KR102209803B1 - package for dental implant - Google Patents

Abstract

The present invention is provided in a cylindrical shape and both sides are opened so that the fixture for dental implant is accommodated so that the fixture with the modified surface is easily withdrawn without contamination, and a storage space is formed therein, but for surface modification A projection body made of a material through which ultraviolet rays are transmitted; A first plug body disposed on one side of the projection body and having a grip groove portion formed along one or the other circumferential direction of the marking portion provided on the cylindrical outer circumferential surface, and a first plug body protruding to the other side of the first plug body, but having a coupling surface formed on the outside. A first stopper including a first fixing part and a protrusion protruding from the first fixing part to be inserted into an inner circumferential fastening groove formed at one end of the fixture; The outer periphery corresponds to the inner periphery of one side of the projection body and the inner periphery is coupled to the coupling surface to mediate the connection of the projection body to the first stopper, and the end protrudes with a plurality of ultraviolet transmission intervals along the circumferential direction. A hollow holder portion; And a second fixing part having a cylindrical shape disposed on the other side of the projection body, and protruding toward one side of the second stopper body and having a fitting surface connected to the inner circumference of the other side of the projection body, It provides a packaging container for a dental implant including a second stopper provided with a support portion at the inner end of the second fixing portion so that the other end of the fixture is seated.

Description

Packaging container for dental implant {package for dental implant}

The present invention relates to a packaging container for a dental implant, and more particularly, to a packaging container for a dental implant in which a fixture with a modified surface is easily withdrawn without contamination, thereby improving usability.

In general, an implant refers to a substitute that can replace the original human tissue when it is lost, but in dentistry, it refers to implanting an artificial tooth. That is, a fixture that replaces the root of a lost tooth, a crown that replaces a crown, and an abutment that mediates between the fixture and the crown, etc. are included in the implant (hereinafter, referred to as a tooth implant). In such a dental implant, first, a fixture is placed in an alveolar bone where a tooth has been lost, and then the abutment and the crown are sequentially fixed to restore the function of the tooth.

Here, the dental implant such as the fixture is sterilized/antibacterialized and then sealed packaged and stored in order to prevent infection of the internal tissues of the oral cavity such as alveolar bone due to contamination by foreign substances or bacteria when placed in the oral cavity. In addition, the fixture is treated to have a hydrophilic surface through processes such as RBM, SLA, etc. so as to improve bone fusion with alveolar bone.

However, the surface of the fixture is exposed to the air after the above-described process, so that the oxide layer increases over time, and the surface energy is stabilized by a pollutant source such as a hydrocarbon compound, so that it becomes hydrophobic. As a result, there is a problem in that the hydrophilicity to body fluids and blood decreases, so that the bone fusion period is increased, and the recovery period until the dental implant is stabilized is increased.

In order to solve this problem, some dental implant products including a storage container in which the surface hydrophilicity of the first surface-modified fixture can be maintained for a long time have been disclosed. However, the dental implant product including such a storage container is expensive, and thus there is a problem of increasing the financial burden on the consumer. In addition, there is a problem that the choice of a consumer is very narrow even though it is expensive because a product of a specific company must be used.

Accordingly, recently, some methods of removing organic contaminants adhering to the surface have been disclosed while modifying the surface of the fixture by irradiating ultraviolet rays after mounting the fixture inside. The method of irradiating such ultraviolet rays is as disclosed in Korean Patent Publication (Publication No. 10-2014-0125764)'Method for improving soft tissue bonding and sealing of prosthetic devices'. It can be seen that the soft tissue bonding and sealing of the prosthetic device treated with is improved by about 10% or more.

At this time, in the conventional ultraviolet surface treatment, the container in which the fixture is accommodated must be put into an ultraviolet irradiation device for surface treatment and sterilized before proceeding with surface modification. However, since the conventional container is formed of a general glass or synthetic resin material for projection, the projection portion is colored due to high temperature during the sterilization process. For this reason, there is a problem that ultraviolet rays for surface modification treatment cannot be smoothly irradiated to the fixture through the projection unit.

Meanwhile, in the process of the surface modification treatment, when ultraviolet rays are irradiated to the container in which the fixture is packaged, oxygen remaining in the container is converted into ozone. Further, as the carbon atoms deposited on the surface of the fixture are bonded to and separated from the ozone, the surface of the fixture is converted from hydrophobic to hydrophilic.

However, since the inside of the conventional container is substantially sealed and packaged, the remaining amount of oxygen as needed in the process of surface modification by irradiating the fixture with ultraviolet rays is insufficient, and thus it is not sufficiently converted to ozone. Due to this, there is a problem in that the surface modification ability is deteriorated and bone fusion cannot be stably performed.

Moreover, in a conventional container, when irradiating ultraviolet rays, an end of the fixture is shielded by a portion supporting the fixture. For this reason, there is a problem that the end of the fixture cannot be subjected to surface modification and sterilization.

In addition, when the surface-modified fixture is withdrawn from a conventional container, the fixture is not supported and falls to the inner surface of the container, thereby contaminating the fixture. For this reason, since the fixture needs to be surface-treated and sterilized again, there is a problem in that the overall dental implant placement process is delayed.

Korean Patent Registration No. 10-1439344 Korean Patent Application Publication No. 10-2014-0125764

In order to solve the above problems, the present invention aims to provide a packaging container for a dental implant in which a fixture whose surface has been modified by irradiation with ultraviolet rays is easily withdrawn without contamination, thereby improving usability.

