Veterinary medicine bottle capable of quantitatively pouring medicine

Abstract

The veterinary medicine bottle capable of quantitatively pouring the medicine comprises a bottle body, a measuring cup is arranged at the top of the bottle body, an infusion channel is arranged at the bottom of the bottle body and communicated with the left portion of the measuring cup, a liquid pouring opening is formed in the top of the measuring cup, a measuring cup body is in a vertical cylinder shape, and a cross-shaped vertical partition plate is fixedly installed in an inner cavity of the cup body and divides the inner cavity into four cup cavities. The measuring cup is rotatably mounted on the bottle body, a circular cup cover covers the measuring cup, and the liquid pouring opening is formed in the cup cover. A user squeezes the bottle body in idle time before feeding medicine so as to quantitatively input liquid medicine into the four cup cavities. When a user feeds medicine, the medicine bottle is used for feeding medicine to four objects in sequence. Firstly, liquid medicine in the first cup cavity is poured out of the liquid pouring opening to be fed to the first object. And then the liquid medicine in the second cup cavity is poured out through the liquid pouring opening to be fed to the second object, and so on until the liquid medicine in the fourth cup cavity is fed to the fourth object, so that the four objects are continuously fed with the liquid medicine in sequence.

Description

Technical Field

[0001] This utility model relates to the field of veterinary drug bottles, specifically to a veterinary drug bottle that can dispense a measured amount of medicine. Background Technology

[0002] CN102579256A discloses a medicine bottle comprising a bottle body, a measuring cup at the top of the bottle body, an infusion channel at the bottom of the bottle body connecting to the top left of the measuring cup, and a pouring spout at the top front of the measuring cup for dispensing the medicine. The medicine is contained within the bottle body. When a measured amount of medicine needs to be dispensed, the bottle body is first squeezed to deform it, allowing the medicine to flow into the measuring cup through the infusion channel. Once the required amount of medicine is reached in the measuring cup, the medicine is poured out through the pouring spout. This medicine bottle is not suitable for veterinary medications, primarily because veterinary medications typically involve multiple subjects, each generally requiring only a small amount of medication. Using this bottle to administer medication to each subject requires a "squeeze-pour" process: first, the bottle body is squeezed to dispense a measured amount of medicine into the measuring cup, then the first subject is given the medicine; then, the bottle body is squeezed again to dispense the same amount of medicine before the second subject can be given the medicine. Even if the user squeezes the bottle in advance during their free time, they can only prepare one dose of medicine in advance. After feeding the medicine to the first person, they still need to squeeze the bottle again to feed the medicine to the next person, making it impossible to feed the medicine to multiple people in sequence. Utility Model Content

[0003] The technical problem to be solved by this utility model is to provide a veterinary medicine bottle that can dispense medicine in a measured quantity, so that the user can use the bottle to feed medicine to multiple objects in sequence.

[0004] To solve the above-mentioned technical problems, the present invention provides a veterinary medicine bottle with quantitative dispensing capability, comprising a bottle body that can be squeezed and deformed for holding liquid medicine, a measuring cup at the top of the bottle body, and an infusion channel at the bottom of the bottle body connecting to the left side of the measuring cup. When the bottle body is squeezed and deformed, liquid medicine is quantitatively dispensed into the measuring cup through the infusion channel. The top of the measuring cup has a pouring spout for dispensing the liquid medicine. The measuring cup body is a vertical cylindrical shape, and a cross-shaped vertical partition is fixedly installed in the inner cavity of the cup body to divide the inner cavity into four cup chambers. The measuring cup is rotatably mounted on the bottle body, and its rotation around its own axis causes the four cup chambers to be connected to the infusion channel in turn. A circular cup lid is placed on the measuring cup, and the pouring spout is located on the cup lid. The cup lid rotates around its own axis, causing the pouring spout to be connected to the four cup chambers in turn.

