Dental implant packaging bottle

Abstract

The invention belongs to the technical field of oral implant auxiliary instruments, and particularly relates to a dental implant packaging bottle which comprises a bottle body, a bottle cap and an inner support, the inner support is arranged in the bottle body, the bottle cap is arranged at the top of the bottle body, the inner support is connected with the bottle cap, a sleeve, a gate block and a bottom plug are sequentially arranged in the bottle body from top to bottom, and the bottom plug is connected with the inner support. The inner support is connected with the sleeve, a gate hole is formed in the gate block, the bottom of the sleeve is clamped in the gate block, the bottom of the gate block is clamped in the bottom plug, a liquid outlet hole is formed in the bottom plug, and a liquid storage bin is arranged between the bottom face of the inner side of the bottle body and the bottom plug. Liquid in the small bottle can flow out through the gate hole and the liquid outlet hole and flow into the liquid storage bin below the bottom plug, so that the liquid in the small bottle is recycled, the risk that the liquid in the small bottle is splashed on an operation site is greatly reduced, and only the opened small bottle needs to be simply placed or placed at a proper place.

Description

Technical Field

[0001] The present invention relates to a packaging bottle for dental implants, belonging to the technical field of oral implant auxiliary instruments. Background Art

[0002] The packaging of dental implants (abbreviated as "implants") generally uses sterile vials, which is a commonly used packaging technology for dental implants at present. Due to the particularity of dental implant products, especially the surface should not have visible defects such as shrinkage holes, scratches, and knocks, and it is necessary to isolate contact with substances in the air and maintain a sterile state before implantation into the oral cavity; therefore, the packaging of dental implants needs to have special protection for its surface. In the prior art, there are two ways to place and fix dental implants in a vial. One is suspended fixed packaging, and the other is titanium cylinder floating packaging. The way of suspended fixed packaging is to first connect the implant to an auxiliary fixing part, that is, a carrier, and then fix the carrier, so as to suspend and fix the implant in the vial. During this process, the implant will not contact other objects in the vial, playing a good protective role; for suspended fixed packaging, a carrier component for placing and fixing the implant, also known as an "inner bracket", needs to be added in the vial. Usually, the inner bracket is connected to the bottle cap, and when the bottle cap is opened, the inner bracket can be pulled out of the vial, and then the implant can be taken out. Titanium cylinder floating packaging does not require a carrier, but places the implant in a titanium cylinder, and the titanium cylinder is fixed in the vial. The implant can contact the inner wall of the titanium cylinder and is in a floating state, that is, the implant has a certain activity space in the titanium cylinder.

[0003] Straumann, a Swiss company, invented the liquid packaging technology for implants, that is, injecting a certain amount of preservation liquid into a sterilized vial to keep the surface of the implant always moist. The purpose of this is to maintain the hydrophilicity of the implant surface. According to clinical application practices and other studies, this liquid packaging is very effective for maintaining the hydrophilicity of the implant surface. However, there are new technical problems with the liquid packaging technology: at the surgical site, when the liquid packaging vial is opened and the implant inside is extracted, then the vial containing the liquid must be properly placed or arranged immediately. During this period, there is a possibility of liquid splashing in the vial. Once the liquid splashes into the surgical area, there is a risk of contaminating the surgical environment. Therefore, it is necessary to recover the liquid in the implant packaging vial using the liquid packaging technology to avoid splashing. Summary of the Invention

[0004] The present invention aims at the above technical problems of the prior art and provides a packaging bottle for dental implants.

[0005] The technical solution of the present invention to solve the above technical problems is as follows: A dental implant packaging bottle, comprising a bottle body, a bottle cap and an inner bracket. The inner bracket is arranged inside the bottle body, the bottle cap is arranged at the top of the bottle body, the inner bracket is connected to the bottle cap, and the bottle body is sequentially provided with a sleeve, a gate block and a bottom plug from top to bottom. The inner bracket is connected to the sleeve, the gate block is provided with a gate hole, the bottom of the sleeve is clamped inside the gate block, the bottom of the gate block is clamped inside the bottom plug, the bottom plug is provided with a liquid outlet hole, and the gate block is used to open or close the liquid outlet hole. A liquid storage chamber is arranged between the inner bottom surface of the bottle body and the bottom plug, and the liquid storage chamber is communicated with the liquid outlet hole.

[0006] The beneficial effects of the present invention are as follows: By connecting the bottle cap with the inner bracket, the inner bracket with the sleeve, and the sleeve with the gate block, when the bottle cap is opened, the gate block follows through the inner bracket and the sleeve. The gate block is provided with a gate hole and the bottom plug is provided with a liquid outlet hole. When the gate block rotates to align the gate hole with the liquid outlet hole, the liquid in the vial can flow out through the gate hole and the liquid outlet hole and flow into the liquid storage chamber below the bottom plug, thereby recovering the liquid in the vial. In this way, when extracting the implant at the surgical site with the bottle cap opened, the risk of liquid splashing in the vial will be greatly reduced, and the opened vial can be simply placed or arranged at a suitable location.

