Rotary packaging bottle

Abstract

According to the rotary packaging bottle, the material storage cavity and the assembly cavity are formed in the packaging bottle body, the material storage cavity comprises the at least two independent inner containers, different fluid materials are stored in the inner containers, and when a user drives the rotary shell to rotate on the packaging bottle body, the fluid materials can be stored in the inner containers. And a linkage part on the inner wall of the rotating shell can drive the driving component to move in the pump body assembly, so that the corresponding pump body assembly extracts the fluid material in the corresponding inner container through the material pumping component, conveys the fluid material to be output from the discharging part and mixes the fluid material on the discharging part, and by adopting the design, a user operates the rotating shell, so that the fluid material can be mixed at the discharging part. According to the cosmetic packaging bottle, output of the fluid materials can be controlled, different fluid materials are only mixed on the discharging part, it can be ensured that the packaging bottle can provide fresh mixed cosmetics, and the maximum efficiency of active ingredients of the cosmetics and the freshness and stability of the materials are ensured.

Description

Technical Field

[0001] The utility model relates to the technical field of cosmetic containers, in particular to a rotary packaging bottle. Background Art

[0002] Fluid materials are usually stored in containers. Taking cosmetics as an example, cosmetic materials are usually stored in a bottle. When the cosmetics need to be used, the user needs to open the lid from the shell and then take out the cosmetics from the shell for use.

[0003] With the development of the cosmetics industry, consumers often need to mix multiple cosmetics for use. However, for existing cosmetic containers containing multiple fluid materials, the multiple fluid materials are usually mixed prematurely in the cosmetic containers, and the materials react prematurely, which will lead to decreased stability of the mixed materials and degradation of active ingredients, affecting the user experience.

[0004] The utility model is proposed in view of the deficiencies in the prior art. Utility Model Content

[0005] With respect to the cosmetic containers containing multiple fluid materials in the prior art mentioned above, the multiple fluid materials are usually mixed prematurely in the cosmetic containers, and the materials react prematurely, which will lead to decreased stability of the mixed materials and degradation of active ingredients, affecting the user experience.

[0006] The technical solution adopted by the utility model to solve its technical problems is:

[0007] A rotary packaging bottle comprises a packaging bottle body, a discharging portion is provided on the top of the packaging bottle body, a partition is provided in the packaging bottle body, the partition is used to divide the internal space of the packaging bottle body into a storage chamber and an assembly chamber which are arranged in sequence from bottom to top, the storage chamber comprises at least two independent inner tanks, each of the inner tanks stores fluid material respectively, a plurality of pump body assemblies which are respectively arranged corresponding to the inner tanks are arranged in the assembly chamber, a pumping member is provided between the input end of each pump body assembly and the corresponding inner tank, the output end of each pump body assembly is communicated with the discharging portion, a driving member is movably connected to each pump body assembly, a rotating shell is rotatably connected to the packaging bottle body, a linkage portion which corresponds to the driving member one by one is provided on the inner side wall of the rotating shell, when the rotating shell rotates on the packaging bottle body, the linkage portion can drive the driving member to move in the pump body assembly, so that the corresponding pump body assembly extracts the fluid material in the corresponding inner tank through the pumping member, and transports the fluid material to be mixed on the discharging portion.

[0008] In the rotary packaging bottle as described above, the pump body assembly is arranged transversely in the assembly cavity.

[0009] In the rotating packaging bottle as described above, adjacent linkage parts are arranged in opposite directions.

[0010] In the rotating packaging bottle as described above, at least one linkage protrusion is provided on the inner side wall of the rotating shell, each linkage protrusion is provided with two linkage parts, each linkage part includes a driving inclined surface provided on one side of the linkage protrusion, and the adjacent driving inclined surfaces are arranged in opposite directions.

[0011] In the rotary packaging bottle as described above, the assembly cavity is provided with an avoidance hole for avoiding the linkage protrusion.

[0012] In a rotating packaging bottle as described above, limiting protrusions are respectively provided on both sides of the avoidance hole, and a limiting position is formed between each limiting protrusion and the avoidance hole. One side of the limiting protrusion can be inserted into the corresponding limiting position, and the driving inclined surface of the limiting protrusion located in the limiting position can be abutted against the side wall of the limiting position.

[0013] In a rotating packaging bottle as described above, each of the driving components includes a piston rod, one end of which extends into the pump body assembly, and the other end of the piston rod extends toward the inner side wall of the rotating shell and can be abutted against the corresponding linkage part. The driving component also includes an elastic return member, which can maintain the piston rod in a state of abutting against the linkage part and / or the inner side wall of the rotating shell.

