Quantitative liquid bottle
By designing a combination of siphon tube and vent hole for a quantitative liquid bottle, the siphon effect is used to achieve quantitative output with a single pour, solving the problem that traditional oil bottles need to be poured twice, and achieving smooth flow and precise oil control.
Patent Information
- Application Number
- CN202423119791.8
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2024-12-17
- Publication Date
- 2025-11-18
- Estimated Expiration
- 2034-12-17
AI Technical Summary
Traditional oil bottles cannot dispense a fixed amount of liquid in a single pour, which affects healthy diet management.
A quantitative liquid bottle was designed, comprising a bottle body, a cap, and a vent tube. It utilizes a combination of a siphon tube and a vent hole to achieve quantitative output in a single pour through siphon action. The siphon tube is a stacked tube or a U-shaped bend tube. The liquid outlet tube is inclined to the main axis of the bottle body, and the vent hole is located on the side away from the liquid outlet tube. It is sealed by a flexible buckle.
It enables quantitative liquid output with a single pour, ensuring smooth flow without bubbles, avoiding blockages, and meeting the needs of refined management of healthy diets.
Smart Images

Figure CN223554728U_ABST
Abstract
Description
[TECHNICAL FIELD]
[0001] The utility model relates to the container that holds liquid especially relates to a ration liquid bottle. [BACKGROUND]
[0002] Oil bottle is a common kitchen utensil, people pay attention to the delicacy of diet, health group and so on strict control the intake of edible oil. The traditional oil bottle lacks effective oil control mechanism, and it is difficult to accurately take oil, which affects the healthy diet plan and is not consistent with the trend of refined management of oil control.
[0003] The utility model of patent number CN202121796498.9 discloses an oil can, which comprises a can body and a can cover connected to the can body, the can cover is provided with a spout extending upward, the top of the spout is a pouring opening, a dosing chamber is inserted into the can cover below the spout, the dosing chamber has a dosing chamber spout inserted into the spout, a partition plate is arranged in the dosing chamber, the partition plate divides the dosing chamber into a first chamber and a second chamber, the dosing chamber spout is located in the first chamber and the partition plate is blocked at the bottom of the dosing chamber spout, the partition plate is provided with a first through hole communicating the second chamber with the dosing chamber spout and a second through hole communicating the first chamber with the second chamber, and an oil inlet is arranged on the sidewall of the first chamber. The utility model can realize the dosing of pouring liquid in the can, but in order to pour out the dosing liquid, the oil can needs to be poured twice, which is not convenient. [SUMMARY]
[0004] The utility model solves the technical problem to provide a ration liquid bottle that can output dosing liquid by pouring once.
[0005] In order to solve the above technical problem, the utility model adopts the technical scheme, a ration liquid bottle, comprising a bottle body, a bottle cap and a gas guide pipe, the gas guide pipe is arranged in the inner chamber of the bottle body, and the lower end of the gas guide pipe is close to the bottom surface of the inner chamber of the bottle body;The bottle cap comprises a dosing chamber, a siphon pipe and a vent hole, the bottom plate of the dosing chamber comprises a liquid inlet hole for the communication between the dosing chamber and the inner chamber of the bottle body, and the top plate of the dosing chamber comprises a liquid outlet;The siphon pipe is arranged in the dosing chamber and comprises a liquid inlet pipe, a liquid outlet pipe and a connecting part between the liquid inlet pipe and the liquid outlet pipe, the upper end of the liquid outlet pipe is connected with the liquid outlet, and the liquid inlet end of the liquid inlet pipe is close to the top plate of the dosing chamber;The connecting part close to the bottom plate of the dosing chamber comprises a vent pipe, and the vent pipe is connected with the upper end of the gas guide pipe;The upper end of the vent hole is communicated with the atmosphere, and the lower end of the vent hole is located in the lower part of the dosing chamber.
[0006] The quantitative liquid bottle, the siphon is a telescopic pipe, the outlet pipe of the siphon is inserted into the inlet pipe, the inner diameter of the inlet pipe is larger than the outer diameter of the outlet pipe; the lower end of the outlet pipe is close to the bottom of the inlet pipe, the bottom of the inlet pipe is the connecting part and includes the air pipe; the air pipe is fixed on the bottom plate of the quantitative cavity, the bottom surface of the bottom plate is an opening, the upper end of the air pipe is inserted into the inner hole of the air pipe through the opening.