In order to solve the above problems, the present invention is provided in a cylindrical shape and both sides are opened so as to accommodate a dental implant fixture to form a storage space therein, the projection body portion of a material that transmits ultraviolet rays for surface modification; A first plug body disposed on one side of the projection body and having a grip groove portion formed along one or the other circumferential direction of the marking portion provided on the cylindrical outer circumferential surface, and a first plug body protruding to the other side of the first plug body, but having a coupling surface formed on the outside. A first stopper including a first fixing part and a protrusion protruding from the first fixing part to be inserted into an inner circumferential fastening groove formed at one end of the fixture; The outer periphery corresponds to the inner periphery of one side of the projection body and the inner periphery is coupled to the coupling surface to mediate the connection of the projection body to the first stopper, and the end protrudes with a plurality of ultraviolet transmission intervals along the circumferential direction. A hollow holder portion; And a second fixing part having a cylindrical shape disposed on the other side of the projection body, and protruding toward one side of the second stopper body and having a fitting surface connected to the inner circumference of the other side of the projection body, It provides a packaging container for a dental implant including a second stopper provided with a support portion at the inner end of the second fixing portion so that the other end of the fixture is seated.

Here, the holder part protrudes downward from the inner end of the hollow body that is caught on the upper end of the projection body to be inserted into the inner circumference of the projection body, and a holder extension part having a recessed groove formed radially inward along the circumferential direction, and the inner circumference Is inserted into one side of the recessed groove and includes a fitting ring portion extending roundly in correspondence with a preset arc length, wherein the arc length of the fitting ring portion is 50 to 95% of the entire circumference of the inner peripheral portion of the recessed groove It is preferably formed of.

At this time, an extension protruding radially outward from the upper or lower outer periphery of the fitting ring portion is formed so that when the holder portion is coupled to the inner periphery of the projection body, the friction fixing force in the drawing direction increases. A plurality of bushing support portions protruding downward at an ultraviolet transmission interval, and a support protrusion protruding radially inward from an end of the bushing support portion to support one end of the fixture are formed, the ultraviolet transmission interval is formed at one end of the fixture. It is preferably formed to be less than the minor diameter.

In addition, a cutting surface is formed on at least one side portion of the first fixing portion and the second fixing portion, and at least one of the first and second fixing portions penetrates from an end of the cutting surface. It is preferable that a through passage through which ozonated oxygen is supplied to modify the surface of the fixture is formed toward the storage space.

On the other hand, the upper edge of the support part is radially protruded with a plurality of ultraviolet light transmission intervals along the circumferential direction, and a guide part formed at an inner end with a corner portion in which the other end of the fixture is in point contact is provided, and the inner bottom surface has the A seating groove is formed in which the other end of the fixture wrapped by the guide portion is seated, and a locking protrusion protrudes radially outward so that the other end of the fixture is seated on the coupling surface, and the locking protrusion protrudes radially outward so as to be forcibly fitted into the inner circumference of the holder portion, and It is preferable that the fitting protrusions protrude in multiple stages in the radial direction so as to be forcibly fitted to the inner periphery of the other side of the projection body.

Through the above solution means, the present invention provides the following effects.

First, oxygen to be ozonated is sufficiently supplied to modify the surface of the fixture through the through passages formed in each stopper, and a plurality of the holder portions and the support portions respectively supporting both ends of the fixture along the circumferential direction. Since the area to be shielded is minimized due to the formation of the UV transmission gap at the location, the surface modification performance for the entire surface of the fixture can be remarkably improved.

Second, one side of the fitting ring part is provided in an open arc shape so that it can be applied interchangeably regardless of the outer diameter of the holder extension part, and even if the outer diameter of the holder extension part is not precisely matched with the inner circumference of the projection body part, through the fitting ring part Since it is firmly fitted by correcting the gap, the storage stability of the product can be remarkably improved.

Third, since the locking protrusions and the fitting protrusions are integrally protruded into each stopper, the components constituting the product are simplified because they are fitted and fixed to the counterpart component without a separate elastic member such as an O-ring, and thus, it is possible to manufacture and assemble each component. Since the cost and time required are remarkably reduced, economical and productivity can be remarkably improved.

Fourth, since the grip groove is eccentrically formed on one side of the outer circumference of the first stopper to prevent slipping during installation, while securing an area to which the marking part displaying information of the fixture stored on the other side is secured, the entire area of the projection body is UV rays. Since it can be formed as a transmissive region, ultraviolet transmittance can be remarkably improved.

Fifth, since the grip groove is recessed radially inward from the outer circumference of the first stopper body, each stopper and the outer circumference of the projection body are maintained in a substantially continuous cylindrical profile. Therefore, even if a plurality of ultraviolet lamps arranged in the transverse direction and rotated are mounted on the adjacently disposed upper side and rotated interlockingly, the vibration of the container itself is minimized, so that the fixture accommodated therein can be stably maintained in a fixed state.

Figure 1 is a perspective view of the inside of a dental implant packaging container according to an embodiment of the present invention is projected.
Figure 2 is an exploded perspective view of the packaging container for a dental implant according to an embodiment of the present invention.
Figure 3 is a top view of the packaging container for a dental implant according to an embodiment of the present invention.
Figure 4 is a cross-sectional view in the AB direction of Figure 3;
5 is an enlarged view of part E of FIG. 4.
6 is a cross-sectional view in the CD direction of FIG. 3.
7 is a cross-sectional view in the direction JK of FIG. 6.
Figure 8 is a bottom view of the packaging container for a tooth implant according to an embodiment of the present invention.
Figure 9 is a top view showing a support portion of the packaging container for a dental implant according to an embodiment of the present invention.

Hereinafter, a packaging container for a dental implant according to a preferred embodiment of the present invention will be described in detail with reference to the accompanying drawings.