[0005] Furthermore, the bottle is equipped with a circular translucent cup holder. The measuring cup is rotatably mounted on the cup holder, and the infusion channel leads to the left wall of the cup holder. The measuring cup rotates around its own central axis, which in turn drives the four cup chambers to align with the left wall of the cup holder in turn, thereby connecting the infusion channel in turn.

[0006] Furthermore, a sealing ring is embedded in the inner wall of the top of the cup holder, and an infusion hole is opened on the left side of the sealing ring to connect to the infusion channel; an alignment hole is opened on the side wall of each cup cavity, and the rotation of the measuring cup around its own central axis specifically drives the alignment holes of the four cup cavities to align with the infusion holes in turn, thereby connecting the infusion channel in turn.

[0007] Furthermore, the cup holder is specifically a transparent cup holder.

[0008] Furthermore, the cup lid is specifically detachably rotatably mounted on the cup holder.

[0009] Furthermore, the cup lid has an operating hole, and the center part of the vertical partition extends upward through the operating hole to the outside of the measuring cup body for operation and rotation.

[0010] Furthermore, a cap is placed over the pouring spout.

[0011] Furthermore, the measuring cup is specifically detachably mounted on the bottle.

[0012] Furthermore, the bottle body is specifically made of flexible plastic, with a refill port at the top for the medicine to enter.

[0013] Furthermore, the bottle cap is placed over the inlet.

[0014] Before administering the medication, the user squeezes the bottle during their free time to dispense a measured amount of medication into each of the four chambers: First, the measuring cup rotates around its own axis, connecting the first chamber to the infusion channel. Then, the lid rotates around its own axis, connecting the pouring spout to the first chamber, allowing the first chamber to connect to the external environment. The user then squeezes the bottle to dispense the medication into the first chamber. Next, the measuring cup rotates around its own axis, connecting the second chamber adjacent to the first chamber to the infusion channel. The lid remains stationary, connecting the pouring spout to the second chamber, allowing the second chamber to connect to the external environment. The user then squeezes the bottle again to dispense the medication into the second chamber. This process continues until the fourth chamber is dispensed, at which point the user stops squeezing the bottle. When administering medication, the user uses the medicine bottle to feed the medicine to four subjects sequentially: first, the lid rotates around its own axis to connect the dispensing spout to the first cavity, and then the medicine in the first cavity is poured out through the dispensing spout and fed to the first subject; then, the lid continues to rotate around its own axis to connect the dispensing spout to the second cavity, and then the medicine in the second cavity is poured out through the dispensing spout and fed to the second subject, and so on, until the medicine in the fourth cavity is fed to the fourth subject, thus achieving continuous sequential medication administration to four subjects. Attached Figure Description

[0015] Figure 1 This is a diagram of a medicine bottle.

[0016] Figure 2This is a cross-sectional view of a medicine bottle; the cap is omitted from the drawing.

[0017] Figure 3 yes Figure 2 A magnified view of a portion of the image, showing a larger area. Figure 2 Part A.

[0018] Figure 4 It is an exploded view of the top left of the bottle, the sealing ring, the measuring cup, and the cap. Detailed Implementation

[0019] The present invention will be further described in detail below with reference to specific embodiments.