[0014] In the rotary packaging bottle as described above, each pump body assembly includes a one-way pump, an output pipe and an input pipe, the input pipe and the output pipe are respectively connected to the one-way pump, the output end of the output pipe is connected to the discharge part, and the input pipe is connected to the extraction component.

[0015] In the rotary packaging bottle as described above, the material extraction component includes a soft material bag arranged in the corresponding inner liner, the fluid material is located in the soft material bag, and the input tube can absorb the fluid material into the one-way pump through the soft material bag.

[0016] In the rotary packaging bottle as described above, the discharging portion includes a mixing platform and a plurality of discharging holes arranged on the mixing platform, and the plurality of discharging holes correspond one-to-one to the pump body components.

[0017] The beneficial effects of the utility model are:

[0018] The utility model discloses a rotary packaging bottle, by arranging a material storage cavity and an assembly cavity in a packaging bottle body, and the material storage cavity includes at least two independent inner tanks, each inner tank stores different fluid materials, when a user drives a rotating shell to rotate on the packaging bottle body, a linkage part on the inner wall of the rotating shell can drive the driving member to move in a pump body assembly, so that the corresponding pump body assembly extracts the fluid material in the corresponding inner tank through the extraction member, and conveys the fluid material to be output from a discharge part, and mixes it at the discharge part, adopting such a design, the user can control the output of the fluid material by operating the rotating shell, and different fluid materials are only mixed at the discharge part, which can ensure that the packaging bottle can provide freshly mixed cosmetics, ensure the maximum efficacy of the active ingredients of the cosmetics and the freshness and stability of the material body, and reduce the quality degradation of the material body caused by chemical reactions or physical changes caused by premature mixing during storage or use.

[0019] The utility model will be further described below in conjunction with the accompanying drawings and specific implementation methods. BRIEF DESCRIPTION OF THE DRAWINGS

[0020] Figure 1 It is a schematic diagram of the structure of the utility model;

[0021] Figure 2 This is a schematic diagram of the structure of the utility model (hidden cover);

[0022] Figure 3 This is a schematic diagram of the structure of the utility model (the cover body and the top cover are hidden and in the initial state);

[0023] Figure 4 This is a schematic diagram of the structure of the utility model (the cover body and the top cover are hidden and rotated clockwise);

[0024] Figure 5 This is a schematic diagram of the structure of the utility model (the cover body and the top cover are hidden and rotated counterclockwise);

[0025] Figure 6 This is one of the exploded schematic diagrams of the utility model;

[0026] Figure 7 This is the second exploded schematic diagram of the utility model;

[0027] Figure 8 This is the third exploded schematic diagram of the present utility model. DETAILED DESCRIPTION

[0028] The implementation modes of the present utility model are described in detail below in conjunction with the accompanying drawings.

[0029] like Figures 1 to 8As shown, a rotary packaging bottle of the present embodiment comprises a packaging bottle body 1, a discharging portion 11 is provided on the top of the packaging bottle body 1, a partition portion 12 is provided inside the packaging bottle body 1, the partition portion 12 is used to divide the internal space of the packaging bottle body 1 into a storage chamber 2 and an assembly chamber 3 which are arranged in sequence from bottom to top, the storage chamber 2 comprises at least two independent inner liners 22, each of the inner liners 22 stores fluid material, a plurality of pump body assemblies 4 which are respectively arranged corresponding to the inner liners 22 are arranged in the assembly chamber 3, a pumping member is provided between the input end of each of the pump body assemblies 4 and the corresponding inner liners 22, the output end of each of the pump body assemblies 4 is communicated with the discharging portion 11, a driving member 5 is movably connected to each of the pump body assemblies 4, a rotating shell 14 is rotatably connected to the packaging bottle body 1, and a linkage portion 7 which corresponds to the driving member 5 is provided on the inner side wall of the rotating shell 14.

