction component 12 to pass through, and the liquid storage component 11 can tightly grip the liquid suction component 12 by an interference fit. Furthermore, combined with... Figure 1 and Figure 2 As shown, since the liquid storage component 11 has a connecting hole 111 along its thickness direction, the liquid storage component 11 includes: an inner surface 112 surrounding the connecting hole 111 and an outer surface 113 opposite to the inner surface 112. To facilitate the assembly between the liquid storage component 11 and the liquid absorption component 12, as a preferred embodiment, in some other embodiments, such as... Figure 1 and Figure 2As shown, the liquid storage component 11 is also provided with a cut 114 along its height direction, and the cut 114 extends from the outer surface 113 to the inner surface 112 of the liquid storage component 11, so that the cut 114 can cut open the liquid storage component 11, so that the liquid storage component 11 forms a first cut surface 118 and a second cut surface 119 away from the first cut surface 118 along its circumference. It is easy to see that when the liquid storage component 11 needs to be connected to the liquid suction component 12, the liquid storage component 11 can be bent as a whole around the axis of the connection hole 111. At this time, the first cut surface 118 of the liquid storage component 11 can fit with the second cut surface 119, so that the liquid storage component 11 can hug the liquid suction component 12 through the connection hole 111. In this way, the connection between the liquid storage component 11 and the liquid suction component 12 can be facilitated, so as to ensure that the liquid storage component 11 can hug the liquid suction component 12 at any position. Conversely, when the liquid storage component 11 needs to release the liquid suction component 12, the force applied to the liquid storage component 11 is simply released, allowing the liquid storage component 11 to automatically reset in the opposite direction of the bend. The first cut surface 118 and the second cut surface 119 of the liquid storage component 11 can automatically separate during the reset process, ensuring that the liquid storage component 11 can release the liquid suction component 12 through the connection hole 111, thus completing the separation of the liquid storage component 11 and the liquid suction component 12.

[0017] Furthermore, it is worth noting that, in some other embodiments, such as Figure 6 As shown, the thickness of the liquid storage component 11 is less than half the height of the liquid storage bottle 2, resulting in a relatively small thickness of the liquid storage component 11. Therefore, when the liquid storage component 11 is inserted into the liquid storage bottle 2, combined with... Figure 5 and Figure 6As shown, the liquid storage component 11 can be located near the mouth of the liquid storage bottle 2, so that the distance between the liquid storage component 11 and the atomizing chamber 131 is short. Therefore, when the amount of fluid medium in the liquid storage bottle 2 is sufficient, that is, when part of the liquid storage component 11 is submerged below the surface of the fluid medium, the liquid storage component 11 can absorb the fluid medium by direct contact with the fluid medium and store the absorbed fluid medium. Furthermore, since the thickness of the liquid storage component 11 is less than 1 / 2 of the height of the liquid storage bottle 2, most of the space of the liquid storage chamber 22 of the liquid storage bottle 2 will not be occupied by the liquid storage component 11, so that more fluid medium can be stored in the liquid storage bottle 2. Therefore, the atomization time of the atomizing component can be effectively extended, thereby further improving the user experience. Conversely, when the amount of fluid medium in the storage bottle 2 is small, resulting in a large vertical distance between the fluid medium surface and the storage component 11, causing the storage component 11 to be unable to directly absorb the fluid medium, the storage component 11 can absorb the fluid medium drawn by the suction component 12 and some of the viscous liquid hanging on the inner wall of the storage bottle 2 when the fluid medium stored inside is not saturated. When the atomizing component 1 is working, because the penetration and creeping speed of the fluid medium on the suction component 12 is slow, the suction component 12 can absorb the fluid medium stored in the storage component 11. This avoids the atomizing component from being significantly affected by the slow creeping speed of the fluid medium on the suction component 12 when atomizing the fluid medium. As a result, the atomizing component's atomizing output will not decrease as the amount of internal fluid medium decreases, ensuring that the atomizing output remains in a constant range, thereby improving the user experience.

[0018] Furthermore, it is evident from the above embodiments that in some embodiments, when the thickness of the liquid storage component 11 is greater than half the height of the liquid storage bottle 2, although the liquid storage component 11 occupies most of the space in the liquid storage bottle 2, it can fill most of the liquid storage cavity 22 of the liquid storage bottle 2. This allows the liquid storage component 11 to directly absorb the fluid medium and complete its storage for the majority of the time. In other embodiments, when the thickness of the liquid storage component 11 is less than half the height of the liquid storage bottle 2, the liquid storage cavity 22 of the liquid storage bottle 2 can not only store a larger volume of fluid medium, but also, due to the viscosity of the fluid medium, it can form a coating on the inner wall 21 of the liquid storage bottle 2. This ensures that a seepage path is always maintained between the liquid surface and the liquid storage component 11, keeping the fluid medium stored in the liquid storage component 11 saturated. It is not difficult to see that both of the above methods can directly draw out the fluid medium stored in the storage component 11 by the suction component 12 when the fluid medium creeps slowly on the suction component 12, thereby ensuring that the atomizing component produces a small amount of mist when the fluid medium is small, so that the mist output of the atomizing component can always be maintained in a constant range.