[0020] See the veterinary drug bottle with a metered dispensing function. Figure 1 The device includes a PP plastic bottle body 1, which contains a liquid medicine (not shown in the figure). A circular transparent cup holder 2 is located on the top left of the bottle body 1. Figure 2 and Figure 3 The cup holder 2 has a translucent PP plastic measuring cup 3. (See measuring cup 3 for details.) Figure 3 and Figure 4 It includes a vertical cylindrical cup body 31, which is mounted on the cup holder 2 and can rotate around its own axis, or it can be like... Figure 4 As shown, it is disassembled. A cross-shaped vertical partition 32 is fixedly installed in the inner cavity 30 of the cup body 31, dividing the inner cavity 30 of the cup body 31 into four circumferentially arranged cup cavities 33. An annular locking groove 25 is opened on the top of the outer side wall of the cup holder 2. This medicine bottle includes a cup lid 4. An annular locking part 45 protrudes inward from the inner side wall of the cup lid 4, and the locking part 45 engages with the locking groove 25. The cup lid 4 is thus detachably and rotatably mounted on the cup holder 2 and covers the top of the cup body 31, and can rotate around its own axis. Bottom of the bottle body 1 (see...) Figure 2 The measuring cup 33 has an infusion channel 10 leading to the left wall 21 of the cup holder 2. A transparent silicone rubber sealing ring 26 is embedded in the inner side wall of the top of the cup holder 2. An infusion hole 261, connecting to the infusion channel 10, is opened on the left side of the sealing ring 26. Each cup cavity 33 has an alignment hole 34 on its side wall. The alignment hole 34 and the infusion hole 261 are at the same height. Therefore, when the vertical partition 32 and the cup body 31 of the measuring cup 3 rotate together around the axis of the measuring cup 3, the alignment holes 34 of the four cup cavities 33 rotate in turn to align with the left side of the measuring cup 3 to the infusion hole 261 and the left wall 21 of the cup holder 2, thus sequentially connecting to the infusion channel 10. When the alignment hole 34 of one cup cavity 33 aligns with the infusion hole 261, the alignment holes 34 of the other three cup cavities 33 align with the sealing ring 26 and are sealed by the sealing ring 26. The cup lid 4 has a pouring spout 41, and a cover 42 is placed over the pouring spout 41 (see...). Figure 1The cup lid 4 rotates around its own axis, causing the pouring spout 41 to connect to the four cup chambers 33 in turn. An operating hole 43 is located in the center of the cup lid 4, and an operating part 321 extends upwards from the center of the vertical partition 32, passing through the operating hole 43 and protruding outside the measuring cup 3 body 31. Four graduation lines 35 are provided on the outer wall of the measuring cup 3, corresponding to the four cup chambers 33 respectively. Since the cup holder 2 and the sealing ring 26 are transparent, the user can observe the graduation lines 35 on the measuring cup 3 from outside the cup holder 2.

[0021] PP plastic is an elastic plastic, so the bottle body 1 can be deformed by compression. When the compression force is removed, the bottle body 1 naturally returns to its original shape under the action of elasticity. Before administering the medication, the user squeezes the bottle body 1 during a break to quantitatively infuse the medication into each of the four cup chambers 33.

[0022] See Figure 3 and Figure 4 First, rotate the operating part 321 of the vertical partition 32 to drive the measuring cup 3 and cup body 31 to rotate around the axis of the measuring cup 3, thereby driving the alignment hole 34 of the first cup cavity 301 to connect with the infusion channel 10. Then, keep the vertical partition 32 and the measuring cup 3 and cup body 31 stationary, and let the cup lid 4 rotate around its own axis to drive the pouring port 41 to connect with the first cup cavity 301. Open the lid 42 (see...). Figure 1 This allows the first cup cavity 301 to connect to the external environment via the pouring port 41. Squeezing the bottle body 1 deforms it, allowing the medication to be poured into the first cup cavity 301 through the infusion channel 10. During this process, the liquid level is observed visually. When the liquid level reaches the required dosage mark 35 (e.g., the 15ml mark), squeezing the bottle body 1 is temporarily stopped, achieving quantitative medication input. Keeping the lid 4 stationary, the operating part 321 of the vertical partition 32 is rotated again, connecting the second cup cavity 302 adjacent to the first cup cavity 301 to the infusion channel 10. In this state, the alignment hole 34 of the first cup cavity 301 aligns with the sealing ring 26 and is sealed by the sealing ring 26. The pouring port 41 of the lid 4 aligns with the second cup cavity 302, allowing the second cup cavity 302 to connect to the external environment via the pouring port 41. Squeezing the bottle body 1 continues to deform it, allowing the medication to be quantitatively input into the second cup cavity 302 through the infusion channel 10. This process continues until a measured amount of liquid is injected into the fourth cup cavity 304, at which point the squeezing of the bottle body 1 is completely stopped and the cap 42 is closed.

