Liquid storage bottle

Abstract

The utility model discloses a liquid storage bottle which comprises a bottle body, a plurality of extrusion pieces and a conduction assembly, the bottle body is provided with two relatively independent liquid storage cavities, the cavity wall of each liquid storage cavity is provided with a liquid drainage hole and a plurality of conduction holes, one end of the bottle body is provided with a liquid injection head in a protruding mode, and the liquid drainage holes enable the liquid storage cavities to be in fluid conduction with the liquid injection head; all the extrusion pieces are arranged on the outer wall of the bottle body, at least one extrusion piece is communicated with the liquid storage cavity through at least one through hole, and when the extrusion pieces are extruded, pressurized gas is provided for the correspondingly arranged liquid storage cavity through the through holes; and the conducting assembly is arranged between the liquid drainage hole and the liquid injection head, and when the extrusion piece arranged corresponding to one liquid storage cavity is extruded, the liquid drainage hole corresponding to the liquid storage cavity is communicated with the liquid injection head, and the liquid drainage hole corresponding to the other liquid storage cavity is blocked from being communicated with the liquid injection head. According to the liquid storage bottle provided by the invention, only one atomizing substrate can be supplemented to the atomizing device each time while two different types of atomizing substrates are stored, so that the liquid storage bottle is convenient to carry by a user and convenient to operate.

Description

Technical Field

[0001] This application relates to the field of liquid storage technology, specifically to a liquid storage bottle. Background Technology

[0002] With the advancement of technology, various types of atomizing devices have emerged. Among them, atomizing devices that can be refilled with atomizing matrix are favored by consumers because they can be reused.

[0003] Currently, the atomizing matrix replenished to the atomizing device is mostly stored in a liquid storage container and then filled by the liquid storage container. However, for atomizing devices that can heat different atomizing matrices, two liquid storage containers are required to store different types of liquid, which is inconvenient for consumers to carry. Utility Model Content

[0004] This application aims to provide a liquid storage bottle that can be used to store two different types of liquids, and can individually add one type of liquid to the device to be replenished each time, making it convenient for users to carry.

[0005] This application provides a liquid storage bottle, comprising:

[0006] The bottle body has two relatively independent liquid storage chambers. Each liquid storage chamber has a drain hole and several through holes on its wall. The liquid storage chamber is used to store liquid. One end of the bottle body is provided with an injection head. The drain hole is configured to connect the liquid storage chamber with the injection head. The injection head is configured to inject the liquid discharged through the drain hole into the device to be replenished.

[0007] A plurality of extrusion members are disposed on the outer wall of the bottle body, and at least one of the extrusion members is connected to the liquid storage cavity through at least one of the through holes; the extrusion members are configured to provide pressurized gas to the corresponding liquid storage cavity through the through holes when extruded;

[0008] A connecting component is disposed between the drain hole and the injection head. The connecting component is configured to, when the extruder corresponding to one of the liquid storage chambers is extruded, make the drain hole corresponding to that liquid storage chamber connected to the injection head, and block the connection between the drain hole corresponding to the other liquid storage chamber and the injection head.

[0009] In some embodiments, the conductive assembly includes a blocking component and a conductive component. The conductive component has a conductive channel, and both ends of the conductive channel are respectively connected to the drain holes of the two liquid storage chambers. The channel wall of the conductive channel has a connecting hole, and the connecting hole is connected to the injection head. The blocking component is slidably disposed in the conductive channel.

[0010] When the squeezing member corresponding to one of the liquid storage chambers is squeezed, the drain hole corresponding to that liquid storage chamber is connected to the connecting hole, and the sealing member blocks the connection between the drain hole corresponding to the other liquid storage chamber and the connecting hole.

[0011] In some embodiments, the conductive assembly further includes a limiting member disposed on the inner wall of the conductive channel, and when one of its drainage holes is in communication with the connecting hole, the limiting member limits the blocking member.

[0012] In some embodiments, the bottle body has an internal partition, one end of the bottle body is a closed end, and the partition divides the interior of the bottle body into two liquid storage chambers; the end of the partition facing the closed end has a receiving groove, and the closed end has a through hole, which communicates with the receiving groove and the injection head; the side wall of the receiving groove has a drain hole; the guide member is disposed inside the receiving groove and connects the connecting hole with the through hole, and the two ends of the guide channel are respectively connected to the drain holes corresponding to the two liquid storage chambers.