1 is a perspective view of the inside of a dental implant packaging container according to an embodiment of the present invention is projected, Figure 2 is an exploded perspective view of the dental implant packaging container according to an embodiment of the present invention. And, Figure 3 is a top view of the packaging container for a tooth implant according to an embodiment of the present invention, Figure 4 is a cross-sectional view in the direction AB of Figure 3, Figure 5 is an enlarged view of the E portion of Figure 4, Figure 6 is 3 is a cross-sectional view in the CD direction, and FIG. 7 is a cross-sectional view in the direction JK of FIG. 6. And, Figure 8 is a bottom view of the packaging container for a tooth implant according to an embodiment of the present invention, Figure 9 is a top view showing a support portion of the packaging container for a tooth implant according to an embodiment of the present invention.

Here, the packaging container 600 for a tooth implant according to the present invention is disposed inside an ultraviolet irradiation device for surface treatment of a tooth implant (hereinafter, an ultraviolet irradiation device) in a state in which a tooth implant with primary surface modification is received therein. In addition, when ultraviolet rays are irradiated through an ultraviolet light source provided in the interior of the ultraviolet irradiation device, surface modification and sterilization are performed while passing through one side of the packaging container 600 for the dental implant and irradiating the surface of the dental implant. Through this, since the surface is maintained hydrophilic until the dental implant is placed and contamination is prevented, bone fusion can be stably performed after the dental implant is placed in the alveolar bone.

At this time, the dental implant in the present invention is preferably understood as a fixture (f) to be placed in the alveolar bone. In detail, the outer surface of the fixture (f) is formed with a threaded portion (s) to be inserted into the alveolar bone, and a recessed inner circumferential fastening groove (f) is formed at one end to couple the abutment mediating the crown.

Here, the fixture f may be formed of a metal material such as bio-friendly titanium while having high strength and excellent corrosion resistance. In addition, the fixture (f) has a first surface modification and sterilization treatment so that the outer surface and the screw portion (s) are hydrophilic to bodily fluids or blood, and prevent infection due to a contaminant during insertion, the storage space 514 Is accommodated in

1 to 9, the packaging container 600 for a dental implant according to an embodiment of the present invention includes a projection body part 510, a first stopper part 520, a holder part 550, and a second Includes a stopper (530).

Here, the projection body part 510 is opened on both sides so that the fixture f is accommodated to form a storage space 514 therein, and irradiated for surface modification and sterilization treatment of the fixture f It is preferable to be provided with a material through which ultraviolet rays are transmitted. In this case, the projection body 510 is preferably provided in a hollow cylindrical shape having a predetermined cross-sectional thickness in the radial direction.

Accordingly, when the ultraviolet light source part is provided to surround the circumferential direction of the packaging container 600 for the dental implant, the surface of the fixture f accommodated in the storage space 514 by ultraviolet rays irradiated from the ultraviolet light source part Can reach evenly. Alternatively, when the ultraviolet light source is provided with a plurality of cylindrical ultraviolet lamps arranged in a transverse direction inside the ultraviolet irradiation device and rotated to one side, the ultraviolet lamps are stably seated on the adjacent upper side. It can be rotated interlocking.

Of course, in some cases, the projection body 510 may be provided in a polygonal or elliptical shape such as a square, hexagon, etc., and one side of the circumference from the circular cross-section may be provided to have a cross-section of a droplet shape protruding radially outward May be.

In this case, it is preferable that the projection body part 510 is formed with an inner diameter that exceeds the maximum outer diameter of the fixture f so that the fixture f is inserted or extracted into the storage space 514. In addition, it is preferable that the length between the two sides of the projection body part 510 exceeds the length of the fixture f.

In addition, since the projection body 510 is made of a silica (quartz) material having a lower extinction coefficient than a container made of a glass or transparent synthetic resin material that is generally used, a high UV transmittance of 95% or more may be maintained. Through this, since the surface modification and sterilization and cleaning performance of the fixture f accommodated in the storage space 514 are improved, the risk of infection and the like can be significantly reduced while osteofusion with the alveolar bone is improved.

Meanwhile, the first plug portion 520 is disposed on one side of the projection body portion 510, and the first plug portion 520 includes a first plug body 520a, a first fixing portion 521, And it is preferable to be provided including the protrusion 522. The first stopper 520 is made of a synthetic resin material such as transparent or semi-transparent polycarbonate so that UV rays for surface modification of the fixture f can be transmitted while easy molding through injection processing. This is desirable. In this case, the second stopper 530 to be described later may also be formed of the same material.

In detail, the first plug body 520a is provided in a cylindrical shape having an outer circumferential diameter corresponding to the outer circumference 512 of the projection body 510, and a marking portion 526 is preferably provided on the outer circumferential surface. Here, the marking part 526 displays information such as the standard and manufacturing date of the fixture f accommodated in the storage space 514 in letters or symbols. The marking part 526 is manufactured as a sticker and then selected and attached according to the standard of each fixture (f). Since the outer peripheral surface of the first stopper body 520a is provided by maintaining a substantially circular profile, the marking The part 526 can be easily attached.

At this time, the marking portion 526 may be provided with a size corresponding to the overall outer circumferential surface of the first stopper body 520a, but is preferably eccentrically attached to one side or the other side of the first stopper body 520a. desirable. In addition, it is preferable that a grip groove portion 527 is formed along the circumferential direction of the first plug body 520a exposed to one side or the other side of the marking portion 526. For example, the grip groove 527 is formed in a ring shape recessed radially inward along the circumferential direction on one side of the outer circumferential surface of the first stopper body 520a, and the marking part 526 is the first stopper body ( The other side of 520a), that is, the first fixing part 521 is attached eccentrically to the outer peripheral surface of the protruding end side.