[0007] The quantitative liquid bottle, the axis of the outlet pipe is oblique to the main axis of the bottle body, the inlet hole is located on the oblique side of the outlet pipe, and the air hole is located on the side away from the oblique side of the outlet pipe; the inlet hole and the air hole are through holes with a water drop-shaped cross section.
[0008] The quantitative liquid bottle, the intersection angle between the axis of the outlet pipe and the main axis of the bottle body is 25°-35°; the distance between the lower end of the outlet pipe and the bottom surface of the inlet pipe is 2-3 mm.
[0009] The quantitative liquid bottle, the cap includes a cap body and a quantitative cavity body, the cap body includes a receiving hole for accommodating the quantitative cavity body, and the quantitative cavity body is installed in the receiving hole; the quantitative cavity is arranged in the quantitative cavity body, the bottom plate of the quantitative cavity is the bottom plate of the quantitative cavity body, and the top plate of the quantitative cavity is the top plate of the quantitative cavity body; the top plate of the quantitative cavity body includes a boss protruding downward in the quantitative cavity, and the air hole penetrates the boss.
[0010] The quantitative liquid bottle, the axis of the outlet pipe is oblique along the longitudinal direction, the cap includes two elastic buckles, the two elastic buckles are separated along the transverse direction and are symmetrically arranged; the elastic buckle includes a buckle and a compression spring, the buckle includes a button and a hook, the hook is arranged below the button, the hook head of the hook faces outward, and the inner side of the button includes a spring seat; the quantitative cavity body includes a buckle mounting groove corresponding to the buckle, and the upper part of the buckle mounting groove includes a button hole; the buckle and the compression spring are arranged in the buckle mounting groove, the button of the buckle is arranged in the button hole, the inner side of the buckle leaves a gap with the groove bottom of the buckle mounting groove, the compression spring is installed between the groove bottom of the buckle mounting groove and the spring seat of the button, the inner wall of the receiving hole of the cap body includes a clamping groove corresponding to the hook of the buckle, and the hook of the buckle hooks the upper edge of the clamping groove.
[0011] The quantitative liquid bottle, the outer periphery of the lower part of the quantitative cavity body includes an annular groove, and an elastic sealing ring is arranged in the annular groove; the lower part of the quantitative cavity body and the receiving hole of the cap body are sealed by the elastic sealing ring.
[0012] The quantitative liquid bottle, the lower end of the quantitative cavity includes a bottom plate mounting hole, and the bottom plate is mounted in the bottom plate mounting hole in an interference fit.
[0013] The quantitative liquid bottle, including the bottle cap, comprises a cover plate and a strip-shaped gravity flap, the top plate comprises a liquid nozzle protruding upward, the liquid nozzle comprises a liquid outlet, and the inclination angle of the liquid outlet is the same as that of the liquid outlet pipe; the upper part of the quantitative cavity comprises a cylindrical sidewall, the top end of the cylindrical sidewall is higher than the top plate, and the cover plate is connected with the upper end of the cylindrical sidewall; the cover plate comprises a flap hole, and the gravity flap is arranged in the flap hole and is hinged to the cover plate.
[0014] The quantitative liquid bottle, the button hole of the buckle mounting groove is opened on the cylindrical sidewall, the upper end of the buckle mounting groove is open, and the opening of the upper end of the buckle mounting groove serves as an entrance for buckle mounting; the opening of the upper end of the buckle mounting groove is closed by the cover plate, and the gap between the upper end of the button and the cover plate in the spring axial direction is smaller than the gap between the lower end of the buckle and the bottom of the buckle mounting groove.
[0015] The quantitative liquid bottle can quantitatively fill the quantitative cavity and output a quantitative liquid after one pouring. [BRIEF DESCRIPTION OF DRAWINGS]
[0016] The utility model will be explained further in detail in combination with the drawings and specific embodiment.
[0017] Figure 1 It is the perspective view of the quantitative oil bottle of the utility model embodiment 1.
[0018] Figure 2 It is the top view of the quantitative oil bottle of the utility model embodiment 1.