[0013] In some embodiments, the outer surface of the bottle body is further provided with an anti-slip structure.

[0014] In some embodiments, the outer surface of the bottle is further provided with at least one marking portion, which is used to mark the liquid storage cavity.

[0015] In some embodiments, the marking portion includes a writable marking portion or a pasteable marking portion.

[0016] In some embodiments, the bottle body is a light-proof bottle body.

[0017] In some embodiments, the bottle body includes a main body and a liquid filling cap, two liquid storage chambers are formed inside the main body, a plurality of through holes are opened on the main body, the main body is also provided with a bottle mouth, and the liquid drain hole is in fluid communication with the bottle mouth; the liquid filling head is formed on the liquid filling cap, the liquid filling cap is detachably installed on the main body, and the liquid filling head is sealed and connected to the bottle mouth.

[0018] In some embodiments, the bottle body further includes an outer cap that is detachably connected to the injection cap to close or open the injection head.

[0019] According to the above embodiment, the liquid storage bottle has two independent storage chambers for storing different types of liquids. When the connecting component is squeezed at the squeezing member corresponding to one of the storage chambers, the drain hole corresponding to that storage chamber is connected to the injection head, and the connection between the drain hole and the injection head is disconnected at the other storage chamber. This allows the liquid in the storage chamber corresponding to the squeezed member to be added to the replenishing device via the drain hole and the injection head. Repeating the above operation at the other squeezing member replenishes the liquid in the other storage chamber of the replenishing device. This liquid storage bottle has two independent storage chambers, allowing storage of two different types of liquids, and only one type can be supplied to the replenishing device at a time. This design makes it convenient for users to carry and operate. Attached Figure Description

[0020] Figure 1 A perspective view of the liquid storage bottle provided for this utility model;

[0021] Figure 2 A cross-sectional view of the liquid storage bottle provided for this utility model;

[0022] Figure 3 Figure 2 A magnified view of a portion of point A in the middle;

[0023] Figure 4 Schematic diagram of the conduction principle of the conductive component in the liquid storage bottle provided by this utility model Figure 1 ;

[0024] Figure 5 Schematic diagram of the conduction principle of the conductive component in the liquid storage bottle provided by this utility model Figure 2 .

[0025] Figure label:

[0026] Storage bottle 100, bottle body 10, main body 11, storage cavity 111, through hole 112, drain hole 113, anti-slip structure 114, marking part 115, bottle mouth 116, filling cap 12, filling head 121, outer cover 13, partition 14, receiving groove 141, closed end 15, through hole 151, extrusion part 20, guiding assembly 30, sealing part 31, guiding part 32, guiding channel 321, connecting hole 322, limiting part 33. Detailed Implementation

[0027] The present application will now be described in further detail with reference to the accompanying drawings and specific embodiments. Similar elements in different embodiments are referred to by related similar element reference numerals. In the following embodiments, many details are described to facilitate a better understanding of the present application. However, those skilled in the art will readily recognize that some features may be omitted in different situations, or may be replaced by other elements, materials, or methods. In some cases, certain operations related to the present application are not shown or described in the specification. This is to avoid obscuring the core parts of the present application with excessive description. For those skilled in the art, detailed description of these related operations is not necessary; they can fully understand the related operations based on the description in the specification and general technical knowledge in the art.

[0028] Furthermore, the features, operations, or characteristics described in the specification can be combined in any suitable manner to form various embodiments, and the operational steps involved in each embodiment can also be rearranged or adjusted in a manner that is obvious to those skilled in the art. Therefore, the specification and drawings are only for clearly describing a particular embodiment and do not imply that they represent the necessary components and / or order.

[0029] The serial numbers assigned to components in this document, such as "first" and "second," are used only to distinguish the described objects and have no sequential or technical meaning. The terms "connection" and "linkage" used in this application, unless otherwise specified, include both direct and indirect connections (linkages).

[0030] The atomizing device can atomize water to humidify the air, or it can atomize aromatherapy liquids, aromatherapy pastes, etc., to purify or improve air quality. It can also atomize plant leaves, e-liquid, e-cigarette paste, etc., to produce edible aerosols. The following examples use a liquid as the substrate that can be atomized to produce an aerosol, and the liquid replenishment device is illustrated using an atomizing device as an example. For instance, the atomizing substrate is e-liquid, and the atomizing device is an electronic cigarette.