Here, since the grip groove portion 527 is formed along the circumferential direction of the first plug body 520a, it is formed perpendicular to the withdrawal direction to which a traction force for separating the first plug portion 520 is applied. Accordingly, when the first stopper 520 is gripped and pulled to withdraw the fixture f, the operator's hand or mounting tool may prevent slipping. In addition, since the grip groove 527 is eccentrically formed on one side or the other side of the first stopper body 520a rather than the entire outer circumferential surface of the first stopper body 520a, a sufficient area for attaching the mark portion 526 may be secured. Through this, it is possible to prevent ultraviolet rays from being shielded by attaching the marking part 526 to the projection body part 510, and since ultraviolet rays are uniformly irradiated on the outer surface of the fixture f, the surface is modified and Sterilization and cleaning performance can be remarkably improved.

Moreover, the grip groove portion 527 is formed in a shape recessed radially inward from the outer periphery of the first plug body 520a. Accordingly, even when the grip groove portion 527 is formed, a substantially continuous cylindrical profile is maintained on the outer peripheries of the first plug portion 520, the projection body portion 510 and the second plug portion 530. Through this, the outer periphery of the ultraviolet lamp and the entire outer periphery of the packaging container 600 for the dental implant are substantially contact-rotated even when surface treatment is performed while being mounted on the upper side of the ultraviolet lamps arranged in the transverse direction and rotated interlockingly. Therefore, the vibration of the tooth implant packaging container 600 is minimized and rotates stably, and through this, ultraviolet rays can be uniformly irradiated onto the outer surface of the fixture f.

Meanwhile, the first fixing part 521 is integrally protruded from the other end of the first stopper body 520a to the other side, and is inserted into the inside of one side of the projection body 510. In this case, the first fixing part 521 is formed to be smaller than the inner circumferential cross-sectional area of the projection body part 510, and is formed along the stepped edge of the first stopper body 520a and the first fixing part 521. One support step 521c is formed.

Here, it is preferable that the first fixing portion 521 has a coupling surface 521a that is coupled to the inner peripheral portion of the holder portion 550 to be described later. In detail, the coupling surface 521a is formed to be rounded so as to correspond to the inner circumferential portion of the holder part 550 on opposite sides of the first fixing part 521, and each both ends of the coupling surface 521a are vertically It is preferable that the cutting surface 521d connected to each other is formed. Accordingly, when the first stopper 520 is coupled to one side of the projection body 510, the coupling surface 521a is coupled to the inner circumferential portion of the holder part 550 while the cutting surface 521d And between the inner periphery 513 of the projection body part 510, a semicircle or'D'-shaped spaced space may be formed.

Therefore, the first fixing part 521 maintains a state in which the first stopper part 520 is connected to one side of the projection body part 510 while maintaining a minimum contact area with the inner circumferential part of the holder part 550. It can be formed to have. Through this, when the first stopper 520 is separated from one side of the projection body 510, it can be easily separated without applying a large force. Of course, in some cases, the first fixing part 521 may be radially branched in a cross-sectional shape such as a cross shape, but the coupling surfaces 521a may be formed on each outer surface, and such a modified example falls within the scope of the present invention.

In this case, a locking protrusion 521b extending radially outwardly so as to be fitted to the inner peripheral portion of the holder part 550 may be formed on each outer side of the coupling surface 521a. That is, the engaging surface 521a formed on the first fixing portion 521 may be directly fitted to the inner circumferential portion of the holder part 550, but the locking protrusion protruding outside the engaging surface 521a It is preferable that the end of (521b) is fitted to the inner peripheral portion of the holder portion (550). As a result, an area in which the first fixing part 521 and the inner peripheral part of the holder part 550 directly contact may be remarkably reduced, and a structure having a predetermined fixing force may be formed.

To this end, a gap between the pair of coupling surfaces 521a formed substantially symmetrically is formed to be less than the diameter of the inner circumferential portion of the holder part 550, and the pair of the pair of the coupling surfaces protruding outward of each of the coupling surfaces 521a The distance between the ends of the locking protrusions 521b is preferably formed to correspond to or larger than the diameter of the inner circumferential portion of the holder part 550. In addition, the locking protrusion 521b is preferably provided to be convexly rounded outward. Through this, while the outer surface of the locking protrusion 521b slides smoothly along the inner circumferential portion of the holder part 550 and is fitted, the contacted area is minimized. Therefore, when a predetermined traction force is applied, the first stopper 520 Can be easily separated.

In addition, the first fixing part 521 may have a non-engaging surface that is inclined so that the area becomes narrower toward the end. Accordingly, when the first stopper 520 is coupled to one side of the projection body 510, the end of the first fixing portion 521 is a border of one side of the projection body 510 or the holder ( 550) can be prevented from being touched and interfered with. Through this, when the first stopper 520 is coupled or separated, the projection body part 510 in which the fixture f is accommodated may be prevented from swinging and thereby the fixture f from being separated from the storage position. I can. Here, the storage position of the fixture (f) means the outer periphery of the fixture (f) as the one end and the other end of the fixture (f) in the storage space 514 are aligned to a preset position. It is preferable to understand it as a position that can maintain a state spaced apart from the inner circumference 513 of the projection body 510.

In this case, it is preferable that the protrusion 522 protrudes from the first fixing part 521. Here, the protrusion 522 is protruded to a length that is inserted and caught in the inner peripheral fastening groove f of the fixture f, but is preferably formed in a shape in which the cross-sectional area decreases toward the other end. Moreover, the protrusion 522 is preferably formed to correspond to or smaller than the inner diameter of the inner peripheral fastening groove (f). Accordingly, in a state in which the fixture f is accommodated in the storage space 514, the storage position of the fixture f may be stably fixed even to external shocks or vibrations.