[0019] Figure 3 It is the exploded view of the quantitative oil bottle of the utility model embodiment 1.
[0020] Figure 4 It is Figure 2 A-A sectional view in the figure.
[0021] Figure 5 It is Figure 2 B-B sectional view in the figure.
[0022] Figure 6 It is the schematic diagram of the bottle body of the utility model embodiment 1 injecting oil liquid into the quantitative cavity.
[0023] Figure 7 It is the schematic diagram of the quantitative cavity of the utility model embodiment 1 just filling the quantitative oil liquid.
[0024] Figure 8 It is the schematic diagram of the quantitative cavity of the utility model embodiment 1 starting to output oil liquid outward.
[0025] Figure 9 It is the schematic diagram of the quantitative cavity of the utility model embodiment 1 stopping to output oil liquid outward.
[0026] Figure 10 is a sectional view of the quantitative oil bottle of the embodiment 2 of the present utility model. [DETAILED DESCRIPTION]
[0027] The structure and working principle of the quantitative oil bottle of the embodiment 1 of the present utility model are shown as Figures 1 to 9 indicated, comprising a glass bottle body 100 and a bottle cap 200.
[0028] The bottle cap 200 comprises a cap body 10, a quantitative cavity 20, two elastic buckles 30, a cover plate 40 and a bar-shaped gravity flap 50. The lower part of the cap body 10 comprises an inner thread 11 connected with the glass bottle body 100, and the upper part of the cap body 10 has a bearing hole 12 accommodating the quantitative cavity 20, and the quantitative cavity 20 is installed in the bearing hole 12. The cavity in the quantitative cavity 20 is a quantitative cavity 20A, and the bottom plate 21 of the quantitative cavity 20 is the bottom plate of the quantitative cavity 20A, and the top plate 22 of the quantitative cavity 20 is the top plate of the quantitative cavity 20A.
[0029] The bottom plate 21 of the quantitative cavity 20 has an oil inlet hole 211 communicating the quantitative cavity 20A with the inner cavity of the glass bottle body 100, and the top plate 22 of the quantitative cavity 20 has an oil nozzle 221 protruding outward, and the oil nozzle 221 has an oil outlet 222.
[0030] The quantitative cavity 20 has a siphon pipe 23, and the siphon pipe 23 comprises an oil inlet pipe 231, an oil outlet pipe 232 and a connecting part 233 of the oil inlet pipe 231 and the oil outlet pipe 232.
[0031] In the embodiment, the siphon pipe 23 is a telescopic pipe, and the oil inlet end of the oil inlet pipe 231 is close to the top plate 22 of the quantitative cavity 20. The oil outlet pipe 232 of the siphon pipe 23 is inserted into the oil inlet pipe 231 from the oil inlet end of the oil inlet pipe 231, and the inner diameter of the oil inlet pipe 231 is greater than the outer diameter of the oil outlet pipe 232. The upper end of the oil outlet pipe 232 is connected with the oil outlet 222, and the lower end of the oil outlet pipe 232 is close to the bottom of the oil inlet pipe 231, and the bottom of the oil inlet pipe 231 is provided with a gas pipe 234 as the connecting part 233, and the gas pipe 234 is communicated with the cavity in the connecting part 233. The gas pipe 234 is fixed on the bottom plate 21 of the quantitative cavity 20, and the bottom surface of the bottom plate 21 is provided with an opening, and the upper end of the gas guide pipe 60 is inserted into the inner hole of the gas pipe 234 through the opening, and the main body of the gas guide pipe 60 is vertically arranged in the inner cavity of the glass bottle body 100, and the lower end of the gas guide pipe 60 is close to the bottom surface of the inner cavity of the glass bottle body 100.
[0032] The quantitative cavity 20A has an air hole 224 communicated with the atmosphere. The top plate 22 of the quantitative cavity 20 has a boss 223 protruding downward in the quantitative cavity, and the vertically arranged air hole 224 penetrates the boss. The opening at the upper end of the air hole 224 is communicated with the atmosphere, and the opening at the lower end of the air hole 224 is located in the lower part of the quantitative cavity 20A.