[0031] Currently, most atomizing substrates for nebulizers are stored in reservoirs. These reservoirs are inserted into the filling port of the nebulizer to replenish the substrate. However, some nebulizers, in order to improve product competitiveness and meet different user needs, are equipped with atomizing structures capable of heating two different atomizing substrates. Users then need to carry separate reservoirs containing different types of substrates to add them to each atomizing structure individually. This is inconvenient and difficult for users to carry.

[0032] To address the aforementioned issues, this application provides a liquid storage bottle capable of storing two different types of atomizing substrates, and allowing selection of different atomizing substrates for filling via a conductive component.

[0033] See Figures 1-3 As shown, the liquid storage bottle 100 provided in this application is used to add atomizing matrix to the atomizing device. The liquid storage bottle 100 includes a bottle body 10, a plurality of extrusion parts 20 and a conductive assembly 30.

[0034] The bottle body 10 has two relatively independent liquid storage chambers 111 for storing liquid, wherein the liquid is an atomizing matrix. The two liquid storage chambers 111 can store two different types of atomizing matrices. The two different types of atomizing matrices may have different compositions and produce aerosols with different flavors after atomization. Each liquid storage chamber 111 has a drain hole 113 and several through holes 112 on its wall. One end of the bottle body 10 has a protruding injection head 121. The drain hole 113 is configured to connect the liquid storage chamber 111 with the injection head 121 for fluid communication. The injection head 121 is configured to inject the liquid discharged through the drain hole 113 into the device to be replenished.

[0035] Several extrusion elements 20 are mounted on the outer wall of the bottle body 10, and at least one extrusion element 20 communicates with the liquid storage chamber 111 through at least one through hole 112. The extrusion element 20 is configured to provide pressurized gas to the corresponding liquid storage chamber 111 through the through hole 112 when extruded. After pressurized gas is provided to the liquid storage chamber 111, the pressurized gas occupies the space inside the liquid storage chamber 111, so that the atomized matrix enters the injection head 121 through the drain hole 113, and is injected into the liquid replenishment device by the injection head 121.

[0036] In a specific embodiment, when it is necessary to replenish the atomizing matrix to the atomizing device, the bottle 10 is inverted and the injection head 121 is inserted into the filling port of the atomizing device to squeeze the extruder 20. The extruder 20 provides pressurized gas to the storage chamber 111 through the through hole 112. The pressurized gas occupies the internal space of the storage chamber 111, and the atomizing matrix can enter the injection head 121 through the drain hole 113 and be output by the injection head 121 to the atomizing device to complete the filling of the atomizing matrix.

[0037] It should be noted that the extruder 20 is spherical, enclosing the through-hole 112. Initially, its interior is filled with air and inflated. After being compressed, the air enters the liquid storage chamber 111 through the through-hole 112, flattening the chamber and supplying gas to it. This gas pressurizes the interior of the liquid storage chamber 111, displacing the liquid and allowing it to flow through the drain hole 113 into the injection head 121. The extruder 20 automatically returns to its initial inflated state after the extrusion force is released. The extruder 20 is typically made of food-grade silicone. The volume of gas that the extruder 20 can compress in a single operation controls the amount of liquid replenished to the liquid replenishment device from the liquid storage bottle 100 each time. By using extruders 20 of different specifications, different single replenishment volumes can be achieved in the liquid storage bottle 100, further enhancing the user experience.

[0038] For a device requiring controlled replenishment speed, different numbers of identical-sized orifices 112, or the same number of different-sized orifices 112, allow the corresponding extruder 20 to supply different volumes of pressurized gas to the storage chamber 111 per unit time when being extruded, thereby regulating the liquid discharge speed from the storage chamber 111 and consequently, the liquid discharge speed supplied by the injection head 121. When the device requires rapid replenishment, an extruder 20 with a larger number of orifices 112 is selected for extrusion. As the number of orifices 112 increases, since the initial volume of air-filled extruder 20 remains consistent, a larger number of orifices 112 can supply more pressurized gas to the storage chamber 111 per unit time, thus rapidly occupying the internal space of the storage chamber 111 and increasing the liquid discharge speed. Conversely, selecting a pressing element 20 with fewer through holes 112 for pressing can provide less pressurized gas to the liquid storage chamber 111 per unit time. The internal space of the liquid storage chamber 111 is slowly compressed, thus reducing the liquid discharge rate.