[0007] Based on the above technical solutions, the present invention can also be improved as follows: Further, the sleeve is provided with a large cylinder section and a small cylinder section. The length of the large cylinder section is greater than that of the small cylinder section. The two sides of the small cylinder section are symmetrically provided with partition grooves. There are two partition grooves on each side of the sleeve respectively. The partition grooves penetrate through the small cylinder section and extend to the large cylinder section. A petal is formed between two adjacent partition grooves. The petal is provided with triangular teeth. The gate block is cylindrical. The upper part of the gate block is provided with an annular groove. The inner side surface of the annular groove is provided with a toothed ring. The tooth grooves of the toothed ring are triangular tooth grooves. The triangular teeth are engaged with the toothed ring.

[0008] Further, the bottom plug is provided with a circular depression. The inner bottom surface of the circular depression is provided with a sector-shaped inner concave. The bottom of the gate block is provided with a latch. The latch and the gate hole are arranged at 180° in the horizontal direction. The latch is arranged in the sector-shaped inner concave.

[0009] Further, the bottle body is in the shape of a tube with one end closed. The bottle body includes a tube body and a tube base fixedly connected to the bottom of the tube body. The liquid storage chamber is arranged in the tube base. The inner bottom surface of the tube base is provided with a bottle bottom central column. The bottom plug and the gate block are sleeved on the bottle bottom central column.

[0010] Further, the central column of the bottle bottom includes a bottom column and a top column. The end of the bottom column is installed on the inner bottom surface of the pipe socket. The top column is provided at the upper end of the bottom column. The diameter of the bottom column is larger than that of the top column. A square column is provided on the top column. The four corners of the square column are adapted to the cylindrical surface radian of the top column. An annular rib one is provided on the outer top of the top column. A square hole is provided in the center of the bottom plug. The size of the square hole is adapted to that of the square column. A plug bottom central column is provided at the bottom of the square hole. A stepped hole is provided in the plug bottom central column. The stepped hole communicates with the square hole. An annular rib two is provided in the stepped hole. The annular rib two abuts against the annular rib one. A through hole is provided in the center of the gate block.

[0011] Further, a pointer is provided on the upper part of the outer side of the gate block, which is arranged corresponding to the latch; an annular clamping flange one is provided on the lower part of the outer side of the gate block, and an annular clamping flange two is correspondingly provided on the top of the inner side of the circular depression of the bottom plug. The clamping flange one abuts against the clamping flange two.

[0012] Further, an annular sealing groove is provided at the bottom of the bottom plug. A sealing ring one is sleeved in the sealing groove. A sealing ring two is sleeved on the top column. The sealing ring two is arranged between the annular rib one and the annular rib two.

[0013] Further, the inner bracket includes a semi-cylindrical groove body. A cross beam is provided at the top of the semi-cylindrical groove body. A bracket cylinder is provided in the middle of the cross beam. A bracket round hole is provided in the center of the bracket cylinder. The diameter of the bracket cylinder is larger than the width of the cross beam. A middle partition plate is provided at the lower part of the semi-cylindrical groove body. An end plate is provided at the bottom of the semi-cylindrical groove body. Installation card slots are provided on both the middle partition plate and the end plate. Long holes are provided on the end plate and are arranged on both sides of the installation card slot. The bottom of the installation card slot is semi-circular. Driving arms are symmetrically provided on the upper part of the outer side of the semi-cylindrical groove body. The driving arms are integrally provided with the cross beam. The shape of the side surface of the driving arm is adapted to the end surface shape of the cross beam. A deep groove is correspondingly provided on the upper part of the large cylinder section of the sleeve for the driving arm.

[0014] Further, a bracket card slot is provided on the inner top surface of the bottle cap. The shape of the bracket card slot is adapted to the shape of the upper end surface of the inner bracket; a cavity is provided on the bottle cap, and a top cover is inserted on the cavity; internal threads are provided on the inner side wall of the bottle cap, and external threads are provided on the upper part of the outer side of the bottle body.

