Cream bottle with dual-mode discharging function

Abstract

The utility model discloses a cream bottle with dual-mode discharge, which comprises a bottle body and a discharge component, and the discharge component comprises a shoulder sleeve, a lining, a discharge part, a rotary cover and a vacuum pump; the lining covers the opening in the upper end of the bottle body and is fixedly connected with the bottle body; the shoulder sleeve is fixedly connected to the outside of the lining and sleeves the outer side of the discharging piece; the discharging piece comprises a discharging opening, and the discharging opening is communicated with the interior of the bottle body; the vacuum pump is fixedly connected into the lining, the lower end of the vacuum pump is inserted into the bottle body, the upper end of the vacuum pump is connected with the discharging piece, and the discharging piece is pressed so that materials absorbed by the vacuum pump can be discharged from the discharging opening; the rotary cover is movably connected to the outside of the discharging piece, and the discharging piece can be driven to ascend and descend by rotating the rotary cover. Discharging can be achieved by directly pressing the discharging piece, discharging can also be achieved by rotating the rotating cover to drive the discharging piece to move up and down, and therefore pressing and rotating double-mode discharging is achieved, and the user experience feeling is good.

Description

Technical Field

[0001] This utility model relates to the field of container technology, and more specifically, to a cream bottle with dual-mode dispensing. Background Technology

[0002] Most existing vacuum cream bottles only offer one of two dispensing methods: manual pressing or rotating pressing. This cannot simultaneously meet the needs of both pressing and rotating dispensing, resulting in a limited dispensing mode and an unsatisfactory user experience. Therefore, there is an urgent need to improve this. Utility Model Content

[0003] The purpose of this invention is to overcome the shortcomings of the prior art and provide a cream bottle with dual-mode dispensing. Dispensing can be achieved by directly pressing the dispensing part or by rotating the rotating cap to move the dispensing part up and down, thus realizing dual-mode dispensing of pressing and rotating, resulting in a better user experience.

[0004] To achieve the above objectives, the present invention adopts the following technical solution: a cream bottle with dual-mode dispensing, comprising a bottle body and a dispensing assembly, wherein the dispensing assembly comprises a shoulder sleeve, an inner liner, a dispensing component, a rotating cap, and a vacuum pump;

[0005] The inner liner cap is closed to the upper opening of the bottle body and is fixedly connected to the bottle body;

[0006] The shoulder sleeve is fixedly connected to the outside of the inner liner, and the shoulder sleeve is fitted on the outside of the discharge part;

[0007] The discharge component includes a discharge port, which is connected to the inside of the bottle body;

[0008] The vacuum pump is fixedly connected to the inside of the liner. The lower end of the vacuum pump is inserted into the bottle body and the upper end is connected to the discharge part. Pressing the discharge part will cause the material absorbed by the vacuum pump to be discharged from the discharge port.

[0009] The rotating cover is movably connected to the outside of the discharge component. Rotating the rotating cover can drive the discharge component to rise and fall.

[0010] Furthermore, the discharge component is connected to the rotating cover via a rotating bracket. The outer side of the rotating bracket is fixedly connected to the rotating cover and movably connected to the shoulder sleeve. The inner side of the rotating bracket is movably connected to the discharge component, and the discharge component can move up and down on the rotating bracket.

[0011] Furthermore, the inner wall of the rotating bracket is provided with a guide portion, and the discharge component includes a second annular rib. A first protrusion is provided on the outer side of the second annular rib. The first protrusion is connected to the guide portion and can move along the guide portion.

[0012] Furthermore, the upper part of the first protrusion abuts against the lower part of the guide part. The guide part includes a plurality of guide units connected end to end. The guide unit includes a first track surface, a second track surface, a third track surface, and a fourth track surface. The first track surface and the second track surface located in the same guide unit are connected through the third track surface, and the side of the second track surface away from the first track surface is connected to the fourth track surface. The side of the fourth track surface away from the second track surface is connected to the first track surface of the adjacent guide unit. The first track surface is lower than the second track surface. The third track surface is an inclined surface, and the fourth track surface is a vertical surface.