[0030] Specifically, a storage chamber 2 and an assembly chamber 3 are provided in the packaging bottle body 1, and the storage chamber 2 includes at least two independent inner liner 22, each inner liner 22 stores different fluid materials. When the user drives the rotating shell 14 to rotate on the packaging bottle body 1, the linkage part 7 on the inner wall of the rotating shell 14 can drive the driving member 5 to move in the pump body assembly 4, so that the corresponding pump body assembly 4 extracts the fluid material in the corresponding inner liner 2 through the extraction member, and transports the fluid material to be output from the discharge part 11, and mixes it on the discharge part 11. With such a design, the user can control the output of the fluid material by operating the rotating shell 14, and different fluid materials are only mixed on the discharge part 11, which can ensure that the packaging bottle can provide freshly mixed cosmetics, ensure the maximum efficacy of the active ingredients of the cosmetics and the freshness and stability of the material body, and reduce the quality degradation of the material body caused by chemical reactions or physical changes caused by premature mixing during storage or use.

[0031] like Figures 1 to 8 As shown, the pump assembly 4 of this embodiment is arranged transversely in the assembly chamber 3 in order to better cooperate with the operation of the rotating shell 14 and the driving member 5, and to effectively utilize the space layout in the packaging bottle body 1. This layout of the pump assembly can make it easier to connect them with the corresponding inner liner 22, and can directly pump the fluid material to the discharge portion 11.

[0032] When the user rotates the rotating shell on the packaging bottle, the linkage part 7 on the inner wall of the rotating shell will drive the driving member 5 accordingly. This design allows the user to synchronously activate the pump body assembly through the rotating action, so that the various fluid materials in the storage chamber 2 are transported through their respective pump body assemblies 4 and finally mixed in the discharge part 11.

[0033] The horizontal setting may also help to more evenly distribute the internal pressure, reduce the wear of the pump body components during use, and improve the durability of the entire packaging bottle. In addition, such a design also takes into account the convenience of users when holding and operating the packaging bottle, ensuring comfort during use and intuitive operation.

[0034] like Figures 1 to 8 As shown, the adjacent linkage parts 7 of this embodiment are arranged in opposite directions; such a design allows the user to drive the activities of different driving components to output different fluid materials to the discharge part 11 regardless of whether the user rotates the rotating shell 14 clockwise or counterclockwise. The user can more accurately control the output amount of each fluid material. For example, when rotating clockwise, a part of the pump body assembly can be prompted to extract fluid for output, while other parts of the pump body assembly remain stationary. When rotating counterclockwise, another part of the pump body assembly can be prompted to extract fluid for output, while the pump body assembly that has just extracted fluid remains stationary. This control method greatly increases the flexibility and accuracy of use.

[0035] Specifically, taking the case where there are two inner liners 22, when the user rotates the rotating shell 14 clockwise or counterclockwise, he can only control one of the pump body components to extract the fluid material in the corresponding inner liners 22 and output it to the discharge part 11. The user can choose a single fluid material according to his own needs, or output two fluid materials and mix them for use, thereby realizing the unique needs of accurately controlling multiple groups of cosmetics, allowing users to obtain a more personalized and customized use experience.

[0036] like Figures 1 to 8 As shown, at least one linkage protrusion 141 is provided on the inner side wall of the rotating shell 14 of this embodiment, and each linkage protrusion 141 is provided with two linkage parts 7, and each linkage part 7 includes a driving inclined surface arranged on one side of the linkage protrusion 141, and adjacent driving inclined surfaces are arranged in opposite directions.

[0037] Specifically, when the rotating shell 14 is rotated in one direction, each of the linkage protrusions 141 also rotates accordingly. At this time, the driving inclined surface on one side of each of the linkage protrusions 141 can force the corresponding driving component 5 to move toward the direction close to the pump body assembly 4, thereby driving the pump body assembly 4 to output the fluid material therein, and the driving inclined surface on the other side moves away from the corresponding driving component 5 and will not drive the corresponding driving component 5 to move.

[0038] When the rotating shell 14 rotates in the opposite direction, the driving inclined surface that was not originally involved in the activation will gradually move toward the direction close to the corresponding pump body assembly 4 and begin to force the driving member 5 on the other side to move, while the driving inclined surface that was originally involved in the activation will gradually retreat and no longer force the corresponding driving member 5. At this time, the driving member 5 will gradually return to its initial position and move away from the pump body assembly 4. The pump body assembly 4 will extract the fluid material in the corresponding inner tank into the pump body assembly 4.

[0039] This design can achieve the suction and output of fluid by the pump body assembly 4 by simply changing the rotation direction of the rotating shell, thereby increasing the flexibility of operation. This design utilizes the principle of mechanical linkage and realizes complex control functions through the clever combination of the rotating shell, the linkage protrusion and the driving ramp. The overall structure is relatively simple, which is easy to manufacture and maintain. Moreover, since each rotation cooperates with the pump body assembly 4 through the corresponding driving ramp and the driving member 5, the fluid delivery volume can be controlled very accurately.