[0015] Further, windows are provided on both sides of the middle of the sleeve. The material of the bottle body is a transparent material. BRIEF DESCRIPTION OF THE DRAWINGS

[0016] Figure 1 is a schematic diagram of the overall structure of the present invention; Figure 2 is a cross-sectional view of the internal structure of the present invention; Figure 3 is an exploded view of the present invention; Figure 4 is a cross-sectional view of the three-dimensional structure of the bottle cap; Figure 5 is a schematic diagram of the three-dimensional structure of the bottle cap; Figure 6 is a bottom view of the bottle cap; Figure 7 is a cross-sectional view of the three-dimensional structure of the bottle body; Figure 8 is a schematic diagram of the three-dimensional structure of the bottle body; Figure 9 is a cross-sectional view of the bottle body; Figure 10 is a schematic diagram of the three-dimensional structure of the central column at the bottom of the bottle; Figure 11 is a schematic diagram of the three-dimensional structure of the sleeve; Figure 12 is a front view of the sleeve; Figure 13 is a schematic diagram of the three-dimensional structure of the sleeve from another angle; Figure 14 is a schematic diagram of the structure of the cooperation between the sleeve and the gate block; Figure 15 is a schematic diagram of the three-dimensional structure of the gate block; Figure 16 is a cross-sectional view of the gate block; Figure 17 is a top view of the gate block; Figure 18 is a schematic diagram of the three-dimensional structure of the gate block from another angle; Figure 19 is a bottom view of the gate block; Figure 20 is a schematic diagram of the three-dimensional structure of the bottom plug; Figure 21 is a schematic diagram of the three-dimensional structure of the bottom plug from another angle; Figure 22 is a cross-sectional view of the bottom plug; Figure 23 is a top view of the bottom plug; Figure 24 is a bottom view of the bottom plug; Figure 25 is a schematic diagram of the installation relationship between the gate block and the bottom plug; Figure 26 is a schematic diagram of the three-dimensional structure of the cooperation between the inner bracket and the implant; Figure 27 is a schematic diagram of the three-dimensional structure of the inner bracket; Figure 28 Front view of the cooperation between the inner stent and the implant Figure 29 is Figure 28 side view of; Figure 30 Bottom view of the inner stent; Figure 31 The first state of the movement of the catch of the gate block in the fan-shaped concave of the bottom plug; Figure 32 The second state of the movement of the catch of the gate block in the fan-shaped concave of the bottom plug; Figure 33 The third state of the movement of the catch of the gate block in the fan-shaped concave of the bottom plug; Figure 34 Schematic diagram of the positional relationship between the bottle body indicating arrow and the pointer of the gate block inside it.

[0017] Reference numerals are recorded as follows: 1. Top cover; 2. Bottle cap; 202. Internal thread; 206. Bracket slot; 207. Cavity; 3. Bottle body; 302. External thread; 303. Tube body; 304. Bottle bottom center post; 305. Liquid storage chamber; 306. Tube seat; 307. Bottle mouth convex rib; 308. Bottom post; 309. Top post; 310. First annular convex rib; 311. Square post; 312. Top post hole; 313. Bottom post hole; 4. Sleeve; 402. Large tube section; 403. Window; 404. Small tube section; 406. Partition groove; 407. Flap; 408. Triangular tooth; 409. External convex rib; 410. Deep groove; 5. Gate block; 501. Outer side; 504. Tooth ring; 505. Gate hole; 508. Through hole; 509. First clamping flange; 510. Pointer; 512. Catch; 6. Bottom plug; 601. Large column; 603. Circular depression; 604. Inner bottom surface; 605. Second clamping flange; 606. Rear stop surface; 607. Fan-shaped concave; 608. Front stop surface; 609. Small column; 610. Edge convex rib; 611. Square hole; 612. Liquid outlet hole; 613. Bottom plug center post; 614. Step hole; 616. Second annular convex rib; 7. First sealing ring; 8. Second sealing ring; 9. Carrier screw; 10. Carrier; 11. Implant; 12. Inner stent; 1201. Cross beam; 1202. Bracket cylinder; 1203. Bracket round hole; 1204. Driving arm; 1205. Semi-cylindrical groove body; 1207. Middle partition; 1208. End plate; 1209. Installation slot; 1210. Clamping protrusion; 1211. Long hole; 13. Cover screw. Detailed implementation manners

[0018] The principles and features of the present invention will be described below with reference to the accompanying drawings. The examples given are only for explaining the present invention and are not intended to limit the scope of the present invention.

[0019] See Figures 1 - 34, a dental implant packaging bottle, comprising a bottle body 3, a bottle cap 2 and an inner support 12. The inner support 12 is arranged inside the bottle body 3, the bottle cap 2 is arranged at the top of the bottle body 3, and the bottle cap 2 is threadedly connected to the bottle body 3. Specifically, an internal thread 202 is provided on the inner side wall of the bottle cap 2, and an external thread 302 is provided on the upper outer part of the bottle body 3. The inner top surface of the bottle cap 2 and the upper end surface of the bottle body 3 are in contact through the screwing together of the internal thread 202 and the external thread 302. The inner support 12 is connected to the bottle cap 2. Inside the bottle body 3, a sleeve 4, a gate block 5 and a bottom plug 6 are sequentially arranged from top to bottom. The inner support 12 is connected to the sleeve 4. A gate hole 505 is provided on the gate block 5. The bottom of the sleeve 4 is clamped inside the gate block 5, and the bottom of the gate block 5 is clamped inside the bottom plug 6. A liquid outlet hole 612 is provided on the bottom plug 6. The gate block 5 is used to open or close the liquid outlet hole 612. A liquid storage chamber 305 is provided between the inner bottom surface of the bottle body 3 and the bottom plug 6, and the liquid storage chamber 305 is communicated with the liquid outlet hole 612.