[0013] When the upper part of the first protrusion abuts against the lower part of the first track surface, the discharge component is at its lowest point; when the upper part of the first protrusion abuts against the lower part of the second track surface, the discharge component is at its highest point.

[0014] Furthermore, the lining includes a third support surface, the upper part of which is provided with a first annular rib, the periphery of which is provided with a plurality of first limiting grooves, and the inner wall of the second annular rib is provided with a plurality of second protrusions, the second protrusions being inserted into the corresponding first limiting grooves for limiting.

[0015] Furthermore, the shoulder sleeve includes an annular platform, the inner wall of which is provided with a second support surface, the inner wall of which is provided with a second rib, the second rib being sleeved on the outside of the rotating bracket, the outside of which is provided with a support rib, the lower part of which abuts against the upper part of the second support surface, the lower part of which is provided with a buckle, the upper part of which is fastened to the lower part of the second rib, and the rotating cover includes a third annular rib, the lower end of which is located above the support rib and fastened to the rotating bracket.

[0016] Furthermore, the discharge port is internally connected to a discharge nozzle, which can open or close the discharge port. The inner wall of the discharge port is provided with multiple limiting ribs, and a discharge channel is provided between two adjacent limiting ribs. The discharge nozzle is made of flexible material and includes an annular plate at the upper part of the discharge port. A protruding post is provided at the lower part of the annular plate, which penetrates the discharge port. A third protruding rib is provided on the outer side of the protruding post, and the upper part of the third protruding rib abuts against the lower part of the limiting rib. The annular plate can deform to make the discharge channel communicate with the outside of the discharge port.

[0017] Furthermore, the bottle body has an installation cavity inside, an inner liner is installed in the installation cavity, a piston is installed inside the inner liner, the outer side of the piston is sealed to the inner wall of the inner liner, a first through hole is provided at the lower part of the inner liner, the first through hole communicates with the installation cavity, a storage cavity is provided inside the inner liner, the storage cavity is located above the piston, the inner liner covers the storage cavity, and the lower end of the vacuum pump is inserted into the storage cavity.

[0018] Furthermore, the upper part of the bottle body is provided with a first rib, the upper part of the inner liner is provided with a first support surface, the lower part of the first support surface abuts against the upper part of the first rib, the inner liner includes a third support surface, the lower part of the third support surface abuts against the upper part of the first support surface, and the inner wall of the inner liner is fixed to the outer wall of the first rib by a threaded connection.

[0019] Furthermore, the upper part of the discharge assembly is covered with a bottle cap, and the shoulder sleeve includes an annular platform, with the bottle cap sleeved on the outside of the annular platform and fastened to the annular platform.

[0020] In summary, this utility model has the following beneficial effects:

[0021] By cooperating with the discharge component and the vacuum pump, the material can be discharged by directly pressing the discharge component. Through the cooperation of the shoulder sleeve, inner liner, discharge component, rotating bracket and rotating cover, the material can also be discharged when rotating the rotating cover, thus realizing the dual-mode discharge of pressing and rotating, which provides a good user experience. Attached Figure Description

[0022] Figure 1 This is a cross-sectional view of the present invention;

[0023] Figure 2 for Figure 1 Enlarged view at point A;

[0024] Figure 3 for Figure 1 Enlarged view at point B;

[0025] Figure 4 for Figure 1 A partial schematic diagram;

[0026] Figure 5 This is an exploded view of the present invention;

[0027] Figure 6 This is an exploded view of the discharge assembly;

[0028] Figure 7 A sectional view of the top view of the discharge assembly;

[0029] Figure 8 This is a schematic diagram of the rotating support structure;

[0030] Figure 9 This is an exploded view of the power supply components.