In addition, the first plug body 520a has a first hollow 520b formed therein, and a first fitting portion 520c opened toward the first hollow 520b at the center side of the first fixing portion 521 ) Can be formed. That is, the first stopper 520 may be separated from the projection body 510 by applying a traction force in a state in which a separate withdrawal device is mated and fastened to the first fitting part 520c.

Meanwhile, the holder part 550 is provided to mediate the connection between the projection body part 510 and the first plug part 520, and the outer circumferential part corresponds to the inner circumference 513 of one side of the projection body 510 And the inner peripheral portion is formed in a hollow shape that is coupled to the coupling surface 521a. In this case, it is preferable that the end of the holder part 550 protrudes with a plurality of ultraviolet transmission intervals w1 along the circumferential direction.

It is preferable that the holder part 550 is made of the same metal material as the fixture f. Through this, when ultraviolet rays are irradiated to the packaging container 600 for the dental implant, the surface of the holder part 550 may also be sterilized together with the fixture f. Therefore, even if the fixture f comes into contact with the holder part 550, contamination can be minimized.

In detail, the holder part 550 includes a hollow body 551d whose outer circumferential diameter corresponds to the outer circumferential diameters of the projection body 510 and the first stopper 520 but penetrates the central part. And, it is preferable that the holder extension 551 protrudes from the inner periphery of the hollow body (551d). In this case, it is preferable that the outer peripheral diameter of the holder extension 551 corresponds to or smaller than the diameter of the inner peripheral 513 of the projection body 510. Through this, the hollow body (551d) is between the first frame (511a) that is one end of the projection body (510) and the first support step (521c) formed on the first stopper (520). While being locked, the holder extension 551 is inserted into the inner circumference 513 of one side of the projection body 510.

In this case, the holder extension 551 is preferably extended to a length capable of covering the outer upper end of the fixture f accommodated in the storage space 514. And, so that ultraviolet rays are irradiated to the upper end of the fixture (f), the lower end of the holder extension 551 is divided into a plurality of bushings by a slot (u) opened corresponding to the ultraviolet transmission interval (w1). It is preferable that the support part 552a is formed.

Here, the length at which the bushing support part 552a is extended is a preset minimum so that the area in which the ultraviolet rays reach the surface of the fixture f is maximized while the fixture f is supported by the bushing support part 552a. It is preferably formed with a supporting length. Moreover, the bushing support part 552a may be formed to have a length corresponding to the outside of the protrusion 522 inserted at the upper end of the fixture f.

Accordingly, even if the first stopper 520 is separated and the fixing force supporting the upper end of the fixture f is lost, the receiving position may be maintained by the bushing support 552a. Through this, when the first stopper 520 is separated, the fixture f collapses and prevents contamination due to direct contact with the inner circumference 513 of the projection body 510, so that hygiene can be significantly improved. have.

Moreover, it is preferable that a support protrusion 552b extending radially inward from an end of the bushing support portion 552a is formed. At this time, it is preferable that the inner diameter profile interconnecting each inner end of the support protrusion 552b is formed to exceed the outer diameter of the upper end side of the fixture (f).

In addition, the support protrusion 552b may be provided such that the end of the support protrusion 552b becomes narrower toward the inner side in the radial direction corresponding to the ultraviolet transmission interval w1. Accordingly, the area in which one end of the fixture f is shielded can be minimized, and when the first stopper 520 is separated, one end of the fixture f directly contacts the holder part 550 The resulting area can also be minimized. In addition, as the holder part 550 is made of a metal material, the ultraviolet rays irradiated from the ultraviolet light source may be reflected and the ultraviolet rays may reach the entire outer surface of the one end side of the fixture f.

In addition, it is preferable that the ultraviolet transmission gap w1 set between the bushing support portions 552a is formed to be less than the outer peripheral diameter of one end side of the fixture f. Through this, even if the fixing force that used to restrain one end of the fixture f is lost while the first stopper 520 is separated, the slot portion between the plurality of bushing support portions 552a is collapsed. Through (u), it is possible to prevent it from deviating to the outside.

On the other hand, it is preferable that a recessed groove 551e is formed radially inward on the outer surface of the holder extension 551. In addition, it is preferable that the inner circumference is provided with a fitting ring portion 550a inserted into the recessed groove 551e. At this time, it is preferable that the fitting ring portion 550a extends round to correspond to a preset arc length and is molded into one side of the recessed groove 551e. That is, the holder part 550 is provided including a support means for a metal material in which the hollow body 551d and the holder extension part 551 are integrally formed, and the fitting ring part 550a provided on the outside thereof.

Here, the fitting ring portion 550a may have a volume corresponding to or exceeding the width and depth of the recessed groove 551e. And, in a state in which the fitting ring part 550a is molded and inserted into the recessed groove 551e, the outermost diameter of the fitting ring part 550a corresponds to or exceeds the diameter of the inner circumference 513 of the projection body part 510 It is preferably formed to be. At this time, the fitting ring part 550a is preferably provided with a synthetic resin material such as rubber, silicon, or low-density polyethylene (LDPE) that can be elastically deformed by an external force, and in some cases, the holder part 550 ), it may be formed of a metal material such as titanium.

Accordingly, in the holder part 550, the projection body part (the projection body part) by the compressive force applied while the fitting ring part 550a is elastically deformed in correspondence with the inner circumference 513 of the projection body part 510 and then is pressed and restored. The state of being fitted to one side of 510) may be firmly maintained. This compression force is formed to be greater than the coupling force between the coupling surface 521a and the inner circumferential portion of the holder portion 550, so that when the first stopper portion 520 is separated, the holder portion 550 can be prevented from being separated together. I can.