[0040] like Figures 1 to 8 As shown, the linkage protrusion 141 of this embodiment is in an inverted trapezoidal shape, that is, the width of the linkage protrusion 141 gradually narrows from the end connected to the inner wall of the rotating shell 14 to the end of the linkage protrusion 141 close to the pump body assembly 4, and the driving inclined surface is the inclined edges on both sides of the linkage protrusion 141.

[0041] When the rotating shell 14 rotates, due to the inverted trapezoidal design of the linkage protrusion 141, the oblique edges on both sides (i.e., the driving inclined surfaces) will contact the driving member 5. This contact depends on the specific inclination angle of the driving inclined surfaces, and can effectively convert the rotational motion of the rotating shell 14 into the linear motion of the driving member 5.

[0042] Specifically, the combination of the inverted trapezoidal linkage protrusion 141 and the oblique edges on both sides provides an efficient force transmission method. This structural design maximizes the driving force of the drive component 5, thereby improving the overall efficiency of the pump body assembly 4.

[0043] like Figures 1 to 8 As shown, the assembly cavity of this embodiment is provided with an avoidance hole 71 for avoiding the linkage protrusion 141, and the driving member 5 can pass through the avoidance hole 71 to connect with the driving inclined surface, and, by pre-setting the avoidance hole, it can be ensured that there is a space for the linkage protrusion to move on the packaging bottle body to support the cooperation between the linkage protrusion and the driving member 5, and ensure that the linkage protrusion 141 can move with the rotation of the rotating shell 14 without interference, which helps to improve the overall operating performance of the packaging bottle, and the user can open or close the bottle more smoothly when using it.

[0044] like Figures 1 to 8As shown, limiting protrusions 72 are respectively provided on both sides of the avoidance hole 71 of the present embodiment, and a limiting position 73 is formed between each limiting protrusion 72 and the avoidance hole 71. One side of the limiting protrusion 72 can be inserted into the corresponding limiting position 73, and the driving inclined surface of the limiting protrusion 72 located in the limiting position 73 can be abutted against the side wall of the limiting position 73 to limit the rotating shell 14 from continuing to rotate in the same direction.

[0045] Specifically, the limiting mechanism formed by the limiting protrusion 72 and the limiting latch 73 ensures that the rotating shell 14 cannot continue to rotate when it reaches a certain angle. This design effectively prevents excessive rotation, reduces the risk of damage, and ensures the correct use of the device.

[0046] By snapping the limiting protrusion 72 into the corresponding limiting position 73, the rotation position of the rotating shell 14 can be accurately positioned. This precise positioning not only helps to ensure safety during use, but also improves the user experience, making the operation smoother and more intuitive.

[0047] like Figures 1 to 8 As shown, each of the driving components 5 of this embodiment includes a piston rod, one end of which extends into the pump body assembly 4, and the other end of the piston rod extends toward the inner wall of the rotating shell 14 and can be abutted against the corresponding linkage part 7. The driving component 5 also includes an elastic return member, which can maintain the piston rod in a state of abutting against the linkage part 7 and / or the inner wall of the rotating shell 14.

[0048] Preferably, the elastic return member of this embodiment includes an elastic spring, which is sleeved on the outside of the piston rod, one end of the elastic spring is against the pump body assembly 4, and the other end is against the spring fixing part on the piston rod (for example, the fixing protrusion on the outer wall of the piston rod).

[0049] The piston rod is the core part of the driving member 5, one end of which extends into the pump body assembly 4, and the other end extends toward the inner wall of the rotating shell 14. The cooperation between the piston rod and the pump body assembly can achieve precise fluid control.

[0050] The function of the elastic spring is to ensure that one end of the piston rod is always in close contact with the linkage portion 7 and / or the inner side wall of the rotating shell 14. This design ensures the reset function and continuity of the system.