[0019] Example 2 Embodiment 2 of this utility model relates to a liquid absorption module 1, such as... Figure 3 , Figure 4 and Figure 5 As shown, the liquid absorption module 1 includes: a liquid storage component 11, a liquid absorption component 12, a top cover 13, and a heating component 14 as described in Embodiment 1.

[0020] Among them, such as Figure 3 and Figure 4 As shown, the liquid suction component 12 is connected to the liquid storage component 11. Next, the upper cover 13 is provided with an atomizing chamber 131 along its axial direction. The upper cover 13 is used to fix the liquid suction component 12, so that part of the liquid suction component 12 is exposed in the atomizing chamber 131. At the same time, another part passes through the bottom of the upper cover 13 and is used to insert into the liquid storage bottle 2 of the atomizing component. Meanwhile, the bottom of the upper cover 13 is also connected to the liquid storage component 11 and is used to press the liquid storage component 11 into the liquid storage bottle 2.

[0021] In addition, such as Figure 5 and Figure 6 As shown, the heating element 14 is disposed in the atomizing chamber 131 of the upper cover 13 and fixed to the liquid suction element 12. The heating element 14 is used to heat the fluid medium sucked by the liquid suction element 12, so that the fluid medium is atomized in the atomizing chamber 131. In addition, the upper cover 13 is also used to engage with the liquid storage bottle 2 of the atomizing assembly when the liquid storage element 11 is pressed into a preset position in the liquid storage bottle 2.

[0022] As can be seen from the above, since the liquid suction component 12 is connected to the liquid storage component 11, and the upper cover 13 can also be used to fix the liquid suction component 12, and part of the liquid suction component 12 can be exposed in the atomizing chamber 131 of the upper cover 13, while another part can pass through the bottom of the upper cover 13 to be inserted into the liquid storage bottle 2, and the atomizing chamber 131 of the upper cover 13 is also provided with a heating component 14 fixed to the liquid suction component 12, the liquid storage component 11, the liquid suction component 12, the upper cover 13 and the heating component 14 can together constitute the liquid suction module 1. Therefore, when the liquid suction module 1 is assembled with the liquid storage bottle 2, combined with... Figure 5 and Figure 6 As shown, the connection between the top cover 13 and the liquid storage bottle 2 can be completed simply by pressing the top cover 13 down from the bottle opening of the liquid storage bottle 2, while the liquid storage component 11 can be pressed into the preset position inside the liquid storage bottle 2. Therefore, when the amount of fluid medium in the storage bottle 2 is sufficient, the storage component 11 can directly contact the fluid medium, thereby directly absorbing and storing the fluid medium. When the amount of fluid medium in the storage bottle 2 is insufficient, causing the storage component 11 to be unable to directly contact the fluid medium, the storage component 11 can absorb the liquid medium absorbed by the suction component 12 and store the absorbed liquid medium. Therefore, during the atomization process of the atomizing component, when the amount of fluid medium in the storage bottle 2 is insufficient, causing the distance from the liquid surface to the atomizing chamber 131 to increase, the suction component 12 can directly absorb the fluid medium stored in the storage component 11, so that the amount of mist produced by the atomizing component will not decrease as the amount of medium in the storage bottle 2 decreases, thereby ensuring the atomization effect of the atomizing component and improving the user experience.

[0023] However, in order for the top cover 13 to separately fix the liquid-absorbing component 12 and connect to the liquid storage bottle 2, in other embodiments, such as Figure 3 and Figure 4 As shown, the upper cover 13 includes: a cover body 132 and a pressing part 133. Wherein, combined with Figure 5 and Figure 6 As shown, the cover 132 is snapped into the liquid storage bottle 2 of the atomizing assembly, so that the cover 132 can be used to seal the liquid storage chamber 22 of the liquid storage bottle 2. Secondly, the squeezing part 133 is provided at the bottom of the cover 132, and the squeezing part 133 is detachably connected to the liquid storage component 11. The squeezing part 133 can be used to press the liquid storage component 11 into the liquid storage bottle 2.