Moreover, when coupled to the inner circumference 513 of the projection body part 510, the friction fixing force in the drawing direction increases, so that the fitting ring part 550a extends obliquely outward in the radial direction from the upper side of the outer circumference in the circumferential direction or the lower side of the outer circumference in the circumferential direction. It is preferable that the extension part 551a is formed. Here, the withdrawal direction is a direction in which the first plug portion 520 is separated, and it is preferable to understand that it corresponds to the extended longitudinal direction of the projection sea portion 510. In addition, the outer peripheral upper side of the fitting ring part 550a is a direction corresponding to one side of the projection body part 510, and the outer peripheral lower side of the fitting ring part 550a refers to the other side of the projection body part 510 and It is desirable to understand in the corresponding direction.

This expansion part 551a is inclined to extend radially outward from the upper end of the outer circumference of the fitting ring part 550a toward the center in the longitudinal direction, and the outer circumferential direction increases toward the center in the longitudinal direction from the lower end of the outer circumference of the fitting ring part 550a. It can be formed to be inclined to expand. That is, the fitting ring portion 550a may have a cross-sectional shape of a'>' shape. Alternatively, the extension part 551a may be formed to be inclined to extend stepwise outward in the radial direction from the lower end or upper end of the outer circumference of the fitting ring part 550a toward the center in the longitudinal direction.

Here, the inclined outer surface of the extension part 551a may be formed as slide coupling parts 551b and 551f, respectively. Through this, when the holder part 550 is fitted to one side of the projection body part 510 while the fitting ring part 550a is engaged with the recessed groove 551e, the slide coupling part 551b on the lower side ) Can be easily inserted. At this time, the slide coupling portion 551b on the lower side may be compressed to correspond to the inner circumference of the projection body portion 510 as it gradually expands outward in the radial direction toward the upper side. In addition, when the fitting of the holder part 550 is completed, the fitting ring part 550a is firmly adhered to the inner circumference 513 of the projection body part 510 by a compressive force applied while restoring. Through this, it is possible to prevent the holder part 550 from being separated from the projection body part 510 unless an external force of a certain amount or more is applied in the withdrawal direction.

Accordingly, in the present invention, as the holder part 550 is provided, the fixture f leaves the storage position in a state in which the first stopper 520 is separated, and the projection body 510 is Since direct contact with the inner circumference 513 is prevented, the hygiene of the dental implant product can be remarkably improved. At this time, the holder part 550 intervenes between the first stopper part 520 and the projection body part 510, but the projection body part 510 is less than the contact area and contact pressure with the first stopper part 520 ) And the contact area and contact pressure are large. Through this, it is possible to prevent the holder part 550 from being separated together with the first stopper 520 when the first stopper part 520 is separated in order to take out the fixture f.

Moreover, since the friction fixing force in the drawing direction between the holder part 550 and the projection body part 510 is increased through the fitting ring part 550a, the holder part 550 is removed even when the first plug part 520 is separated. ) And the projection body 510 may be firmly maintained.

At this time, it is preferable that the length of the circular arc extending from the fitting ring portion 550a is formed in a length ratio of 50 to 95% with respect to the entire circumference of the inner circumference of the recessed groove 551e. That is, the fitting ring portion 550a may be formed in a'C' shape with one side cut open while forming a circular profile as a whole. That is, while the fitting ring portion 550a is formed to be rounded to have a predetermined arc length, it is molded and inserted to surround the inner peripheral portion of the recessed groove 551e.

Through this, even if the fitting ring part 550a is not provided in a substantially connected ring shape, it can be stably inserted into the inner circumference 513 of one side of the projection body part 510 while being fixed to the holder extension part 551. have. In addition, since one side of the fitting ring part 550a is provided in an open shape, it can be applied regardless of the outer diameter of the holder extension part 551, so that compatibility and usability can be remarkably improved. Moreover, even if the outer diameter of the holder extension part 551 is not precisely matched with the inner circumference 513 of the projection body part 510, the gap is corrected through the fitting ring part 550a to be firmly fitted. Productivity and storage stability can be further improved.

Meanwhile, the second plug portion 530 is disposed on the other side of the projection body portion 510, and the second plug portion 530 includes a second plug body 530a, a second fixing portion 532, And it is preferable to be provided including the support portion 531.

In detail, the second stopper body 530a is provided in a cylindrical shape corresponding to the outer circumferential diameter of the projection body 510, and the second fixing part 532 in one direction from one end of the second stopper body 530a. ) Is preferred. At this time, the second fixing part 532 is inserted into the inner circumference 513 of the other side of the projection body 510, and is formed to correspond to or smaller than the diameter of the inner circumference 513 of the projection body 510. Through this, a second support stepped jaw that is engaged with the second border 511b that is the other end of the projection body 510 along the stepped edge of the second stopper body 530a and the second fixing part 532 (532c) is formed.

Here, it is preferable that a fitting surface 533a that is coupled to the other inner circumference 513 of the projection body 510 is formed outside the second fixing part 532. In detail, the fitting surface 533a is formed to be rounded to correspond to the inner circumference 513 of the projection body 510 on opposite sides of the second fixing part 532, and a pair of the fitting surfaces 533a A cutting surface 533c vertically connecting both ends of the is formed. Of course, in some cases, the cross-sectional shape of the second fixing part 532 is branched in a radial shape such as a cross shape like the first fixing part 521, but the fitting surface 533a may be formed on each outer surface. Variations are within the scope of the present invention.