[0020] Specifically, refer to Figure 11 - Figure 14 , the sleeve 4 is provided with a large tube section 402 and a small tube section 404. The diameter of the large tube section 402 is greater than that of the small tube section 404, and the length of the large tube section 402 is greater than that of the small tube section 404. On both sides of the small tube section 404, partition grooves 406 are symmetrically provided. There are two partition grooves 406 on each side of the sleeve 4. The partition grooves 406 penetrate through the small tube section 404 and extend to the large tube section 402. A flap 407 is formed between two adjacent partition grooves 406. Triangular teeth 408 are provided on the flap 407. The two triangular teeth 408 are arranged at 180°. One end of the partition groove 406 extending to the large tube section 402 bends inward, that is, the ends of the two partition grooves 406 face each other, so that the root width of the flap 407 is smaller than the width at other positions, making it easier for the flap 407 to deform under the action of an external force, causing the triangular teeth 408 provided on the flap 407 to skip teeth. The gate block 5 is cylindrical. An annular groove is provided on the upper part of the gate block 5. A toothed ring 504 is provided on the inner side surface of the annular groove. The tooth grooves of the toothed ring 504 are triangular tooth grooves. The triangular teeth 408 are meshed with the toothed ring 504.

[0021] Refer to Figure 15 - Figure 25, a circular recess 603 is provided on the bottom plug 6. The bottom plug 6 is in the shape of a stepped cylinder, that is, it includes a large cylinder 601 and a small cylinder 609. The circular recess 603 is provided on the large cylinder 601. A sector-shaped inner recess 607 is provided on the inner bottom surface 604 of the circular recess 603. A front stop surface 608 and a rear stop surface 606 are respectively formed at both ends of the sector-shaped inner recess 607. A latch 512 is provided at the bottom of the gate block 5. The latch 512 and the gate hole 505 are arranged at 180° in the horizontal direction. The latch 512 is arranged in the sector-shaped inner recess 607.

[0022] With the above structure, when the bottom end of the small barrel section 404 of the sleeve 4 is inserted into the gear ring 504 of the gate block 5, the triangular teeth 408 on the two petals 407 of the sleeve 4 all enter the tooth spaces of the gear ring 504 and cooperate with the tooth spaces (see Figure 14 ). After the two cooperate, when the sleeve 4 rotates, the triangular teeth 408 on both sides of the sleeve 4 will catch the gear ring 504 and push the gate block 5 to rotate. In this way, the contact friction force between the gate block 5 and the bottom plug 6 can be overcome, so that when the latch 512 at the bottom of the gate block 5 rotates to contact the front stop surface 608 or the rear stop surface 606, the gate block 5 is blocked and stops rotating. At this time, if a greater rotational force, that is, a torque, is applied, due to the characteristics of the triangular teeth 408 themselves, the tooth surface will receive a reaction force from the tooth space. This reaction force can cause the petal 407 to move inward, that is, towards the center of the sleeve 4, that is, the petal 407 undergoes elastic deformation and generates a radial movement. Then, the petal 407 of the sleeve 4 will move inward and rotate with the sleeve 4 at the same time, thus causing a "tooth skipping" phenomenon, that is, the two triangular teeth 408 on the sleeve 4 will successively jump into the next adjacent tooth space of the gear ring 504, and a "click click click..." sound can be emitted.