[0031] Reference numerals: 1. Bottle body; 101. Mounting cavity; 102. First rib; 2. Inner liner; 201. First support surface; 202. Storage cavity; 203. First through hole; 3. Piston; 301. Second through hole; 4. Shoulder sleeve; 401. Annular platform; 402. Second support surface; 403. Second rib; 5. Lining; 501. Third support surface; 502. First annular rib; 503. First limiting groove; 6. Discharge component; 601. Second annular rib; 602. Discharge port; 603. Limiting rib; 604. Discharge channel; 605. First protrusion; 606. Second protrusion; 7. Rotating bracket; 701. Support rib; 702. Protruding buckle; 703. Guide part; 704. Guide unit; 705. First trajectory surface; 706, Second trajectory surface; 707, Third trajectory surface; 708, Fourth trajectory surface; 8, Rotating cap; 801, Third annular rib; 9, Bottle cap; 10, Discharge nozzle; 1001, Annular piece; 1002, Protruding post; 1003, Third protruding rib; 11, Shell; 1101, Battery compartment; 12, Electromagnetic induction power generation device; 1201, Coil frame; 1202, Mounting slot; 13, Control board; 14, Battery; 15, Material electrode; 16, First light-emitting plate; 17, Second light-emitting plate; 18, First conductive spring needle; 19, Second conductive spring needle; 20, Vacuum pump; 21, Magnet; 22, Coil; 1000, Power supply assembly; 2000, Discharge assembly; 3000, Power supply. Detailed Implementation

[0032] The technical solutions of the present utility model will be clearly and completely described below with reference to the accompanying drawings of the embodiments. Obviously, the described embodiments are only some embodiments of the present utility model, and not all embodiments. Based on the embodiments of the present utility model, all other embodiments obtained by those of ordinary skill in the art without creative effort are within the protection scope of the present utility model.

[0033] Example 1:

[0034] like Figures 1 to 9 As shown, this embodiment discloses a cream bottle, including a bottle body 1 and a dispensing assembly 2000. The dispensing assembly 2000 includes a shoulder sleeve 4, an inner liner 5, a dispensing component 6, a rotating cap 8, and a vacuum pump 20.

[0035] The inner liner 5 covers the upper opening of the bottle body 1 and is fixedly connected to the bottle body 1. The shoulder sleeve 4 is fixedly connected to the outside of the inner liner 5. The discharge component 6 includes a discharge port 602, which communicates with the inside of the bottle body 1. The vacuum pump 20 is fixedly connected to the inside of the inner liner 5. The lower end of the vacuum pump 20 is inserted into the bottle body 1, and the upper end is fixedly connected to the discharge component 6. Specifically, the bottle body 1 has an installation cavity 101 inside, and an inner liner 2 is installed in the installation cavity 101. The inner liner 2 can store material. There is a gap between the outer wall of the inner liner 2 and the inner wall of the bottle body 1. The inner liner 2 has a movable... The piston 3 is sealed to the inner wall of the inner liner 2. The lower part of the inner liner 2 is provided with a first through hole 203, which communicates with the mounting cavity 101. The inner liner 2 is provided with a storage cavity 202, in which the material is contained. The discharge assembly 2000 covers the storage cavity 202. The storage cavity 202 is located above the piston 3. The inner liner 5 covers the storage cavity 202. The lower end of the vacuum pump 20 is inserted into the storage cavity 202. The discharge port 602 is connected to the vacuum pump 20. The vacuum pump 20 is connected to or blocked from the storage cavity 202.

[0036] Pressing the discharge component 6 causes the material absorbed by the vacuum pump 20 to be discharged from the discharge port 602. Specifically, when the discharge component 6 is pressed down, the liquid outlet pipe of the vacuum pump 20 can be moved downward, thereby discharging the material absorbed by the vacuum pump 20 from the storage chamber 202 from the discharge port 602, realizing the pressing and discharging of the material. The vacuum pump 20 is a conventional pump and is existing technology. Its specific structure and principle will not be described in detail in this specification.

[0037] like Figure 1 and Figure 3 As shown, the upper part of the bottle body 1 is provided with a first rib 102, the upper part of the inner liner 2 is provided with a first support surface 201, the lower part of the first support surface 201 abuts against the upper part of the first rib 102, the inner liner 5 includes a third support surface 501, the lower part of the third support surface 501 abuts against the upper part of the first support surface 201, the inner wall of the inner liner 5 is fixed to the outer wall of the first rib 102 by a threaded connection, and the inner liner 2 can be fixed in the mounting cavity 101 by the cooperation of the bottle body 1, the inner liner 2 and the inner liner 5.