[0039] In this application, in the above embodiments, each liquid storage chamber 111 may be provided with one, two or more extrusion members 20, and each extrusion member 20 may be provided with one, two or more through holes 112. In other words, each extrusion member 20 corresponding to each liquid storage chamber 111 can be interconnected through one, two or more through holes 112. Since each extrusion member 20 is the same, the liquid discharge rate can be controlled.

[0040] Understandably, in actual use, each extrusion member 20 corresponding to each liquid storage cavity 111 is set on the outer surface of the liquid storage cavity 111 in order of increasing number of through holes 112 from top to bottom, so as to facilitate user operation.

[0041] The connecting component 30 is disposed between the drain hole 113 and the injection head 112. The connecting component 30 is configured to make the drain hole 113 corresponding to the liquid storage cavity 111 connected to the injection head 121 when the extrusion member 20 corresponding to one of its liquid storage cavities 111 is extruded, and to block the connection between the drain hole 113 corresponding to the other liquid storage cavity 111 and the injection head 121.

[0042] See Figure 2 As shown in the figure, the two liquid storage chambers 111 are the left liquid storage chamber and the right liquid storage chamber, respectively. The left and right liquid storage chambers have left and right through holes respectively on the bottle body 10. The left and right liquid storage chambers correspond to the left and right extruders, respectively, and each extruder schematically corresponds to one left and one right through hole. The left and right liquid storage chambers also have left and right drain holes, respectively. When the left extruder is extruded, it provides pressurized gas to the left liquid storage chamber through the left through hole. The connecting component 30 connects the left drain hole to the injection head 121 and blocks the connection between the right drain hole and the injection head 121, allowing the liquid stored in the left liquid storage chamber to be output through the left drain hole and the injection head 121. When the right extruder is squeezed, the right extruder provides pressurized gas to the right liquid storage chamber through the right through hole. The connecting component 30 connects the right drain hole with the injection head 121 and blocks the connection between the left drain hole and the injection head 121, so that the liquid stored in the right liquid storage chamber can be output through the right drain hole and the injection head 121.

[0043] In this embodiment, since different extrusion components 20 are extruded, the liquid stored in the storage chamber 111 corresponding to the extrusion component 20 can be discharged through the drain hole 113 and the injection head 121. Therefore, different types of atomizing substrates share the same injection head 121 for output. In order to avoid the previous atomizing substrate remaining in the injection head 121 from contaminating the next extruded different types of atomizing substrate, in practical applications, a portion of the next extruded different types of atomizing substrate should be discharged through the injection head 121 first, so as to achieve the purpose of discharging the previous atomizing substrate along with the next extruded different types of atomizing substrate.

[0044] See Figure 3 As shown, the conductive assembly 30 includes a blocking component 31 and a conductive component 32. The conductive component 32 has a conductive channel 321, and both ends of the conductive channel 321 are respectively connected to the drain holes 113 of the two liquid storage chambers 111. The channel wall of the conductive channel 321 has a connecting hole 322, which is connected to the injection head 121. The blocking component 31 is slidably disposed within the conductive channel 321.

[0045] When the extrusion member 20 corresponding to one of the liquid storage chambers 111 is extruded, the drain hole 113 corresponding to the liquid storage chamber 111 is connected to the connecting hole 322, so that the atomized matrix is ​​discharged sequentially through the drain hole 113 and the connecting hole 322 via the injection head 121. During this process, the sealing member 31 blocks the connection between the drain hole 113 and the connecting hole 322 corresponding to the other liquid storage chamber 111, so as to ensure that the liquid stored in the liquid storage chamber 111 corresponding to the extrusion member 20 is added to the liquid replenishment device.

[0046] The sealing member 31 moves along the conduction channel 321 to block the drain hole 113 corresponding to each liquid storage chamber 111, thereby preventing the drain hole 113 corresponding to the liquid storage chamber 111 from communicating with the connecting hole 322. After the sealing member 31 connects the drain hole 113 corresponding to one of its liquid storage chambers 111 with the connecting hole 322, in order to prevent the sealing member 31 from moving towards the location of the drain hole 113 corresponding to one of its liquid storage chambers 111 and blocking the drain hole 113 corresponding to the liquid storage chamber 111, the conduction assembly 30 provided in this application also includes a limiting member 33. The limiting member 33 is disposed on the inner wall of the conduction channel 321, and when one of its drain holes 113 is connected to the connecting hole 322, the limiting member 33 limits the sealing member 31 to prevent the sealing member 31 from moving towards the direction of the drain hole 113.