[0023] Therefore, the sleeve 4, the gate block 5, and the bottom plug 6 together constitute a "two-stage force control mechanism", thereby realizing the action mechanism of opening or closing the liquid outlet hole 612 through the gate block 5, that is, the automatic synchronization of the opening and closing of the liquid outlet hole 612 and the opening or tightening of the bottle cap 2 can be achieved. When opening the bottle cap 2, that is, when rotating the bottle cap 2 counterclockwise, first make the gate hole 505 align with the liquid outlet hole 612 to drain the liquid and flow into the liquid storage bin 305 of the bottle body 3 (see Figure 31 ). This is the first-stage torque or small torque, which is used to overcome the friction force between the gate block 5 and the bottom plug 6. Then, when continuing to rotate the bottle cap 2 counterclockwise, when the latch 512 at the bottom of the gate block 5 touches the rear stop surface 606 of the bottom plug 6 (see Figure 32), it is blocked from further rotation by the rear stop surface 606. At this time, a greater torque must be applied to rotate the bottle cap 2 until the bottle cap 2 is unscrewed. This is the second-stage torque, i.e., the large torque, which is used to cause the elastic inward deformation of the flap 407 and skip teeth. Thus, during the continuous opening of the bottle cap 2, after the liquid outlet hole 612 is closed by the gate block 5, the closed state of the liquid outlet hole 612 is maintained all the time. On the contrary, when screwing the bottle cap 2, the situation is similar. That is, when rotating the bottle cap 2 clockwise, it is also the small torque that overcomes the friction, and the large torque causes the elastic deformation of the flap 407 and skip teeth. Then, during the process of screwing the bottle cap 2, the gate block 5 can also synchronously maintain the closed state of the liquid outlet hole 612 (see Figure 33 ), but before filling the liquid, the gate block 5 must be placed at the position of closing the liquid outlet hole 612 first, and it is necessary to ensure that the latch 512 is located at one end of the front stop surface 608 so as to be able to open the liquid outlet hole 612 during the subsequent process of opening the bottle cap 2.

[0024] See Figure 7 - Figure 10 , the bottle body 3 is in the shape of a tube with one end closed. The bottle body 3 includes a tube body 303 and a tube base 306 fixedly connected to the bottom of the tube body 303. The diameter of the tube base 306 is larger than that of the tube body 303. An annular bottle mouth ridge 307 is provided at the inner top of the tube body 303. An annular outer ridge 409 is provided at the outer top of the sleeve 4. When the sleeve 4 is placed inside the bottle body 3, the outer ridge 409 of the sleeve 4 abuts against the bottle mouth ridge 307 of the bottle body 3, so that the sleeve 4 is stuck by the bottle mouth ridge 307 and its axial movement is restricted, but it can still rotate. The liquid storage chamber 305 is arranged inside the tube base 306. A bottle bottom central column 304 is provided at the inner bottom surface of the tube base 306. The bottom plug 6 and the gate block 5 are sleeved on the bottle bottom central column 304.

[0025] See Figure 9 - Figure 10, the center post 304 of the bottle bottom includes a bottom post 308 and a top post 309. The end of the bottom post 308 is installed on the inner bottom surface of the socket 306. The top post 309 is provided at the upper end of the bottom post 308. The diameter of the bottom post 308 is greater than that of the top post 309. A bottom post hole 313 is provided on the bottom post 308, and a top post hole 312 is provided on the top post 309. The bottom post hole 313 and the top post hole 312 are not communicated with each other. A square post 311 is provided on the top post 309. The four corners of the square post 311 are adapted to the cylindrical surface radian of the top post 309. An annular rib one 310 is provided at the outer top of the top post 309. A square hole 611 is provided at the center of the bottom plug 6. The size of the square hole 611 is adapted to that of the square post 311. A plug bottom center post 613 is provided at the bottom of the square hole 611. A stepped hole 614 is provided in the plug bottom center post 613. The diameter of the end of the stepped hole 614 close to the square hole 611 is small, and the diameter of the end of the stepped hole 614 far from the square hole 611 is large. The stepped hole 614 is communicated with the square hole 611. An annular rib two 616 is provided in the stepped hole 614. The annular rib two 616 abuts against the annular rib one 310. When the bottom plug 6 is sleeved on the center post 304 of the bottle bottom of the bottle body 3, the annular rib two 616 is located below the annular rib one 310 of the top post 309. Therefore, the annular rib two 616 of the bottom plug 6 will be stuck and fixed by the annular rib one 310 on the top post 309 of the bottle body 3; A through hole 508 is provided at the center of the gate block 5.

[0026] See Figure 5 - Figure 19, a pointer 510 is provided at the upper part of the outer side surface 501 of the gate block 5, and the pointer 510 is arranged corresponding to the latch 512; a ring-shaped first clamping flange 509 is provided at the lower part of the outer side surface 501 of the gate block 5, and a ring-shaped second clamping flange 605 is correspondingly provided at the top of the inner side surface of the circular depression 603 of the bottom plug 6. The first clamping flange 509 abuts against the second clamping flange 605. Due to the blocking of the second clamping flange 605 of the bottom plug 6, the gate block 5 is constrained in the circular depression 603 of the bottom plug 6 and forms a contact pressure on the inner bottom surface 604 of the circular depression 603 of the bottom plug 6. Thus, when the liquid outlet hole 505 on the gate block 5 is not above the liquid outlet hole 612 of the bottom plug 6, the liquid outlet hole 612 can be closed, and the liquid in the vial will not flow out to the liquid storage bin 305 of the bottle body 3; or, when the liquid outlet hole 505 on the gate block 5 is above the liquid outlet hole 612, the liquid outlet hole 612 is opened and communicated with the liquid outlet hole 505, and the liquid in the vial can flow from the liquid outlet hole 505 and the liquid outlet hole 612 into the liquid storage bin 305 of the bottle body 3. At this time, when the gate block 5 rotates and the liquid outlet hole 505 leaves above the liquid outlet hole 612, that is, when the liquid outlet hole 612 is covered by the back surface of the gate block 5, the liquid outlet hole 612 is closed. Then, the liquid that has entered the liquid storage bin 305 of the bottle body 3 is sealed therein.