[0033] The axis of the oil outlet pipe 232 is inclined to the longitudinal direction (X direction), and the axis of the oil outlet pipe 232 is oblique to the main axis of the glass bottle body 100. The oil inlet hole 211 is located on the inclined side of the oil outlet pipe 232, and the air vent hole 224 is located away from the inclined side of the oil outlet pipe 232. The oil inlet hole 211 and the air vent hole 224 are both through holes with a water drop-shaped cross section. Compared with circular through holes, water drop-shaped through holes have smoother flow, do not produce bubbles, and are not easy to block.
[0034] In this embodiment, the intersection angle between the axis of the oil outlet pipe 232 and the main axis of the glass bottle body 100 is 30°, the upper end of the oil outlet pipe 232 is inserted into the oil outlet 222, and the inclination angle of the oil outlet 222 is the same as the inclination angle of the oil outlet pipe 232. The distance b between the lower end of the oil outlet pipe 232 and the bottom surface of the oil inlet pipe 231 is 2-3 mm.
[0035] The outer periphery of the lower part of the metering cavity 20 has a ring-shaped groove 24, and the ring-shaped groove 24 is provided with an elastic sealing ring 241. The lower part of the metering cavity 20 and the bearing hole 12 of the cover body 10 are sealed by the elastic sealing ring 241.
[0036] The lower end of the metering cavity 20A has a bottom plate bearing hole 25, and the bottom plate 21 is installed in the bottom plate 21 bearing hole 12 and is in interference fit with the bottom plate bearing hole 252 to achieve sealing.
[0037] The upper part of the metering cavity 20 includes a cylindrical side wall 26, and the top end of the cylindrical side wall 26 is higher than the top plate 22. The edge of the cover plate 40 is clamped with the upper end of the cylindrical side wall 26. The cover plate 40 has a flip cover hole 41 for oil outlet, and a gravity flip cover 50 is arranged in the flip cover hole 41. The rear part of the gravity flip cover 50 is hinged with the cover plate 40.
[0038] The two elastic buckles 30 are separated along the transverse direction (Y axis direction) and are symmetrically arranged. The elastic buckle 30 includes a buckle 31 and a compression spring 33. The buckle 31 includes a button 311 and a clamping hook 312, and the clamping hook 312 is located below the button 311. The hook head of the clamping hook 312 faces outward, and the inner side of the button 311 has a spring seat 313. The metering cavity 20 includes a buckle installation groove 27 corresponding to the buckle 31, and the upper part of the buckle installation groove 27 includes a button hole 271. The buckle 31 and the compression spring 33 are arranged in the buckle installation groove 27, the button 311 of the buckle 31 is arranged in the button hole 271, and the inner side of the buckle 31 is left with a gap with the groove bottom of the buckle installation groove 27, so as to facilitate the inward pressing of the buckle 31. The compression spring 33 is installed between the groove bottom of the buckle installation groove 27 and the spring seat 313 of the button 311. The inner wall of the cover body bearing hole 12 includes a clamping groove 13 corresponding to the buckle clamping hook 312, and the clamping hook 312 of the buckle 31 hooks the upper edge of the clamping groove 13.
[0039] The button hole 271 of the buckle mounting groove 27 is opened on the cylindrical side wall 26, the upper end of the buckle mounting groove 27 is open, and the opening of the upper end of the buckle mounting groove 27 serves as an entrance for mounting the buckle 31. The upper end of the button 311 is closed by the cover plate 40 along the axial gap δ of the compression spring 33, which is smaller than the gap Δ between the lower end of the buckle 31 and the groove bottom of the buckle mounting groove 27. When the button 311 is pressed, the lower end of the buckle 31 swings inward, the hook 312 is separated from the buckle groove 13, and at this time, the quantitative cavity 20 can be taken out of the bearing hole 12.
[0040] The working principle of the quantitative oil bottle of the embodiment 1 of the utility model is shown in Figures 6 to 9 as follows, including the following working steps:
[0041] 1) as shown in Figure 6 , pour (stand on one's head) the quantitative oil bottle along the longitudinal direction (X-axis direction), so that the oil outlet pipe 232 of the siphon pipe 23 is vertically downward, at this time, the oil liquid in the inner cavity of the glass bottle body 100 flows into the quantitative cavity 20A from the oil inlet hole 211 on the bottom plate 21, at the same time, the air enters the oil outlet pipe 232 of the siphon pipe 23, flows into the upper part of the oil liquid in the inner cavity of the glass bottle body 100 through the air guide pipe 60, and fills the vacuum formed by the outflow of the oil liquid in the inner cavity of the glass bottle body 100; the air above the liquid surface in the quantitative cavity 20A flows out from the air vent hole 224 on the top plate 22 due to the decrease of the space caused by the inflow of the oil liquid.