[0047] See Figure 3 As shown, for ease of description, the position where the sealing member 31 blocks the connection between the drain hole 113 of one liquid storage chamber 111 and the connecting hole 322 is called the first position M, and the position where the sealing member 31 blocks the connection between the drain hole 113 of another liquid storage chamber 111 and the connecting hole 322 is called the second position N. The sealing member 31 can be slidably disposed in the connecting channel 321 between the first position M and the second position N. When the extruder 20 is extruded, the sealing member 32 can slide to the first position M or the second position N. The sealing member 32 connects the drain hole 113 of the liquid storage chamber 111 corresponding to the extruded extruder 20 with the injection head 121, and closes the drain hole 113 of the liquid storage chamber 111 corresponding to the other unextruded extruder 20, thus blocking the connection between the drain hole 113 of the liquid storage chamber 111 corresponding to the unextruded extruder 20 and the injection head 121.

[0048] In a specific embodiment, the drain hole 113 of the liquid storage chamber 111 corresponding to the squeezed extruder 20 is connected to the injection head 121 through the connecting hole 322. In other words, when the sealing member 31 blocks one of the drain holes 113, the sealing member 31 opens the other drain hole 113 and the connecting hole 322, so that the other drain hole 113 and the connecting hole 322 remain connected.

[0049] In its initial state, the sealing element 31 is located between the first position M and the second position N. At this time, neither of the drain holes 113 is blocked. See also Figure 4 As shown, when the left extrusion member 20 is compressed, the sealing member 32 slides along the conduction channel 321 to the first position M. At the first position M, the sealing member 32 blocks the right drainage hole, disconnecting the right drainage hole from the injection head 121, while the left drainage hole connects to the injection head 121. This allows the atomized matrix stored in the left storage chamber 111 corresponding to the left extrusion member 20 to be output from the injection head 121 through the left drainage and connecting hole 322. See also... Figure 5 As shown, when the right extrusion member 20 is squeezed, the sealing member 32 slides along the conduction channel 321 to the second position N. At the second position N, the sealing member 32 blocks the left drain hole, so that the left drain hole is disconnected from the injection head 121, while the right drain hole is connected to the injection head 121. Thus, the atomized matrix stored in the right liquid storage chamber 111 corresponding to the right extrusion member 20 can be output from the injection head 121 through the right drain hole and the connecting hole 322.

[0050] In this embodiment, the conductive member 32 can be considered as a block structure. A through conductive channel 321 is provided on the block structure, and a connecting hole 322 is opened on the channel wall of the conductive channel 321. When the sealing member 31 blocks any drain hole 113, the other drain hole 113 is in a connected state with at least part of the connecting hole 322.

[0051] When the blocking member 31 moves to the first position M or the second position N, the limiting member 33 can limit the blocking member 31 in the first position M or the second position N, preventing it from moving in the opposite direction. See also Figures 3-5 As shown, in this embodiment, two limiting members 33 can be provided. Both limiting members 33 are provided on the inner wall of the conduction channel 321, which can limit the blocking member 31 in the first position M or the second position N.

[0052] Specifically, the two limiting members 33 are located on the side of the sealing member 31 along the axis of the conduction channel 321 when the sealing member 31 is blocking one of its drain holes 113, which can limit the sealing member 31 in the first position M or the second position N.

[0053] Both limiting members 33 can be made of elastically deformable materials such as silicone or rubber, and protrude from the channel wall of the conduction channel 321. During the sliding of the sealing member 31 along the conduction channel 321, the limiting member 33 can be elastically deformed and store elastic potential energy when the sealing member 31 is squeezed. When the sealing member 33 slides to the first position M and blocks one of its drain holes 113, the limiting member 33 is in a convex state of restoring deformation. The limiting member 33 can release elastic potential energy and is in a convex state, abutting against the side of the sealing member 31 along the axis of the conduction channel 321 near the blocked drain hole 113, so as to limit the sealing member 31.