[0024] Specifically, in order to achieve precise installation between the extrusion section 133 and the liquid storage component 11, in some embodiments, such as Figure 3As shown, a positioning groove 134 is also provided on the side of the squeezing part 133 away from the cover 132, and this positioning groove 134 can be connected to the liquid storage component 11. In some embodiments, the positioning groove 134 can be of various shapes, such as circular or square, and can have a certain depth. Corresponding to the positioning groove 134, such as... Figure 3 As shown, the liquid storage component 11 protrudes partially from one side relative to the positioning groove 134, forming a positioning protrusion 115 that can be inserted into the positioning groove 134. The shape of the positioning protrusion 115 is the same as and the same size as the positioning groove 134, ensuring that the liquid storage component 11 will not wobble on the cover 132 after the positioning protrusion 115 is inserted into the positioning groove 134. This guarantees the uniqueness of the installation position of the liquid storage component 11 on the cover 132, allowing the squeezing part 133 of the upper cover 13 to be inserted into the liquid storage bottle 2 from the bottle opening, combined with... Figure 5 and Figure 6 As shown, the squeezing part 133 can easily and accurately press the liquid storage component 11 into the liquid storage bottle 2, thereby enabling rapid assembly between the liquid suction module 1 and the liquid storage bottle 2.

[0025] Furthermore, it is not difficult to see from the above embodiment 1 that, since the liquid storage component 11 is a flexible component with distributed adsorption pores, for example, combined with Figure 1 As shown, the liquid storage component 11 can be a breathable sponge, allowing gas communication between its upper surface 116 and lower surface 117, thereby ensuring the balance of gas pressure inside and outside the liquid storage bottle 2. To ensure the balance of gas pressure inside and outside the liquid storage bottle 2, as a preferred embodiment, in other embodiments, such as... Figure 4 As shown, the extrusion part 133 is provided with an air hole 135. The air hole 135 can ensure the air circulation inside and outside the liquid storage bottle 2, so as to balance the air pressure inside and outside the liquid storage bottle 2. Therefore, it will not affect the liquid creep rate of the fluid medium on the liquid suction part 12, thereby ensuring the amount of mist output of the atomizing component when atomizing the fluid medium.

[0026] Finally, to improve the liquid flow rate of the fluid medium on the liquid-absorbing component 12, in some embodiments, the liquid-absorbing component 12 is woven from at least a mixture of fabric fibers and glass fibers. For example, in some embodiments, the fabric fibers can be cotton fibers. Since both cotton fibers and glass fibers have good liquid absorption rates, and the glass fibers can prevent the fluid medium from clogging the liquid-absorbing component 12 during the liquid flow process, the mist output of the atomizing component can be effectively guaranteed when atomizing the fluid medium. It should be noted that in the above embodiments, the liquid-absorbing component 12 is only described as being woven from at least a mixture of fabric fibers and glass fibers. In other embodiments, the liquid-absorbing component 12 can also be woven from other materials with liquid absorption properties. In this embodiment, the material of the liquid-absorbing component 12 is not specifically limited.

[0027] Example 3 Embodiment 3 of this utility model relates to an atomizing component, such as... Figure 1 As shown, the atomizing component includes: a liquid storage bottle 2 and a liquid suction module as described in Example 2.

[0028] The liquid storage bottle 2 is provided with a liquid storage chamber 22 and an air duct 23, both of which extend in the height direction of the liquid storage bottle 2. The liquid suction module 1 is detachably mounted on the liquid storage bottle 2. The liquid suction component 12 and the liquid storage component 11 are both inserted into the liquid storage chamber 22 of the liquid storage bottle, and the top cover 13 is snapped onto the top of the liquid storage bottle 2. The top cover 13 is used to seal the liquid storage chamber 22 of the liquid storage bottle 2, thereby preventing the atomizing medium from flowing out.

[0029] As can be seen from the above, since the liquid storage chamber 22 of the atomizing component's liquid storage bottle 2 is equipped with both a liquid suction component 12 and a liquid storage component 11, and the liquid storage component 11 is also connected to the liquid suction component 12, the liquid storage component 11 can absorb the fluid medium in the liquid storage bottle 2 and store the absorbed fluid medium. For example, when the amount of fluid medium in the liquid storage bottle 2 is sufficient, the liquid storage component 11 can directly contact the fluid medium, thereby directly absorbing the fluid medium and completing the storage of the fluid medium. However, when the amount of fluid medium in the liquid storage bottle 2 is insufficient, causing the liquid storage component 11 to be unable to directly contact the fluid medium, ... At this time, the liquid storage component 11 can absorb the liquid medium absorbed by the liquid suction component 12 and store the absorbed liquid medium. Therefore, when the atomizing component atomizes the fluid medium, as the amount of fluid medium in the liquid storage bottle 2 gradually decreases, causing the distance between the liquid surface and the atomizing chamber 131 to increase, the liquid suction component 12 can directly absorb the fluid medium stored in the liquid storage component 11. This ensures that the time for the fluid medium to penetrate into the atomizing chamber does not change due to the liquid level. In other words, the amount of mist produced by the atomizing component does not decrease as the amount of medium in the liquid storage bottle 2 decreases, thereby ensuring the atomization effect of the atomizing component and improving the user experience.