[0038] The rotating cover 8 is movably connected to the outside of the discharge component 6. Specifically, the discharge component 6 and the rotating cover 8 are connected via a rotating bracket 7. The outer side of the rotating bracket 7 is fixedly connected to the rotating cover 8 and movably connected to the shoulder sleeve 4. The inner side of the rotating bracket 7 is movably connected to the discharge component 6. The shoulder sleeve 4 is fitted onto the outer side of the discharge component 6. The shoulder sleeve 4 includes an annular platform 401. The inner wall of the annular platform 401 is provided with a second support surface 402. The inner wall of the second support surface 402 is provided with a second protruding rib 403. The second protruding rib 403 is annular in structure. The second protruding rib 403 is fitted onto the outer side of the rotating bracket 7. The outer side of the rotating bracket 7 is provided with a support rib 701. The lower part abuts against the upper part of the second support surface 402. The lower part of the rotating bracket 7 is provided with a protruding buckle 702. The upper part of the protruding buckle 702 is fastened to the lower part of the second rib 403. The rotating cover 8 includes a third annular rib 801. The lower end of the third annular rib 801 is located on the upper part of the support rib 701 and is fastened and fixed to the rotating bracket 7. Through the cooperation of the third annular rib 801 and the rotating bracket 7, the rotating bracket 7 and the rotating cover 8 can be fixedly connected, so that when the rotating cover 8 is rotated, the rotating bracket 7 can be rotated synchronously. Through the cooperation of the protruding buckle 702 and the second rib 403, the rotating bracket 7 can be connected to the shoulder sleeve 4 to prevent the rotating bracket 7 from coming off upward.

[0039] like Figure 1 , Figure 3 , Figures 6 to 8 As shown, rotating the rotating cover 8 can drive the discharge component 6 to rise and fall. The discharge component 6 can move up and down on the rotating bracket 7. Specifically, the inner liner 5 includes a third support surface 501. The upper part of the third support surface 501 is provided with a first annular rib 502. The periphery of the first annular rib 502 is provided with a plurality of first limiting grooves 503. The inner wall of the second annular rib 601 is provided with a plurality of second protrusions 606. The second protrusions 606 are inserted into the corresponding first limiting grooves 503 for limiting. Through the cooperation of the second protrusions 606 and the first limiting grooves 503, the discharge component 6 can be rotated and limited, preventing... When the rotating cover 8 is rotated, the discharge component 6 is driven to rotate. The inner wall of the rotating support 7 is provided with a guide portion 703. The discharge component 6 includes a second annular rib 601. A first protrusion 605 is provided on the outer side of the second annular rib 601. The first protrusion 605 is connected to the guide portion 703. The first protrusion 605 can move along the guide portion 703. The guide portion 703 is a plane with a height difference. When the rotating cover 8 drives the rotating support 7 to rotate, the discharge component 6 is restricted from rotating. Therefore, the discharge component 6 can move up and down along the trajectory of the guide portion 703 to realize the discharge of material during the rotation operation.

[0040] Specifically, the upper part of the first protrusion 605 abuts against the lower part of the guide portion 703. The guide portion 703 includes multiple guide units 704 connected end-to-end. Each guide unit 704 includes a first track surface 705, a second track surface 706, a third track surface 707, and a fourth track surface 708. The first track surface 705 and the second track surface 706 located in the same guide unit 704 are connected through the third track surface 707. The side of the second track surface 706 away from the first track surface 705 is connected to the fourth track surface 708. The side of the fourth track surface 708 away from the second track surface 706 is connected to the first track surface 705 of the adjacent guide unit 704. The first track surface 705 is positioned lower than the second track surface 706. The third track surface 707 is an inclined surface. The fourth trajectory surface 708 is a vertical surface. The first trajectory surface 705 and the second trajectory surface 706 are connected by a third trajectory surface 707, which is an inclined surface. This allows the first protrusion 605 located at the second trajectory surface 706 to move along the third trajectory surface 707 to the first trajectory surface 705 when the rotating bracket 7 is rotated. Since the fourth trajectory surface 708 is vertical, the first protrusion 605 cannot cross the fourth trajectory surface 708 from the second trajectory surface 706 to the first trajectory surface 705 of the next guide unit 704. That is, the rotating bracket 7 can only rotate in one direction, and this rotation direction is consistent with the screw tightening direction of the bottle body 1 and the dispensing component 2000. This design can effectively prevent the dispensing component 2000 from being accidentally loosened when rotating to dispense liquid, resulting in good structural reliability.