[0027] The gate block 5 can rotate in the circular depression 603 of the bottom plug 6, and there is friction during the rotation process. In this embodiment, the gate block 5 is made of semi-transparent PE material, so that the hardness of the gate block 5 is moderate and it can undergo compressive deformation within the elastic deformation range, thus being able to block the liquid outlet hole 612 of the bottom plug 6. In addition, the PE material has self-lubricating properties; the bottom plug 6 is made of a harder transparent nylon material, and both can withstand gamma-ray radiation sterilization.

[0028] See Figure 20 - Figure 25 , a ring-shaped edge convex rib 610 is provided at the outer bottom of the small column 609 of the bottom plug 6. A ring-shaped groove is formed between the edge convex rib 610 and the bottom edge of the large column 601 of the bottom plug 6, so as to form a ring-shaped sealing groove at the bottom of the bottom plug 6. A first sealing ring 7 is sleeved in this sealing groove. Due to the blocking of the edge convex rib 610 on the small column 609, the first sealing ring 7 will be kept in place and is not easy to fall off. A second sealing ring 8 is sleeved on the top column 309, and the second sealing ring 8 is arranged between the first annular convex rib 310 and the second annular convex rib 616.

[0029] The two annular convex ribs of the bottom plug 6 above, namely the side convex rib 610 and the second annular convex rib 616 on the bottom plug 6, wherein the cross-sectional shape of the second annular convex rib 616 is arc-shaped. This cross-sectional shape is beneficial to the construction of the injection mold, that is, beneficial to the demolding of the inner cavity. All components of the present invention are made by the injection molding process, which is a manufacturing method with high benefits. Therefore, such annular convex ribs can also be seen on other components. For example, the bottle mouth convex rib 307 of the bottle body 3 and the first annular convex rib 310 on its ejector pin 309 are both convex ribs with an arc-shaped cross-section.

[0030] Participate Figure 26 - Figure 30 The inner bracket 12 includes a semi-cylindrical groove body 1205. A cross beam 1201 is provided at the top of the semi-cylindrical groove body 1205. A bracket cylinder 1202 is provided in the middle of the cross beam 1201. A bracket round hole 1203 is provided at the center of the bracket cylinder 1202. The diameter of the bracket cylinder 1202 is greater than the width of the cross beam 1201. A middle partition plate 1207 is provided at the lower part of the semi-cylindrical groove body 1205. An end plate 1208 is provided at the bottom of the semi-cylindrical groove body 1205. Installation card slots 1209 are provided on both the middle partition plate 1207 and the end plate 1208. A long hole 1211 is provided on the end plate 1208. The long hole 1211 is provided on both sides of the installation card slot 1209. The bottom of the installation card slot 1209 is semi-circular. Clamping protrusions 1210 are respectively provided at both ends of the semi-circular section of the installation card slot 1209. Driving arms 1204 are symmetrically provided at the upper outer side of the semi-cylindrical groove body 1205. The driving arms 1204 and the cross beam 1201 are integrally provided. The side surface of the driving arm 1204 is adapted to the end surface shape of the cross beam 1201. In the present invention, the neck of the carrier 10 connected to the implant 11 is clamped at the semi-circular section of the card slot of the end plate 1208. The distance between the clamping protrusions 1210 at both ends of this semi-circular section is slightly smaller than the diameter of the neck of the carrier 10. When installing the assembly of the carrier 10 and the implant 11, the neck of the carrier 10 must be pressed into the installation card slot 1209. Therefore, the installation card slot 1209 must be moderately deformed outward instantaneously to make way for the entry path of the carrier 10. Through the long holes 1211 on both sides of the installation card slot 1209, it is convenient to realize the action of the clamping protrusions 1210 elastically deforming outward, that is, moving short distances to both sides. After correctly installing the inner bracket 12 with the assembly of the carrier 10 and the implant 11 into the bottle body 3, a part of the carrier screw 9 and the carrier 10 enters the ejector pin hole 312 of the bottle body 3, improving the installation stability of the implant 11. The assembly of the carrier 10 and the implant 11 here does not belong to the present invention. They are cited here only as examples to explain the present invention.