[0054] In a specific embodiment, when the blocking member 31 slides in the conduction channel 321, it can compress the limiting member 33, causing the limiting member 33 to be compressed and store elastic potential energy. When the blocking member 31 is in the first position M, one of the limiting members 33 is located on the side of the blocking member 31 along the axis of the conduction channel 321 near the blocked drain hole 113. This limiting member 33 releases elastic potential energy and becomes convex, thus restricting the blocking member 31 from moving in the opposite direction, while the other limiting member 33 is compressed by the blocking member 31. Similarly, when the blocking member 31 is in the second position N, the other limiting member 33 is located on the side of the blocking member 31 along the axis of the conduction channel 321 near the blocked drain hole 113. This other limiting member 33 releases elastic potential energy and becomes convex, thus restricting the blocking member 31 from moving in the opposite direction, while one of the limiting members 33 is also compressed by the blocking member 31. By limiting the sealing member 31 in the first position M or the second position N by the limiting member 33, the sealing effect of the sealing member 31 on the blocked drain hole 113 can be improved.

[0055] like Figures 2-5 As shown, the bottle body 10 has a partition 14 inside, and one end of the bottle body 10 is a closed end 15. The partition 14 divides the interior of the bottle body 10 into two liquid storage chambers 111. The end of the partition 14 facing the closed end 15 has a receiving groove 141, and the closed end 15 has a through hole 151, which communicates with the receiving groove 141 and the injection head 121. A drain hole 113 is located on the side wall of the receiving groove 141. A guide 32 is located inside the receiving groove 131, connecting the connecting hole 322 to the through hole 151. The two ends of the guide channel 321 are respectively connected to the drain holes 113 corresponding to the two liquid storage chambers 111.

[0056] In practical use, the user needs to hold the outer surface of the bottle body 10. To prevent slippage due to insufficient static friction between the user's hand and the outer surface of the bottle body 10, please refer to... Figure 1 As shown, an anti-slip structure 114 is also provided on the outer surface of the bottle body 10 to enhance the static friction between the outer surface of the bottle body 10 and the user's hand.

[0057] When replenishing the atomizing matrix to the atomizing device, to avoid confusion of the atomizing matrix, please refer to [link / reference needed]. Figure 1 As shown, at least one marking part 115 is provided on the outer surface of the bottle body 10. The marking part 115 is used to mark the liquid storage chamber 111. Specifically, the marking part 115 can be used to mark the type of atomizing matrix stored in the liquid storage chamber 111.

[0058] In this embodiment, two marking portions 115 can be provided on the outer surface of the bottle body 10. The two marking portions 115 correspond to two liquid storage chambers 111 respectively, so as to mark the type of atomizing matrix stored in each liquid storage chamber 111.

[0059] The marking section 115 includes a writing marking section or an adhesive marking section. The writing marking section allows for direct writing on the outer surface of the bottle 10, for example, by screen printing the type of atomizing matrix onto the marking section 115. The adhesive marking section allows for attaching a label or similar document with the writing marking to the location of the marking section. To facilitate direct writing or attaching, the marking section 115 may have at least one of the following: a frosted surface, multiple raised dots, or multiple recessed dots.

[0060] The liquid storage bottle 100 provided in this application provides e-liquid for the atomizing device. The e-liquid is prone to deterioration under light conditions. Therefore, the bottle body 10 is a light-shielding bottle body, for example, made of dark material. Of course, in other embodiments, a light-shielding sleeve can also be provided on the bottle body 10 to block light.

[0061] See Figure 1 and Figure 2 As shown, the bottle body 10 includes a main body 11 and a liquid filling cap 12. Two liquid storage chambers 111 are formed inside the main body 11, and each through hole 112 is opened on the main body 11. The main body 11 is also provided with a bottle mouth 116, which is a through hole 151 provided in the aforementioned closed end 15. In this embodiment, the atomizing matrix can be added to each liquid storage chamber 111 of the main body 11 through the bottle mouth 116, which is convenient for user operation. The drain hole 113 is in fluid communication with the bottle mouth 116. The liquid filling head 121 is formed on the liquid filling cap 12, which is detachably installed on the main body 11, and the liquid filling head 121 is sealed and connected to the bottle mouth 116.

[0062] See also Figure 1 and Figure 2 As shown, the bottle body 10 also includes an outer cap 13, which is detachably connected to the dispensing cap 12 to close or open the dispensing head 121. The outer cap 13 is provided to prevent leakage.

[0063] The injection head 121 is preferably needle-shaped or tapered with a small radial dimension, and the outer cover 13 is formed to fit the shape of the injection head 121.