[0041] When the upper part of the first protrusion 605 abuts against the lower part of the first track surface 705, the discharge component 6 is at its lowest point. When the upper part of the first protrusion 605 abuts against the lower part of the second track surface 706, the discharge component 6 is at its highest point. That is, when the first protrusion 605 moves from the second track surface 706 to the first track surface 705, and then moves from the first track surface 705 to the second track surface 706 of the adjacent guide unit 704, it is equivalent to the discharge component 6 completing one press, thereby realizing the discharge of the material.

[0042] More specifically, there are four first protrusions 605, and all four first protrusions 605 are located in the same trajectory surface of different guide units 704. Specifically, when one first protrusion 605 is located at the lower part of the first trajectory surface 705, the other three first protrusions 605 are respectively located at the lower part of the first trajectory surface 705 in the corresponding guide unit 704. Through the above design, the stability of the movement of the discharge part 6 can be improved, and the structural reliability is good.

[0043] Therefore, in this embodiment, the material can be discharged by directly pressing the material discharge component 6 in cooperation with the vacuum pump 20. The material can also be discharged by cooperating with the shoulder sleeve 4, inner liner 5, material discharge component 6, rotating bracket 7 and rotating cover 8 when rotating the rotating cover 8. This achieves material discharge in both pressing and rotating modes, resulting in a good user experience.

[0044] like Figure 1 , Figure 2 and Figure 6 As shown, a discharge nozzle 10 is connected inside the discharge port 602. The discharge nozzle 10 can open or close the discharge port 602. Specifically, the inner wall of the discharge port 602 is provided with multiple limiting ribs 603, and a discharge channel 604 is provided between two adjacent limiting ribs 603. The discharge nozzle 10 includes an annular plate 1001 located at the upper part of the discharge port 602. A protruding post 1002 is provided at the lower part of the annular plate 1001, and the protruding post 1002 penetrates the discharge port 602. A third protruding rib 1003 is provided on the outer side of the protruding post 1002. The upper part of the third protruding rib 1003 abuts against the lower part of the limiting rib 603. Through the cooperation of the third protruding rib 1003 and the limiting rib 603, the discharge nozzle 10 and the discharge port 602 can be closed. The connection is made of a flexible material, preferably silicone. The annular plate 1001 is deformable so that the discharge channel 604 is connected to the outside of the discharge port 602. Specifically, when the discharge component 6 is pressed, the material inside the vacuum pump 20 can enter the discharge channel 604. Since the annular plate 1001 is made of thin silicone, the material can push the annular plate 1001 to deform outward when the discharge component 6 is pressed down, so that the discharge channel 604 is connected to the outer surface of the discharge component 6, and the material can flow out to the surface of the discharge component 6 to realize the discharge. After the discharge is completed, the discharge component 6 rises, at which time the annular plate 1001 returns to its original shape and re-covers the discharge port 602 to prevent the material from flowing back.

[0045] The upper part of the discharge component 2000 is covered with a bottle cap 9. The bottle cap 9 is sleeved on the outside of the annular platform 401 and is fastened to the annular platform 401. By setting the bottle cap 9, the discharge component 6 can be covered, thereby protecting the discharge component 6 and preventing the discharge component 6 from being accidentally pressed.

[0046] Example 2:

[0047] like Figures 1 to 9 As shown, in addition to Embodiment 1, a power supply component 1000 is also included, which is disposed in the mounting cavity 101;

[0048] like Figure 9As shown, the dotted line represents the wiring harness. The power supply assembly 1000 includes a power supply 3000, a control board 13, a magnet 21, and a material electrode 15. The power supply 3000 and the material electrode 15 are electrically connected. Specifically, the power supply 3000 is electrically connected to the control board 13, and the material electrode 15 is electrically connected to the control board 13. The power supply 3000 is a battery 14, and the battery 14 is electrically connected to the control board 13. The material electrode 15 is connected to the inside of the storage chamber 202. The upper end of the material electrode 15 passes through the second through hole 301 and is inserted into the storage chamber 202 located above the piston 3. The material electrode 15 is fixed and sealed to the second through hole 301. The piston 3 can move upward and synchronously drive the material electrode 15 upward. In use, the battery 14 energizes the material containing electroactive gel in the storage chamber 202 through the material electrode 15, thereby activating and releasing the active ingredients in the electroactive gel, thus effectively improving the use effect of the material.