[0051] When the rotating shell 14 is rotated in one direction (such as clockwise), the driving inclined surface on one side of each linkage protrusion 141 can force the corresponding piston rod to move in the direction close to the pump body assembly 4, so that the piston rod on this side gradually moves toward the inside of the pump body assembly 4 along the driving inclined surface, compressing the space inside the pump body assembly 4, so as to output the fluid material in the pump body assembly 4 from the output end of the pump body assembly 4 to the discharge portion 11, and the elastic spring on this side is further compressed between the piston rod and the pump body assembly 4 under the pressure of the movement of the piston rod;

[0052] When the force on the rotating shell 14 is removed, the elastic spring on this side can elastically recover and rebound, driving the piston rod on this side to gradually move along the driving inclined surface away from the pump body assembly 4, so that negative pressure is formed in the pump body assembly 4. The pump body assembly 4 extracts the fluid material in the inner tank through the extraction member. When the end of the piston rod on this side moves to the connection between the driving inclined surface and the rotating shell 14, the output of the fluid material on this side and the extraction action are completed;

[0053] When the rotating shell 14 rotates in one direction (e.g., clockwise), the driving inclined surface on the other side moves away from the corresponding piston rod. At this time, the elastic spring on the piston rod on this side can keep the end of the piston rod away from the pump body assembly 4 in a state of abutting against the inner wall of the rotating shell 14, so that the piston rod on this side continues to maintain the initial state on the pump body assembly 4.

[0054] When the force on the rotating shell 14 is removed, the driving ramp on the other side moves toward the direction close to the corresponding piston rod and resets to the initial position. When the rotating shell 14 moves in the opposite direction (such as counterclockwise), the working principles of the piston rod, driving ramp and pump body assembly 4 on this side are consistent with the working principles of the piston rod, driving ramp and pump body assembly 4 on the other side, which will not be repeated here. That is, the system design supports bidirectional operation. When the rotating shell 14 rotates counterclockwise, the working principles of the relative piston rod and driving ramp are the same as when rotating clockwise. This design increases the flexibility and application scenarios of the pump body assembly.

[0055] Preferably, the design of the elastic spring not only ensures that the piston rod is always in close contact with the linkage portion and / or the inner side wall of the rotating shell, but also provides an automatic reset function, thereby increasing the reliability and sustainability of the system.

[0056] The cooperation between the piston rod and the pump body assembly can achieve precise fluid control, which is critical for fluid delivery and fine operation. Through the rotation of the rotating shell and the movement of the piston rod, the fluid material can be effectively output and extracted when needed, ensuring efficient fluid processing capabilities.

[0057] Preferably, a first corresponding inclined surface 51 corresponding to the driving inclined surface is provided on the side of the piston rod of this embodiment away from the pump body assembly 4, and the first corresponding inclined surface 51 abuts against the driving inclined surface. The close abutment between the first corresponding inclined surface 51 and the driving inclined surface ensures effective transmission of force. When the rotating shell rotates, its driving inclined surface and the first corresponding inclined surface 51 on the piston rod generate direct force, thereby achieving more precise and effective force transmission.

[0058] Specifically, the close contact between the first corresponding inclined surface 51 and the driving inclined surface reduces the gap and friction between the parts, thereby reducing the wear during long-term use and increasing the service life of the pump body assembly system.

[0059] And through this design, the movement of the piston rod is more precise, thereby providing more delicate fluid control. The cooperation between the first corresponding inclined surface 51 and the driving inclined surface makes the movement of the piston rod during the resetting process smoother, reduces the jamming phenomenon, and improves the smoothness of the overall operation.

[0060] Preferably, a second corresponding inclined surface 52 corresponding to the inner wall of the rotating shell 14 is further provided on the side of the piston rod away from the pump body assembly 4 of this embodiment, and the surface curvature of the second corresponding inclined surface 52 is similar to or equal to the curvature of the inner wall of the rotating shell 14.

[0061] Specifically, the second corresponding inclined surface 52 matches the curvature of the inner wall of the rotating shell 14, which means that during the rotation of the rotating shell, the contact area between the inactivated piston rod on the other side and the inner wall of the rotating shell 14 can be maximized through the second corresponding inclined surface 52, so that the rotating shell 14 can provide stable support for the inactivated piston rod.

[0062] like Figures 1 to 8 As shown, each pump body assembly 4 of this embodiment includes a one-way pump 41, an output pipe 42 and an input pipe 43. The input pipe 43 and the output pipe 42 are respectively connected to the one-way pump 41, the output end of the output pipe 42 is connected to the discharge part 11, and the input pipe 43 is connected to the pumping component.

[0063] Specifically, when the piston rod moves into the one-way pump 41 , the piston rod compresses the internal space of the one-way pump 41 so as to squeeze the material in the one-way pump 41 onto the mixing platform through the output pipe 42 .