[0064] In summary, the liquid storage bottle provided by this utility model allows the conductive component to connect the drain hole corresponding to one of the liquid storage chambers to the injection head when the extruder corresponding to that chamber is squeezed, while disconnecting the drain hole of the other liquid storage chamber from the injection head. This allows the atomizing matrix in the liquid storage chamber corresponding to the squeezed extruder to be added to the atomizing device through the drain hole and injection head. When a different type of atomizing matrix is ​​needed, the above operation is repeated for the other extruder. This liquid storage bottle can store two different types of atomizing matrices and provides only one type at a time, making it convenient for users to carry and operate.

[0065] The above-described specific examples are for illustrative purposes only and are not intended to limit the scope of this invention. Those skilled in the art to which this invention pertains can make various simple deductions, modifications, or substitutions based on the concept of this invention.

Claims

1. A liquid storage bottle, characterized in that, include: The bottle body has two relatively independent liquid storage chambers. Each liquid storage chamber has a drain hole and several through holes on its wall. The liquid storage chamber is configured to store liquid. One end of the bottle body is provided with an injection head. The drain hole is configured to connect the liquid storage chamber with the injection head. The injection head is configured to inject the liquid discharged through the drain hole into the device to be replenished. A plurality of extrusion members are disposed on the outer wall of the bottle body, and at least one of the extrusion members is connected to the liquid storage cavity through at least one of the through holes; the extrusion members are configured to provide pressurized gas to the corresponding liquid storage cavity through the through holes when extruded; A connecting component is disposed between the drain hole and the injection head. The connecting component is configured to, when the extruder corresponding to one of the liquid storage chambers is extruded, make the drain hole corresponding to that liquid storage chamber connected to the injection head, and block the connection between the drain hole corresponding to the other liquid storage chamber and the injection head.

2. The liquid storage bottle as described in claim 1, characterized in that, The conductive assembly includes a blocking component and a conductive component. The conductive component has a conductive channel, and both ends of the conductive channel are respectively connected to the drain holes of the two liquid storage chambers. The channel wall of the conductive channel has a connecting hole, and the connecting hole is connected to the injection head. The blocking component is slidably disposed in the conductive channel. When the squeezing member corresponding to one of the liquid storage chambers is squeezed, the drain hole corresponding to that liquid storage chamber is connected to the connecting hole, and the sealing member blocks the connection between the drain hole corresponding to the other liquid storage chamber and the connecting hole.

3. The liquid storage bottle as described in claim 2, characterized in that, The conductive assembly further includes a limiting member disposed on the inner wall of the conductive channel, and when one of its drainage holes is in communication with the connecting hole, the limiting member limits the blocking member.

4. The liquid storage bottle as described in claim 2, characterized in that, The bottle body has an internal partition, one end of which is a closed end. The partition divides the interior of the bottle body into two liquid storage chambers. The end of the partition facing the closed end has a receiving groove, and the closed end has a through hole that communicates with the receiving groove and the injection head. The side wall of the receiving groove has a drain hole. A guide is disposed inside the receiving groove and connects the connecting hole with the through hole. The two ends of the guide channel are respectively connected to the drain holes corresponding to the two liquid storage chambers.

5. The liquid storage bottle as described in claim 1, characterized in that, The outer surface of the bottle is also provided with an anti-slip structure.

6. The liquid storage bottle as described in claim 1, characterized in that, The outer surface of the bottle is also provided with at least one marking part, which is used to mark the liquid storage cavity.

7. The liquid storage bottle as described in claim 6, characterized in that, The marking section includes a writable marking section or a marking section that can be pasted.

8. The liquid storage bottle as described in claim 1, characterized in that, The bottle body is a light-proof bottle body.

9. The liquid storage bottle according to any one of claims 1-8, characterized in that, The bottle body includes a main body and a liquid filling cap. Two liquid storage chambers are formed inside the main body. Several through holes are opened on the main body. The main body is also provided with a bottle mouth. The liquid drain hole is in fluid communication with the bottle mouth. The liquid filling head is formed on the liquid filling cap. The liquid filling cap is detachably installed on the main body and makes the liquid filling head and the bottle mouth sealed and connected.

10. The liquid storage bottle as described in claim 9, characterized in that, The bottle body also includes an outer cap, which is detachably connected to the injection cap to close or open the injection head.

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