[0049] Specifically, the control board 13 is a conventional PLC circuit board, which also integrates a microcontroller (not shown in the figure). The power supply 3000 supplies power to the control board 13. The control board 13 is equipped with a Hall switch (not shown in the figure). When the user shakes the bottle body 1, the magnet 21 moves. When the Hall switch detects that the magnetic field strength generated by the magnet 21 is greater than the threshold set inside the microcontroller, it triggers the microcontroller to open the circuit of the battery 14 power supply section and supply power to the control board 13 and the material electrode 15. The material is then activated by powering on the material through the material electrode 15.

[0050] The timing program is entered into the microcontroller to realize the circuit's delayed shutdown. Preferably, the power is cut off after 30 seconds of power-on, stopping the power supply to the material. Specifically, after the control board 13 is powered on, if the bottle body 1 is stopped from shaking, that is, the magnet 21 does not produce displacement, the Hall switch stops working, and the power is cut off after 30 seconds. If the bottle body 1 is shaken again during this period, causing the magnet 21 to move, the power-off time is recalculated. That is, if the bottle body 1 is not shaken after 20 seconds of stillness, the power is cut off after 10 seconds; if the bottle body 1 is shaken again, the power is cut off again after 30 seconds. Among them, the Hall switch is preferably the KTH1701 series high-performance, low-power, omnipolar magnetic field detection Hall switch sensor.

[0051] Specifically, the power supply component 1000 is located below the inner liner 2. The power supply component 1000 also includes a housing 11. The power supply 3000 and the control board 13 are fixedly installed inside the housing 11. The magnet 21 is movably installed inside the housing 11. The housing 11 is fixed to the bottom surface of the mounting cavity 101 by screws. The housing 11 includes a battery compartment 1101. The battery 14 is fixedly installed inside the battery compartment 1101.

[0052] Example 3:

[0053] like Figures 1 to 9As shown, based on Embodiment 2, another power source 3000 is also provided, namely an electromagnetic induction power generation device 12. The electromagnetic induction power generation device 12 generates electricity and can also charge the material, thereby improving the service life of the battery 14. Specifically, the electromagnetic induction power generation device 12 includes a coil frame 1201, a coil 22, and a magnet 21. The coil frame 1201 is fixedly connected inside the housing 11, and the coil 22 is wound around the outside of the coil frame 1201. The coil 22 is electrically connected to the control board 13. The coil frame 1201 has a mounting groove 1202, and the magnet 21 is movably installed in the mounting groove 1202. The sidewall of the magnet 21 is flush with the mounting groove 1202. 02 The inner wall gap fit allows the magnet 21 to move along the height direction of the mounting groove 1202. When power generation is required, the magnet 21 can move back and forth in the mounting groove 1202 by shaking the bottle body 1, thereby cutting the magnetic field lines generated by the coil 22 and generating a current of 4mA-10mA. This current is then transmitted to the material electrode 15 through the control board 13, and the material is energized through the material electrode 15. By setting the electromagnetic induction power generation device 12, power generation and current can be generated when the bottle body 1 is shaken, thereby powering the material. This not only improves the service life of the battery 14, but also activates the material when the battery 14 is depleted.