[0042] 2) as shown in Figure 7 , the liquid level in the quantitative cavity 20A gradually rises, when the oil liquid enters the connecting part 233 from the oil inlet pipe 231 of the siphon pipe 23, the oil liquid entering the connecting part 233 blocks the air passage between the oil outlet pipe 232 and the air guide pipe 60, the air no longer enters the inner cavity of the glass bottle body 100, and the vacuum is formed in the upper part of the oil liquid in the inner cavity of the glass bottle body 100, so that the oil liquid in the inner cavity of the glass bottle body 100 stops flowing into the quantitative cavity 20A from the oil inlet hole 211 on the bottom plate 21.
[0043] 3) as shown in Figure 8 , due to the fact that the space above the liquid surface in the quantitative cavity 20A is connected with the atmosphere through the air vent hole 224, the oil liquid in the quantitative cavity 20A flows out through the oil outlet pipe 232 of the siphon pipe 23 under the siphon effect, the liquid surface in the quantitative cavity 20A gradually decreases, and the space vacated by the outflow of the oil liquid in the quantitative cavity 20A is supplemented by the inflow of the air through the air vent hole 224.
[0044] 4) as shown in Figure 9 , when the liquid surface in the quantitative cavity 20A drops to the inlet position of the oil inlet pipe 231 of the siphon pipe, the siphon effect stops, and the oil outlet pipe 232 of the siphon pipe 23 stops the outflow of oil; the amount of oil outflowed by the quantitative oil bottle at one time corresponds to the volume of oil corresponding to the vertical distance H between the inlet of the oil inlet pipe 231 and the bottom of the oil inlet pipe 231 in the quantitative cavity 20A.
[0045] 5) If the once ration is enough, the pouring (inverted) ration oil bottle can be restored to the upright state, and the oil output is stopped. If the oil output needs to continue, the ration oil bottle can be kept in the pouring (inverted) state, and the ration oil bottle will repeat the steps 1 to 4, and each cycle flows out the oil volume corresponding to the vertical interval H as shown, and the ration oil bottle pours out the integer times of the oil volume of the approved ration once. Figure 9
[0046] The structure of the ration oil bottle of the embodiment 2 is as shown in Figure 10 The difference between the embodiment 2 and the embodiment 1 is only that the siphon pipe 23 is replaced by the U-shaped elbow pipe instead of the nested pipe of the embodiment 1, the working principle is completely the same, and other structures are also completely the same.
Claims
1. A dosing liquid bottle comprising a bottle body and a cap, characterized in that, The bottle includes a gas guide tube, which is arranged in the inner cavity of the bottle body and has a lower end close to the bottom surface of the inner cavity of the bottle body; the bottle cap includes a metering cavity, a siphon tube and a vent hole, the bottom plate of the metering cavity includes a liquid inlet hole for connecting the metering cavity with the inner cavity of the bottle body, and the top plate of the metering cavity includes a liquid outlet; the siphon tube is arranged in the metering cavity and includes a liquid inlet tube, a liquid outlet tube and a connecting part of the liquid inlet tube and the liquid outlet tube, the upper end of the liquid outlet tube is connected with the liquid outlet, and the liquid inlet end of the liquid inlet tube is close to the top plate of the metering cavity; the connecting part close to the bottom plate of the metering cavity includes a vent tube, which is connected with the upper end of the gas guide tube; the upper end of the vent hole is connected with the atmosphere, and the lower end of the vent hole is located in the lower part of the metering cavity.