[0023] The user administers the medication to four individuals sequentially using a medicine bottle:

[0024] See Figure 3 and Figure 4 First, rotate the cup lid 4 around its own axis to connect the pouring spout 41 to the first cup cavity 301, then open the lid 42 (see...). Figure 1The medicine in the first cup cavity 301 is poured out through the pouring port 41 and fed to the first subject. The cup lid 4 continues to rotate around its own axis, causing the pouring port 41 to connect to the second cup cavity 302. The medicine in the second cup cavity 302 is then poured out through the pouring port 42 and fed to the second subject. This process continues until the medicine in the fourth cup cavity 304 is fed to the fourth subject, thus achieving continuous sequential medication for all four subjects.

[0025] See Figure 3 and Figure 4 Since the cup lid 4 is detachably mounted on the cup holder 2, after use, the user only needs to remove the cup lid 4 and then detach the measuring cup 3 from the cup holder 2 to clean the four cup chambers 33. A replenishment port 18 is opened at the top right of the bottle body 1, and a bottle cap 19 is placed on the replenishment port 18. When the liquid in the bottle body 1 is insufficient, the user opens the bottle cap 19 and pours the liquid into the bottle body 1 through the replenishment port 18.

[0026] The above description is merely an embodiment of the present invention and does not limit the scope of patent protection. Any non-substantial changes or substitutions made by those skilled in the art based on the present invention will still fall within the scope of patent protection.

Claims

1. A veterinary medicine bottle capable of dispensing quantitatively, comprising a deformable bottle body for holding liquid medicine, a measuring cup at the top of the bottle body, and an infusion channel at the bottom of the bottle body connecting to the left side of the measuring cup. When the bottle body is deformed by compression, the liquid medicine is quantitatively dispensed into the measuring cup through the infusion channel. The top of the measuring cup has a pouring spout for dispensing the liquid medicine. Its features are: The measuring cup is a vertical cylindrical body. A cross-shaped vertical partition is fixedly installed in the inner cavity of the cup to divide the inner cavity into four cup chambers. The measuring cup is rotated and mounted on the bottle body. Rotating around its own axis, it causes the four cup chambers to connect to the infusion channel in turn. A circular cup lid is placed on the measuring cup, and the pouring spout is located on the cup lid. The cup lid rotates around its own axis, causing the pouring spout to connect to the four cup chambers in turn.

2. The medicine bottle according to claim 1, characterized in that: The bottle has a circular, translucent cup holder. The measuring cup is rotated and mounted on the cup holder. The infusion channel leads to the left wall of the cup holder. The measuring cup rotates around its central axis, which in turn drives the four cup chambers to align with the left wall of the cup holder, thereby connecting the infusion channel in turn.

3. The medicine bottle according to claim 2, characterized in that: The inner wall of the top of the cup holder is fitted with a sealing ring, and an infusion hole is opened on the left side of the sealing ring to connect to the infusion channel; each cup cavity has an alignment hole on its side wall. The measuring cup rotates around its own central axis, which in turn drives the alignment holes of the four cup cavities to align with the infusion holes in turn, thereby connecting the infusion channel in turn.

4. The medicine bottle according to claim 2, characterized in that: The cup holder is specifically a transparent cup holder.

5. The medicine bottle according to claim 2, characterized in that: The cup lid is detachably and rotatably mounted on the cup holder.

6. The medicine bottle according to claim 1, characterized in that: The cup lid has an operating hole, and the center part of the vertical partition extends upward through the operating hole to the outside of the measuring cup body for operation and rotation.

7. The medicine bottle according to claim 1, characterized in that: The inlet is covered with a cap.

8. The medicine bottle according to claim 1, characterized in that: The measuring cup is detachably mounted on the bottle.

9. The medicine bottle according to claim 1, characterized in that: The bottle is made of flexible plastic, with a filling port at the top for the medicine to enter.

10. The medicine bottle according to claim 9, characterized in that: The bottle cap is placed over the infusion port.

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