[0054] Example 4:

[0055] like Figures 1 to 9As shown, based on Embodiment 3, a light-emitting component is also included. This component comprises a first light-emitting plate 16 and a second light-emitting plate 17. The first light-emitting plate 16 is fixedly connected to the upper part of the bottle body 1. The second light-emitting plate 17 is installed inside the discharging component 2000. The first light-emitting plate 16 is electrically connected to the power supply 3000 and to the control board 13 via a wiring harness. The second light-emitting plate 17 is electrically connected to the first light-emitting plate 16. The first light-emitting plate 16 is sleeved on the outside of the inner liner 2, with its light source positioned below it and able to pass through the bottle body 1. The second light-emitting plate 17 is fixedly connected to the upper part of the shoulder sleeve 4. The rotating cap 8 is translucent, and the light source of the second light-emitting plate 17 is translucent. The rotating cap 8 is made of transparent PET material, and the bottle body 1 is made of transparent acrylic material. The inner wall of the mounting cavity 101 is coated with opaque ink. When the Hall switch is turned on, the current generated by the coil 22 and the current generated by the battery 14 jointly power the material and the light-emitting components. This not only powers and activates the material, but also powers and illuminates the first light-emitting plate 16 and the second light-emitting plate 17, enabling the bottle body 1 and the rotating cap 8 to emit light. The light can interact with the user, which not only improves the texture of the cream bottle, but also enhances the user experience. Furthermore, by burning the delay program into the microcontroller of the control board 13, the first light-emitting plate 16 and the second light-emitting plate 17 can be turned off after 30 seconds of illumination.

[0056] Specifically, such as Figure 3 As shown, the first light-emitting plate 16 and the second light-emitting plate 17 are connected by conductive spring pins. The conductive spring pins include a first conductive spring pin 18 connected to the first light-emitting plate 16 and a second conductive spring pin 19 connected to the second light-emitting plate 17. The lower end of the second conductive spring pin 19 is in contact with the first conductive spring pin 18. The first conductive spring pin 18 is fixed in the first support surface 201, and the second conductive spring pin 19 is fixed in the discharge assembly 2000. Through the cooperation of the first conductive spring pin 18 and the second conductive spring pin 19, the electrical connection between the first light-emitting plate 16 and the second light-emitting plate 17 can be realized.

[0057] The above description is merely a preferred embodiment of this utility model. The protection scope of this utility model is not limited to the above embodiments. All technical solutions falling within the scope of this utility model's concept are protected. It should be noted that for those skilled in the art, any improvements and modifications made without departing from the principle of this utility model should also be considered within the protection scope of this utility model.

Claims

1. A cream bottle with dual-mode dispensing, characterized in that, It includes a bottle body (1) and a dispensing assembly (2000), the dispensing assembly (2000) including a shoulder sleeve (4), an inner liner (5), a dispensing component (6), a rotating cap (8) and a vacuum pump (20); The inner liner (5) covers the upper opening of the bottle body (1) and is fixedly connected to the bottle body (1); The shoulder sleeve (4) is fixedly connected to the outside of the inner liner (5), and the shoulder sleeve (4) is fitted on the outside of the discharge part (6); The discharge component (6) includes a discharge port (602), which is connected to the inside of the bottle body (1); The vacuum pump (20) is fixedly connected to the inside of the liner (5). The lower end of the vacuum pump (20) is inserted into the bottle body (1) and the upper end is connected to the discharge part (6). Press the discharge part (6) so that the material absorbed by the vacuum pump (20) is discharged from the discharge port (602). The rotating cover (8) is movably connected to the outside of the discharge part (6). Rotating the rotating cover (8) can drive the discharge part (6) to rise and fall.

2. A cream bottle with dual-mode dispensing according to claim 1, characterized in that, The discharge component (6) and the rotating cover (8) are connected by a rotating bracket (7). The outer side of the rotating bracket (7) is fixedly connected to the rotating cover (8) and movably connected to the shoulder sleeve (4). The inner side of the rotating bracket (7) is movably connected to the discharge component (6). The discharge component (6) can move up and down on the rotating bracket (7).

3. A cream bottle with dual-mode dispensing according to claim 2, characterized in that, The inner wall of the rotating bracket (7) is provided with a guide part (703), and the discharge part (6) includes a second annular rib (601). The outer side of the second annular rib (601) is provided with a first protrusion (605). The first protrusion (605) is connected to the guide part (703) and can move along the guide part (703).