2. The dosing liquid bottle according to claim 1, characterized in that The siphon tube is a telescopic tube, the liquid outlet tube of the siphon tube is inserted into the liquid inlet tube, the inner diameter of the liquid inlet tube is larger than the outer diameter of the liquid outlet tube, the lower end of the liquid outlet tube is close to the bottom of the liquid inlet tube, the bottom of the liquid inlet tube is the connecting part and includes the vent tube, the vent tube is fixed on the bottom plate of the metering cavity and has an opening on the bottom surface of the bottom plate, and the upper end of the gas guide tube is inserted into the inner hole of the vent tube through the opening.
3. The dosing liquid bottle according to claim 2, characterized in that The axis of the liquid outlet tube is oblique to the main axis of the bottle body, the liquid inlet hole is located on the oblique side of the liquid outlet tube, and the vent hole is located on the side away from the oblique side of the liquid outlet tube; the liquid inlet hole and the vent hole are through holes with a water drop-shaped cross section.
4. The dosing liquid bottle according to claim 3, characterized in that The intersection angle between the axis of the liquid outlet tube and the main axis of the bottle body is 25°-35°, and the distance between the lower end of the liquid outlet tube and the bottom surface of the liquid inlet tube is 2-3 mm.
5. The dosing liquid bottle according to claim 3, characterized in that The bottle cap includes a cap body and a metering cavity body, the cap body includes a bearing hole for accommodating the metering cavity body, and the metering cavity body is installed in the bearing hole; The metering cavity is arranged in the metering cavity body, the bottom plate of the metering cavity is the bottom plate of the metering cavity body, and the top plate of the metering cavity is the top plate of the metering cavity body; the top plate of the metering cavity body includes a protrusion protruding downward in the metering cavity, and the vent hole penetrates the protrusion.
6. The dosing liquid bottle according to claim 5, characterized in that The axis of the liquid outlet tube is longitudinally inclined, the bottle cap includes two elastic buckles, the two elastic buckles are separated along the transverse direction and symmetrically arranged; the elastic buckle includes a buckle and a compression spring, the buckle includes a button and a clamping hook, the clamping hook is arranged below the button, the hook head of the clamping hook faces outward, and the inner side of the button includes a spring seat; the metering cavity body includes a buckle installation groove corresponding to the buckle, and the upper part of the buckle installation groove includes a button hole; the buckle and the compression spring are arranged in the buckle installation groove, the button of the buckle is arranged in the button hole, the inner side of the buckle leaves a gap with the groove bottom of the buckle installation groove, the compression spring is installed between the groove bottom of the buckle installation groove and the spring seat of the button, the inner wall of the bearing hole of the cap body includes a clamping groove corresponding to the clamping hook of the buckle, and the clamping hook of the buckle hooks the upper edge of the clamping groove.
7. The metered liquid bottle of claim 5, wherein, The outer periphery of the lower part of the metering cavity body includes an annular groove, and an elastic sealing ring is arranged in the annular groove, and the lower part of the metering cavity body and the bearing hole of the cap body are sealed by the elastic sealing ring.
8. The metered liquid bottle of claim 1, wherein, The lower end of the metering cavity includes a bottom plate bearing hole, and the bottom plate is installed in the bottom plate bearing hole and is in interference fit with the bottom plate bearing hole.
9. The metered liquid bottle of claim 6, wherein, The bottle cap comprises a cover plate and a strip-shaped gravity flip cover, the top plate comprises an upwardly protruding liquid nozzle, the liquid nozzle comprises the liquid outlet, and the inclination angle of the liquid outlet is the same as that of the liquid outlet pipe; the upper part of the quantitative cavity comprises a cylindrical side wall, the top end of the cylindrical side wall is higher than the top plate, and the cover plate is clamped with the upper end of the cylindrical side wall; the cover plate comprises a flip cover hole, the gravity flip cover is arranged in the flip cover hole, and the gravity flip cover is hinged with the cover plate.
10. The metered liquid bottle of claim 5, wherein, The button hole of the buckle mounting groove is opened on the cylindrical side wall, the upper end of the buckle mounting groove is open, and the opening of the upper end of the buckle mounting groove serves as an entrance for buckle mounting; the opening of the upper end of the buckle mounting groove is closed by the cover plate, and the gap between the upper end of the button and the cover plate along the spring axial direction is smaller than the gap between the lower end of the buckle and the bottom of the buckle mounting groove.
Citation Information
Patent Citations
Oil pot
CN215874380U