Accordingly, the second fixing part 532 has the fitting surface 533a having a contact area capable of being coupled to the other inner circumference 513 of the projection body 510 of the second stopper 530. While still, a spaced space may be formed outside the cutting surface 533a. Through this, since the through passage to be described later communicates with the spaced space, the amount of oxygen flowing for surface modification in the storage space 514 increases, so that the surface modification ability can be remarkably improved.

Here, it is preferable that the fitting protrusion 533b is provided on the fitting surface 533a so as to protrude obliquely outward in the radial direction as the upper surface portion goes downward. In this case, it is preferable that the fitting protrusions 533b are spaced apart at a predetermined interval along the length direction of the second fixing part 532 and are provided in plural. That is, the plurality of fitting protrusions 533b have an upper surface portion inclined and a lower surface portion substantially formed in a horizontal surface. Accordingly, the second fixing portion 532 having the plurality of fitting protrusions 533b formed on the fitting surface 533a may be coupled to the other inner circumference of the projection body 510 by force fitting. Moreover, even if there is no separate elastic member such as an O-ring, a plurality of the fitting protrusions 533b integrally protruding from the second fixing part 532 are in multiple contact with the inner circumference of the projection body part 510 to be fitted. The second stopper 530 may be stably fixed.

In addition, the second stopper body 530a has a second hollow 530b formed therein. Like the first fixing part 521, the second hollow 530b is disposed at the center of the second fixing part 532. The second fitting portion opened toward the) side may be formed.

As described above, the present invention is provided through the locking protrusions 521b and the fitting protrusions 533b which are integrally protruded to the first and second caps 520 and 530, respectively, without a separate elastic member such as an O-ring. Can be fixed to the counterpart component. Accordingly, the components constituting the packaging container 600 for the dental implant are simplified, and the cost and time required for manufacturing and assembling each component are significantly reduced, so it is economical. In addition, since both ends of the fitting ring part 550a and the projection body part 510 are formed symmetrically without a predetermined direction toward one side or the other side, they can be assembled quickly and easily without the need to distinguish the assembly direction, thereby significantly improving productivity. I can.

In addition, each outer side of the locking protrusion 521b, the fitting protrusion 533b, and the fitting ring part 550a is formed to be inclined or rounded in a direction fastened to the projection body part 510. Through this, they can be easily coupled to each other without exerting great force. At the same time, the outer diameter of each of the locking protrusion 521b, the fitting protrusion 533b, and the fitting ring part 550a is the inner circumference 513 of the holder part 550 or the projection body 510 It corresponds to or is formed in excess of. As a result, in the state in which the coupling is completed, it can be prevented from being arbitrarily separated or withdrawn under a predetermined external force as it is forcibly fitted.

Meanwhile, it is preferable that the support part 531 is provided at the inner end of the second fixing part 532 so that the other end of the fixture f is seated. That is, the fixture (f) is in a state accommodated in the storage space 514, the protrusion 522 is fitted to one end, and the other end is aligned to the storage position while seated on the support 531 Can be. Through this, it is possible to prevent the fixture f from being separated from the storage position even if the packaging container 600 for the tooth implant is moved or disposed in the ultraviolet irradiation device and rotated.

Here, the support portion 531 may be integrally formed with the second plug portion 530, or may be provided as a separate component and fixed to one end of the second plug portion 530. Hereinafter, it will be described and illustrated that the support part 531 is provided as a separate component. In this case, when the support part 531 is provided as a separate component, the support part 531 is preferably made of the same metal material as the fixture f.

That is, according to the present invention, the holder part 550 and the support part 531 to which the fixture f may or may be substantially contacted are formed of the same metal material as the fixture f. When ultraviolet rays are irradiated to 514, the surface may be sterilized together with the fixture f. Through this, even if the fixture (f) is in contact with each component, contamination due to organic contaminants or the like can be prevented. In addition, even if one end or the other end of the fixture f is partially shielded by the holder part 550 and the support part 531, ultraviolet rays are applied to the surface of the holder part 550 and the support part 531 Is reflected in Accordingly, since ultraviolet rays reach each minute end of the fixture f, surface modification and sterilization/cleaning are uniformly performed as a whole, so that osteofusion with the alveolar bone can be remarkably improved.

In detail, the upper edge of the support part 531 is radially protruded with a plurality of ultraviolet transmission intervals w2 along the circumferential direction, and the other end of the fixture f is in point contact with the inner end. It is preferable that the guide portion 531c on which the 531e is formed is provided. In addition, it is preferable that a seating groove 531b in which the other end of the fixture f is seated is formed on an inner bottom surface of the support portion 531 that is wrapped by the guide portion 531c.

In addition, a fitting portion 531a extending to the other side may be formed under the support portion 531. That is, as the fitting portion 531a is forcibly fitted and fixed to the fitting groove 532b formed at one end of the second fixing portion 532, the support portion 531 is attached to the second plug 530. ) Can be firmly bonded. Moreover, the depression direction of the fitting groove 532b may correspond to a projection direction of the projection 522 protruding from the first fixing portion 521. Accordingly, the fixture f may be disposed and fixed to substantially correspond to the extending direction of the projection body 510 within the storage space 514. Through this, the distance between the outer surface of the fixture f and the inner periphery 513 of the projection body 510 is maintained, so that contamination of the fixture f due to mutual contact is prevented. In addition, since the interval at which ultraviolet rays are irradiated is uniformly formed, the entire surface of the fixture f may be uniformly modified and sterilized/cleaned.

In addition, the guide portion 531c is protruded from the upper edge of the support portion 531 in a plurality, but is spaced apart with the ultraviolet-transmitting region w2 like the bushing support portion 552a formed in the holder portion 550 Is formed. Accordingly, since the area in which the other end of the fixture f is shielded by the guide portion 531c is minimized, the surface modification ability can be remarkably improved.