[0031] An upper part of a large cylinder section 402 of the sleeve 4 is provided with a deep groove 410 corresponding to the driving arm 1204. The driving arm 1204 of the inner bracket 12 is installed in the deep groove 410. When the bottle cap 2 is rotated, the inner bracket 12 follows. The inner bracket 12 drives the sleeve 4 to rotate through the driving arm 1204, and then the sleeve 4 drives the gate block 5 to rotate. This process is realized by inserting a flap 407 on the sleeve 4 and triangular teeth 408 on the flap 407 into a toothed ring 504 of the gate block 5, that is, the triangular teeth 408 cooperate with the tooth spaces. When the bottle cap 2 is buckled on an upper opening (i.e., the bottle mouth) of the bottle body 3, the two driving arms 1204 of the inner bracket 12 will enter the deep groove 410 of the sleeve 4, which can ensure the correct connection between the inner bracket 12 and the sleeve 4.

[0032] See Figure 4 - Figure 6 , a bracket slot 206 is provided on an inner top surface of the bottle cap 2. The bracket slot 206 is a special-shaped blind hole, that is, a shape of the bracket slot 206 is adapted to a shape of an upper end surface of the inner bracket 12, and the bracket slot 206 is adapted to a shape formed by combining a cross beam 1201 and a bracket cylinder 1202 of the inner bracket 12. When an upper end of the inner bracket 12 is inserted into the bracket slot 206 of the bottle cap 2, a bracket round hole 1203 in the bracket cylinder 1202 of the inner bracket 12 is sleeved on the bracket slot 206 of the bottle cap 2, and the inner bracket 12 is constrained and fixed through the bracket slot 206. Thus, when the bottle cap 2 rotates, the inner bracket 12 will be driven to rotate simultaneously.

[0033] A cavity 207 is provided on the bottle cap 2. A cap center column is provided in the cavity 207. A cap center hole is provided on the cap center column. A top cover 1 is inserted into the cavity 207. A covering screw 13 made of a metal material is provided in the cavity 207. The covering screw 13 is threadedly connected in the cap center hole. A diameter of the cap center hole is about 0 - 1 mm smaller than a thread diameter of the covering screw 13, and the covering screw 13 can be directly screwed in to fix the covering screw 13.

[0034] See Figure 9 and Figure 11 , both sides of a middle part of the sleeve 4 are provided with windows 403. The bottle body 3 is made of a transparent material, and people can see an interior of the bottle body 3, which is convenient for people to observe the interior of the bottle body 3. When the bottle cap 2 is opened, the bottle body 3 must be in a vertical posture. When the bottle cap 2 is rotated, the inner gate block 5 rotates along with the bottle cap 2 through transmission of the inner bracket 12 and the sleeve 4. An indicating arrow is laser-etched on an outside of the bottle body 3, and it is necessary to rotate until a pointer 510 is aligned with the indicating arrow on the outside of the bottle body 3 (see Figure 34 ). At this time, a liquid outlet hole 612 of the bottom plug 6 is in an open state. Keep this position for two to three seconds. At this time, a liquid in the bottle body 3 above the bottom plug 6 flows into a liquid storage bin 305 under the action of gravity.

[0035] The above are only the preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent replacements, improvements, etc. made within the spirit and principle of the present invention shall be included within the protection scope of the present invention.

Claims

1. A dental implant packaging bottle, comprising a bottle body (3), a bottle cap (2) and an inner support (12), wherein the inner support (12) is arranged in the bottle body (3), the bottle cap (2) is arranged on the top of the bottle body (3), and the inner support (12) is connected to the bottle cap (2), characterized in that: The bottle body (3) is provided with a sleeve (4), a gate block (5) and a bottom plug (6) in order from top to bottom; the inner bracket (12) is connected to the sleeve (4); the gate block (5) is provided with a gate hole (505); the bottom of the sleeve (4) is snap-fitted into the gate block (5); the bottom of the gate block (5) is snap-fitted into the bottom plug (6); the bottom plug (6) is provided with a liquid outlet hole (612); the gate block (5) is used to open or close the liquid outlet hole (612); a liquid storage bin (305) is provided between the inner bottom surface of the bottle body (3) and the bottom plug (6); the liquid storage bin (305) is communicated with the liquid outlet hole (612).

2. The dental implant packaging bottle according to claim 1, characterized in that: The sleeve (4) is provided with a large barrel section (402) and a small barrel section (404); the length of the large barrel section (402) is greater than that of the small barrel section (404); separation grooves (406) are symmetrically provided on both sides of the small barrel section (404); two separation grooves (406) are provided on each side of the sleeve (4); the separation grooves (406) penetrate the small barrel section (404) and extend to the large barrel section (402); a flap (407) is formed between two adjacent separation grooves (406); and triangular teeth (408) are provided on the flaps (407); the gate block (5) is cylindrical; an annular groove is provided on the upper part of the gate block (5); a gear ring (504) is provided on the inner side surface of the annular groove; the tooth grooves of the gear ring (504) are triangular tooth grooves; and the triangular teeth (408) mesh with the gear ring (504).