4. A cream bottle with dual-mode dispensing according to claim 3, characterized in that, The upper part of the first protrusion (605) abuts against the lower part of the guide part (703). The guide part (703) includes a plurality of guide units (704) connected end to end. The guide unit (704) includes a first track surface (705), a second track surface (706), a third track surface (707), and a fourth track surface (708). The first track surface (705) and the second track surface (706) located in the same guide unit (704) are connected through the third track surface (707). The side of the second track surface (706) away from the first track surface (705) is connected to the fourth track surface (708). The side of the fourth track surface (708) away from the second track surface (706) is connected to the first track surface (705) of the adjacent guide unit (704). The first track surface (705) is lower than the second track surface (706). The third track surface (707) is an inclined surface, and the fourth track surface (708) is a vertical surface. When the upper part of the first protrusion (605) abuts against the lower part of the first track surface (705), the discharge part (6) is at its lowest point; when the upper part of the first protrusion (605) abuts against the lower part of the second track surface (706), the discharge part (6) is at its highest point.

5. A cream bottle with dual-mode dispensing according to claim 3, characterized in that, The lining (5) includes a third support surface (501), the upper part of the third support surface (501) is provided with a first annular rib (502), the periphery of the first annular rib (502) is provided with a plurality of first limiting grooves (503), the inner wall of the second annular rib (601) is provided with a plurality of second protrusions (606), and the second protrusions (606) are inserted into the corresponding first limiting grooves (503) for limiting.

6. A cream bottle with dual-mode dispensing according to claim 2, characterized in that, The shoulder sleeve (4) includes an annular platform (401), the inner wall of the annular platform (401) is provided with a second support surface (402), the inner wall of the second support surface (402) is provided with a second rib (403), the second rib (403) is sleeved on the outside of the rotating bracket (7), the outside of the rotating bracket (7) is provided with a support rib (701), the lower part of the support rib (701) abuts against the upper part of the second support surface (402), the lower part of the rotating bracket (7) is provided with a buckle (702), the upper part of the buckle (702) is fastened to the lower part of the second rib (403), and the rotating cover (8) includes a third annular rib (801), the lower end of the third annular rib (801) is located above the support rib (701) and is fastened to the rotating bracket (7).

7. A cream bottle with dual-mode dispensing according to claim 1, characterized in that, The discharge port (602) is internally connected to a discharge nozzle (10), which can open or close the discharge port (602). The inner wall of the discharge port (602) is provided with multiple limiting ribs (603), and a discharge channel (604) is provided between two adjacent limiting ribs (603). The discharge nozzle (10) is made of flexible material and includes an annular plate located at the upper part of the discharge port (602). 1001), the lower part of the annular plate (1001) is provided with a protruding post (1002), the protruding post (1002) penetrates the discharge port (602), the outer side of the protruding post (1002) is provided with a third protruding rib (1003), the upper part of the third protruding rib (1003) abuts against the lower part of the limiting rib (603), the annular plate (1001) can deform so that the discharge channel (604) communicates with the outside of the discharge port (602).

8. A cream bottle with dual-mode dispensing according to claim 1, characterized in that, The bottle body (1) has an installation cavity (101) inside, and an inner liner (2) is installed in the installation cavity (101). A piston (3) is installed inside the inner liner (2). The outer side of the piston (3) is sealed to the inner wall of the inner liner (2). A first through hole (203) is provided at the lower part of the inner liner (2). The first through hole (203) communicates with the installation cavity (101). A storage cavity (202) is provided inside the inner liner (2). The storage cavity (202) is located above the piston (3). The inner liner (5) covers the storage cavity (202). The lower end of the vacuum pump (20) is inserted into the storage cavity (202).

9. A cream bottle with dual-mode dispensing according to claim 8, characterized in that, The bottle body (1) is provided with a first rib (102) on the upper part, the inner liner (2) is provided with a first support surface (201) on the upper part, the lower part of the first support surface (201) abuts against the upper part of the first rib (102), the inner liner (5) includes a third support surface (501), the lower part of the third support surface (501) abuts against the upper part of the first support surface (201), and the inner wall of the inner liner (5) is fixed to the outer wall of the first rib (102) by threaded connection.

10. A cream bottle with dual-mode dispensing according to claim 1, characterized in that, The upper part of the discharge assembly (2000) is covered with a bottle cap (9), and the shoulder sleeve (4) includes an annular platform (401). The bottle cap (9) is sleeved on the outside of the annular platform (401) and fastened to the annular platform (401).

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