[0064] When the piston rod moves away from the one-way pump 41, negative pressure is formed inside the one-way pump 41. The one-way pump 41 draws the material in the inner tank into the one-way pump 41 through the input pipe 43 and the pumping member, allowing the liquid to enter the pump body to prepare for the next pumping.

[0065] Specifically, the function of the one-way pump 41 is to allow liquid to flow in one direction while preventing reverse flow, which ensures that the material can only flow from the input pipe 43 to the output pipe 42, and the material will not flow back to the inner tank, avoiding contamination of the material and material loss, and improving the sealing performance of the container.

[0066] like Figures 1 to 8 As shown, the material extraction component of this embodiment includes a soft material bag arranged in the corresponding inner liner 22, the fluid material is located in the soft material bag, and the input tube 43 can absorb the fluid material into the one-way pump 41 through the soft material bag.

[0067] Specifically, the soft material bag is usually a flexible, squeezable packaging material, which can store fluid materials inside. During the suction process of the one-way pump 41, the soft material bag is continuously contracted and squeezed to force the fluid material inside it to move into the one-way pump 41. When the external pressure is removed, due to the closure of the one-way pump 41, the soft material bag will not expand, and will continue to maintain the contracted state, continuously forcing the fluid material to prepare for the next discharge action. In addition, because the soft material bag can completely collapse when the material is used, the amount of remaining fluid material can be minimized to reduce waste.

[0068] Furthermore, by combining the one-way pump 41 and the soft material bag, it is possible to avoid using a complex pump or piston structure, simplify the packaging and extraction system, reduce production costs, and improve user usability.

[0069] Furthermore, placing the one-way pump 41 on the top of the soft material bag means that the fluid material will be concentrated at the bottom of the soft material bag due to gravity when not being pressed out, which helps to improve the suction efficiency of the fluid material when pressing.

[0070] In another embodiment, the extraction component includes an extraction pipe, which extends to the bottom of the inner container and extracts the fluid material in the inner container through the negative pressure of the one-way pump 41.

[0071] Suitable extraction components can be selected according to actual needs.

[0072] like Figures 1 to 8 As shown, the packaging bottle body 1 of this embodiment further includes a cover 15 and a bottle body 13 , the discharge portion 11 is disposed on the top of the bottle body 13 , the cover 15 is detachably connected to the bottle body 13 , and the cover 15 is used to cover the discharge portion 11 .

[0073] With such a design, when the user is not using cosmetics, the cover 15 can protect the discharging portion 11 from being polluted by dust and pollutants.

[0074] Preferably, the bottle body 13 is provided with an assembly groove, and the rotating shell 14 is assembled into the assembly groove, so that the rotating shell 14 and the packaging bottle body 1 appear to be integrated, which is more concise and beautiful.

[0075] Preferably, the curvature of the outer wall of the rotating shell 14 is similar to the curvature of the outer wall of the bottle body 13, so that the packaging bottle body 1 looks integrated, more simple and beautiful.

[0076] Preferably, the cover 15 can also be used to cover the rotating shell 14, so as to prevent the user from accidentally touching the rotating shell 14 and causing the discharging part 11 to discharge materials, thereby ensuring the cleanliness of the container and avoiding waste of cosmetics.

[0077] like Figures 1 to 8 As shown, the discharge portion 11 of this embodiment includes a mixing platform 111 and a plurality of discharge holes 112 disposed on the mixing platform 111 , and the plurality of discharge holes 112 correspond one-to-one to the pump body assembly 4 .

[0078] Specifically, each of the pump body components 4 has an independent discharge hole 112, so that the material drawn out by each pump body component 4 is independent of each other when it reaches the mixing platform 11. After the materials of different components are discharged through their corresponding discharge holes 112, they are mixed on the mixing platform to ensure the stability of the mixed materials and the active ingredients.

[0079] This design ensures that each material is transported and discharged through its own dedicated channel, reducing cross contamination between different materials.

[0080] Preferably, the discharging portion 11 further includes a mixing groove, and the mixing platform 111 is the bottom surface of the mixing groove.

[0081] Specifically, with this design, the mixing groove can provide a boundary to prevent different materials from flowing into the bottle body 13 after being discharged through the discharge hole 112, causing contamination of the bottle body and waste of materials. In addition, when the user mixes substances, the mixing groove can ensure that the mixed substances remain in a relatively concentrated area, which makes the operation cleaner and more orderly.

[0082] Preferably, the number of the inner containers 22 in this embodiment is two, which can be loaded with two different fluid materials.