3. The dental implant packaging bottle according to claim 2, characterized in that: The bottom plug (6) is provided with a circular depression (603), the inner bottom surface (604) of the circular depression (603) is provided with a fan-shaped concave (607), the bottom of the gate block (5) is provided with a latch (512), the latch (512) and the gate hole (505) are arranged at 180 degrees in the horizontal direction, and the latch (512) is arranged in the fan-shaped concave (607).

4. The dental implant packaging bottle according to claim 3, characterized in that: The bottle body (3) is in the shape of a tube with one end closed, and comprises a tube body (303) and a tube seat (306) fixedly connected to the bottom of the tube body (303); the liquid storage bin (305) is arranged in the tube seat (306); a bottle bottom center column (304) is arranged on the inner bottom surface of the tube seat (306); the bottom plug (6) and the gate block (5) are sleeved on the bottle bottom center column (304).

5. The dental implant packaging bottle according to claim 4, characterized in that: The bottle bottom center column (304) comprises a bottom column (308) and a top column (309), the end of the bottom column (308) is mounted on the inner bottom surface of the tube seat (306), the top column (309) is arranged at the upper end of the bottom column (308), the diameter of the bottom column (308) is larger than the diameter of the top column (309), a square column (311) is arranged on the top column (309), the four corners of the square column (311) are adapted to the curvature of the cylindrical surface of the top column (309), an annular convex ridge (310) is arranged on the outer top of the top column (309), and the A square hole (611) is provided at the center of the bottom plug (6), the square hole (611) being adapted to the size of the square column (311), a plug bottom center column (613) is provided at the bottom of the square hole (611), a stepped hole (614) is provided in the plug bottom center column (613), the stepped hole (614) is communicated with the square hole (611), a second annular convex ridge (616) is provided in the stepped hole (614), the second annular convex ridge (616) and the first annular convex ridge (310) are in contact with each other, and a through hole (508) is provided at the center of the gate block (5).

6. The dental implant packaging bottle according to any one of claims 3, 4 or 5, characterized in that: A pointer (510) is provided on the upper portion of the outer side surface (501) of the gate block (5), and the pointer (510) is arranged corresponding to the latch (512); an annular snap-fitting flange 1 (509) is provided on the lower portion of the outer side surface (501) of the gate block (5), and an annular snap-fitting flange 2 (605) is provided on the top of the inner side surface of the circular recess (603) of the bottom plug (6), and the snap-fitting flange 1 (509) is in abutment with the snap-fitting flange 2 (605).

7. The dental implant packaging bottle according to claim 5, characterized in that: The bottom of the bottom plug (6) is provided with an annular sealing groove, a sealing ring 1 (7) is sleeved in the sealing groove, and the top column (309) is sleeved with a sealing ring 2 (8), and the sealing ring 2 (8) is arranged between the annular convex ridge 1 (310) and the annular convex ridge 2 (616).

8. The dental implant packaging bottle according to claim 1, characterized in that: The inner support (12) comprises a semi-cylindrical trough body (1205), a crossbeam (1201) is provided on the top of the semi-cylindrical trough body (1205), a support cylinder (1202) is provided in the middle of the crossbeam (1201), a support circular hole (1203) is provided in the center of the support cylinder (1202), the diameter of the support cylinder (1202) is greater than the width of the crossbeam (1201), a middle partition plate (1207) is provided at the bottom of the semi-cylindrical trough body (1205), and an end plate (1208) is provided on the middle partition plate (1207) and the end plate (1208). A mounting slot (1209) is provided, and a long hole (1211) is provided on the end plate (1208). The long holes (1211) are provided on both sides of the mounting slot (1209). The bottom of the mounting slot (1209) is semicircular. A driving arm (1204) is symmetrically provided on the upper outer side of the semi-cylindrical slot body (1205). The driving arm (1204) is integrally arranged with the cross beam (1201). The outer side of the driving arm (1204) is adapted to the end face shape of the cross beam (1201). A deep groove (410) is provided on the upper part of the large barrel section (402) of the sleeve (4) corresponding to the driving arm (1204).

9. The dental implant packaging bottle according to claim 8, characterized in that: The inner top surface of the bottle cap (2) is provided with a bracket slot (206), the shape of the bracket slot (206) being compatible with the shape of the upper end surface of the inner bracket (12); the bottle cap (2) is provided with a cavity (207), the top cover (1) being inserted into the cavity (207); the inner side wall of the bottle cap (2) is provided with an internal thread (202), and the upper portion of the outer side of the bottle body (3) is provided with an external thread (302).

10. The dental implant packaging bottle according to claim 6, characterized in that: Windows (403) are provided on both sides of the middle of the sleeve (4), and the bottle body (3) is made of a transparent material.

Images