[0030] Those skilled in the art will understand that the above embodiments are specific implementations of the present invention, and in practical applications, various changes can be made to them in form and detail without departing from the spirit and scope of the present invention.

Claims

1. A liquid storage member characterized by comprising: The liquid storage component is connected to the liquid absorption component of the atomizing assembly. The liquid storage component is used to be inserted into the liquid storage bottle of the atomizing assembly to absorb the atomizable fluid medium in the liquid storage bottle. The liquid storage component is also used to store the absorbed fluid medium, and the liquid suction component draws up the fluid medium stored in the liquid storage component.

2. The liquid storage component according to claim 1, characterized in that, The liquid storage component is located near the mouth of the liquid storage bottle.

3. The liquid storage member according to claim 1 or 2, characterized in that, The thickness of the liquid storage component is less than 1 / 2 of the height of the liquid storage bottle.

4. The liquid storage member according to claim 1 or 2, characterized in that, The thickness of the liquid storage component is greater than or equal to 1 / 2 of the height of the liquid storage bottle.

5. The liquid storage member according to claim 1, wherein The liquid storage component is an elastic component with adsorption holes, and after being inserted into the liquid storage bottle, it is interference-fitted with the inner wall of the liquid storage bottle.

6. The liquid storage member according to claim 1, wherein The fluid medium is a viscous liquid containing additives. The liquid storage component, after being inserted into the liquid storage bottle, forms a leak-proof structure together with the inner wall of the liquid storage bottle to prevent leakage of the fluid medium.

7. The reservoir component of claim 1, wherein The liquid storage component is penetrated by the liquid absorption component along its thickness direction, so that the liquid storage component tightly hugs the liquid absorption component.

8. The liquid storage member according to claim 7, wherein The liquid storage component is provided with a connection hole along its thickness direction, through which the liquid absorption component can pass; The liquid storage component includes: an inner surface surrounding the connection hole and an outer surface opposite to the inner surface. The liquid storage component is also provided with a cut along its height direction, and the cut extends from the outer surface to the inner surface to cut open the liquid storage component, so that the liquid storage component forms a first cut surface along its circumference and a second cut surface away from the first cut surface. Wherein, the first cut surface is used to fit with the second cut surface, so that the liquid storage component tightly hugs the liquid absorption component through the connecting hole; Alternatively, the first cut surface is used to separate from the second cut surface, allowing the liquid storage component to release the liquid suction component through the connection hole.

9. A liquid absorbing module, characterized by The liquid absorption module includes: The liquid storage component as described in any one of claims 1-8; A liquid-absorbing component is connected to the liquid-receiving component; The top cover has an atomizing chamber along its axial direction. The top cover is used to fix the liquid-absorbing component, so that part of the liquid-absorbing component is exposed in the atomizing chamber, and another part passes through the bottom of the top cover and is used to insert into the liquid storage bottle. The bottom of the top cover is also connected to the liquid storage component and is used to press the liquid storage component into the liquid storage bottle. A heating component is disposed in the atomizing chamber of the upper cover and fixed to the liquid suction component, for heating the fluid medium sucked by the liquid suction component, so that the fluid medium is atomized in the atomizing chamber; The top cover is also used to engage with the liquid storage bottle when the liquid storage component is pressed into a preset position inside the liquid storage bottle.

10. The liquid absorbing module according to claim 9, wherein The top cover includes: The cap engages with the liquid storage bottle of the atomizing assembly to seal the liquid storage chamber; A squeezing part is provided at the bottom of the cover and is detachably connected to the liquid storage component, for pressing the liquid storage component into the liquid storage bottle.

11. The liquid absorption module according to claim 10, characterized in that, The side of the extrusion section away from the cover is provided with a positioning groove for connecting the liquid storage component.

12. The liquid absorbing module of claim 10, wherein, The liquid storage component is a breathable sponge, which allows for gas communication between the upper and lower surfaces of the liquid storage component. The extrusion section is provided with air holes, which are used to balance the air pressure inside and outside the liquid storage bottle.

13. The liquid absorbing module of claim 9, wherein, The liquid-absorbing component is made of at least a mixture woven from fabric fibers and glass fibers.

14. An atomising assembly characterised in that, The atomizing component includes: A liquid storage bottle; the liquid storage bottle is provided with a liquid storage cavity and an air duct, and both the air duct and the liquid storage cavity extend in the height direction of the liquid storage bottle; The liquid suction module as described in any one of claims 9-13 is detachably mounted on the liquid storage bottle; wherein Both the liquid suction component and the liquid storage component are inserted into the liquid storage cavity. The top cover is snapped onto the top of the liquid storage bottle and is used to seal the liquid storage cavity of the liquid storage bottle to prevent the atomizing medium from flowing out.

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