[0083] Specifically, taking the case where there are two inner tanks 22 as an example, there are two one-way pumps 41 and two piston rods, one linkage protrusion 141 , and two driving inclined surfaces.

[0084] When the user drives the rotating shell 14 to rotate clockwise, the driving inclined surface on one side of the linkage protrusion 141 can force the corresponding piston rod to move toward the one-way pump 41, so that the piston rod on this side gradually moves toward the inside of the one-way pump 41 along the driving inclined surface, compressing the internal space of the one-way pump 41, so as to output the fluid material in the one-way pump 41 to the mixing platform 111 through the output pipe 42 and the discharge hole 112, and the elastic spring on this side is further compressed between the piston rod and the one-way pump 41 under the pressure of the movement of the piston rod;

[0085] When the force on the rotating shell 14 is removed, the elastic spring on this side elastically recovers and rebounds, driving the piston rod on this side to gradually move along the driving inclined surface away from the one-way pump 41, so that negative pressure is formed in the one-way pump 41. The one-way pump 41 extracts the fluid material in the soft material bag through the input pipe 43. When the end of the piston rod on this side moves to the connection between the driving inclined surface and the rotating shell 14, the output and extraction of the fluid material on this side are completed;

[0086] When the rotating shell 14 rotates clockwise, the driving inclined surface on the other side moves away from the corresponding piston rod. At this time, the elastic spring on the piston rod on this side can keep the end of the piston rod away from the one-way pump 41 in a state of abutting against the inner wall of the rotating shell 14, so that the piston rod on this side continues to maintain the initial state on the one-way pump 41.

[0087] When the force on the rotating shell 14 is removed, the driving slope on the other side moves toward the direction close to the corresponding piston rod and resets to the initial position. When the rotating shell 14 moves counterclockwise, the working principles of the piston rod, driving slope and pump body assembly 4 on this side are consistent with the working principles of the piston rod, driving slope and pump body assembly 4 on the other side, that is, the system design supports bidirectional operation. When the rotating shell 14 rotates counterclockwise, the working principles of the relative piston rod and driving slope are the same as when rotating clockwise. At this time, the fluid material of the other inner tank is output to the mixing platform 111 through the output pipe 42 and the discharge hole 112, and then the two fluid materials are mixed at the discharge part 11.

[0088] When one of the fluid materials is needed, the user only needs to drive the rotating shell 14 to rotate in one direction, and the driving method is simple and convenient.

[0089] Specifically, taking the case where the number of the inner tanks 22 is four, the number of the one-way pumps 41 and the piston rods is four, the number of the linkage protrusions 141 is two, and the number of the driving inclined surfaces is four.

[0090] When the user drives the rotating shell 14 to rotate clockwise, the driving inclined surface on one side of each linkage protrusion 141 can force the corresponding piston rod to move toward the one-way pump 41 to transport the two fluid materials to the mixing platform 111 .

[0091] When the user drives the rotating shell 14 to rotate counterclockwise, the driving inclined surface on the other side of each linkage protrusion 141 can force the corresponding piston rod to move toward the one-way pump 41 to transport the two fluid materials to the mixing platform 111, and then the four fluid materials are mixed on the mixing platform 111, wherein the two linkage protrusions 141 can simultaneously drive the two pump body assemblies 4 to extract the fluid materials in the inner tank.

[0092] Specifically, taking the number of inner shells 22 as three as an example, the number of one-way pumps 41 and piston rods is three, the number of linkage protrusions 141 is two, the number of driving inclined surfaces is three, one linkage protrusion 141 has two driving inclined surfaces, and the other linkage protrusion 141 has one driving inclined surface.

[0093] When the user drives the rotating shell 14 to rotate in one direction, the driving inclined surface on one side of each linkage protrusion 141 can force the corresponding piston rod to move toward the one-way pump 41 to transport the two fluid materials to the mixing platform 111 .

[0094] When the user drives the rotating shell 14 to rotate in the other direction, the driving inclined surface on the other side of the linkage protrusion 141 with two driving inclined surfaces can force the corresponding piston rod to move in the direction close to the one-way pump 41 to convey a fluid material to the mixing platform 111, and then the three fluid materials are mixed on the mixing platform 111, wherein the driving inclined surfaces on the same side of the two linkage protrusions 141 can simultaneously extract the fluid material in the inner tank by driving two pump body components 4, and the driving inclined surface on the other side of the linkage protrusion 141 with two driving inclined surfaces can extract the fluid material in the inner tank by driving one pump body component 4.

[0095] As described above, multiple implementation methods are provided in combination with specific contents, and the specific implementation of this application is not limited to these descriptions. Any similarity or similarity with the method, structure, etc. of this application, or any technical deduction or replacement made on the premise of the concept of this application, shall be deemed to be within the scope of protection of this application.

Claims

1. A rotary packaging bottle, characterized in that: The invention comprises a packaging bottle body (1), wherein a discharge portion (11) is provided at the top of the packaging bottle body (1), and a partition portion (12) is provided inside the packaging bottle body (1), wherein the partition portion (12) is used to divide the internal space of the packaging bottle body (1) into a storage chamber (2) and an assembly chamber (3) which are arranged in sequence from bottom to top, wherein the storage chamber (2) comprises at least two mutually independent inner bladders (22), wherein each of the inner bladders (22) stores a fluid material, wherein a plurality of pump body assemblies (4) which are respectively arranged corresponding to the inner bladders (22) are arranged in the assembly chamber (3), wherein a material extraction component is provided between the input end of each pump body assembly (4) and the corresponding inner bladder (22), and wherein each of the pump body assemblies (4) is provided with a material extraction component. The output end of the pump body assembly (4) is communicated with the discharge portion (11), and each of the pump body assemblies (4) is movably connected to a driving member (5). A rotating shell (14) is rotatably connected to the packaging bottle body (1), and a linkage portion (7) corresponding to the driving member (5) is provided on the inner side wall of the rotating shell (14). When the rotating shell (14) rotates on the packaging bottle body (1), the linkage portion (7) can drive the driving member (5) to move in the pump body assembly (4), so that the corresponding pump body assembly (4) extracts the fluid material in the corresponding inner liner (22) through the extraction member, and transports the fluid material to be mixed on the discharge portion (11).

2. The rotary packaging bottle according to claim 1, characterized in that: The pump body assembly (4) is arranged transversely in the assembly cavity (3).

3. The rotary packaging bottle according to claim 1, characterized in that: The adjacent linkage parts (7) are arranged in opposite directions.

4. The rotary packaging bottle according to claim 1, characterized in that: At least one linkage protrusion (141) is provided on the inner side wall of the rotating shell (14), each linkage protrusion (141) is provided with two linkage parts (7), each linkage part (7) comprises a driving inclined surface arranged on one side of the linkage protrusion (141), and adjacent driving inclined surfaces are arranged in opposite directions.

5. The rotary packaging bottle according to claim 4, characterized in that: The assembly cavity is provided with an avoidance hole (71) for avoiding the linkage protrusion (141).

6. The rotary packaging bottle according to claim 5, characterized in that: Limiting protrusions (72) are respectively provided on both sides of the avoidance hole (71), and a limiting clamping position (73) is formed between each of the limiting protrusions (72) and the avoidance hole (71). One side of the limiting protrusion (72) can be clamped into the corresponding limiting clamping position (73), and the driving inclined surface of the limiting protrusion (72) located in the limiting clamping position (73) can be abutted against the side wall of the limiting clamping position (73).

7. The rotary packaging bottle according to claim 1, characterized in that: Each of the driving components (5) comprises a piston rod, one end of which extends into the pump body assembly (4), and the other end of which extends toward the inner side wall of the rotating shell (14) and is capable of abutting against the corresponding linkage portion (7). The driving component (5) also comprises an elastic return member, which is capable of maintaining the piston rod in a state of abutting against the linkage portion (7) and / or the inner side wall of the rotating shell (14).

8. The rotary packaging bottle according to claim 1, characterized in that: Each of the pump body components (4) comprises a one-way pump (41), an output pipe (42) and an input pipe (43); the input pipe (43) and the output pipe (42) are respectively connected to the one-way pump (41); the output end of the output pipe (42) is connected to the discharge portion (11); and the input pipe (43) is connected to the extraction component.

9. The rotary packaging bottle according to claim 8, characterized in that: The material extraction component comprises a soft material bag arranged in the corresponding inner liner (22), the fluid material is located in the soft material bag, and the input tube (43) can absorb the fluid material into the one-way pump (41) through the soft material bag.

10. The rotary packaging bottle according to claim 1, characterized in that: The discharge portion (11) comprises a mixing platform (111) and a plurality of discharge holes (112) arranged on the mixing platform (111), and the plurality of discharge holes (112) correspond one-to-one to the pump body assembly (4).

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