Through this, when the fixture (f) is placed, the other end of the fixture (f), which is an initial entry portion inserted into the insertion hole formed in the alveolar bone, can be uniformly modified and sterilized/cleaned with hydrophilicity. Therefore, after the fixture (f) is placed in the alveolar bone, the period of bone fusion is shortened, and damage due to infection can be prevented in advance.

In this case, the guide portion 531c is protruded outward from the upper surface of the support portion 531, and the size of each of the guide portions 531c is preferably formed to be substantially the same. In addition, it is preferable that an inclined surface 531d inclined downward toward the central portion of the support portion 531 is formed at the protruding inner end of the guide portion 531c. In addition, the corner portion 531e is preferably formed on the lower edge of the inclined surface 531d.

Accordingly, while the other end of the fixture f is fixed in position by the guide portion 531c, it is substantially in point or line contact with the corner portion 531e, so that the contact area between them can be minimized. In addition, while the guide part 531c is spaced apart with the ultraviolet light transmission gap w2, the other end of the fixture f is formed on the protruding upper surface of the guide part 531c. The shielded area is minimized. In addition, as ultraviolet rays are irradiated and reflected on the inclined surface 531d and the upper surface side of the support part 531, the other end side of the fixture f may be uniformly surface-modified and sterilized as a whole.

In this case, the ultraviolet transmission gap w2 formed between the plurality of guide portions 531c is preferably formed to be smaller than the outer peripheral diameter of the other end of the fixture f. In addition, the seating groove 531b may be formed to be concave toward the other side of the support part 531. Therefore, even if an impact or vibration is applied to the packaging container 600 for the dental implant, the other end of the fixture f can be prevented from being separated from the support part 531.

That is, in the present invention, when the fixture f is accommodated and packaged in the storage space 514, the protrusion 522 and the second fixing part 532 formed on the first fixing part 521 are As it is disposed between the provided support portions 531, the storage positions are aligned. Further, the support protrusion 552b formed at the end of the holder part 550 by separating the first stopper 520 so that the protrusion 522 is separated from the inner peripheral fastening groove f of the fixture f ), the position can be aligned with only the minimum contact area as point or line contact. In addition, even if a pressing force is applied when a surgical tool for drawing out the fixture (f) is mounted in the inner peripheral fastening groove (f), the position of one end and the other end of the fixture (f) is the holder part (550) and the It may be aligned by the support portion 531. Through this, when the fixture (f) is withdrawn, the fixture (f) slides or falls to prevent contact with the inner circumference 513 of the projection body 510, so that the storage stability and hygiene of the product will be remarkably improved. I can.

Meanwhile, at least one of the first stopper 520 and the second stopper 530 so that ozonized oxygen is supplied to the storage space 514 to modify the surface of the fixture f. It is preferable that a through passage through which each of the cutting surfaces 521d and 533c is passed through and communicates with the storage space 514 is formed. Hereinafter, it will be described and illustrated that the through passages are formed in the first and second plugs 520 and 530, respectively. Of course, in some cases, the through passage may be formed only in the first plug portion 520 or only in the second plug portion 530.

In detail, a semicircular or'D' shape between the end of the cutting surface 521d formed on both sides of the first fixing part 521 and the inner circumference of the first plug body 520a on which the first hollow 520b is formed It is preferable that a plurality of first through passages (522a, 522b) passing through are formed. Here, each of the first through passages 522a and 522b is formed through the longitudinal direction of the first stopper 520 to communicate with the first hollow 520b. Accordingly, even if the first plug 520 is coupled to one side of the projection body 510, external oxygen can be introduced through the first hollow 520b and the first through passages 522a and 522b. have.

At this time, the first through passages 522a and 522b have the cutting surfaces 521d formed on both sides, so that the remaining area excluding the area shielded by the first fixing part 521 having a substantially rectangular shape It may be opened to communicate with the one hollow (520b). Therefore, since the opening area of the first through passages 522a and 522b is maximized and the amount of oxygen flowing from the outside is increased, the surface modification performance can be remarkably improved. Moreover, as each of the first through passages 522a and 522b is formed uniformly with each other, oxygen flowing into the projection body 510 is uniformly distributed inside the storage space 514 It may be possible to secure homogeneity when the surface of the fixture (f) is modified.

And, between the end of the cutting surface (533d) formed on both sides of the second fixing portion (532) and the inner circumference of the second stopper body (530a) in which the second hollow (530b) is formed, a semicircular or'D' shape It is preferable that a plurality of second through passages 532d and 532e passing through are formed. Here, each of the second through passages 532d and 532e is formed through the lengthwise direction of the second plug 530 to communicate with the second hollow 530b. Accordingly, even if the second plug 530 is coupled to the other side of the projection body 510, external oxygen may be introduced through the second hollow 530b and the second through passages 532d and 532e. have.

In this case, the second through passages 532d and 532e have the cutting surfaces 533c formed on both sides, so that the remaining area excluding the area shielded by the second fixing part 532 having a substantially rectangular shape It may be opened to communicate with the double hollow (530b). Accordingly, the opening area of the second through passages 532d and 532e is maximized, and the amount of oxygen flowing from the outside may be increased. In addition, since each opening area of each of the second through passages 532d and 532e is formed uniformly with each other, flowing oxygen may be uniformly distributed inside the projection body 510.

In this way, the first plug portion 520 and the second plug portion 530 have the inner periphery of the projection body 510 by cutting surfaces 521d and 533c formed on both sides of each of the fixing portions 521 and 532. The spacing space separated from 513 and the hollows 520b and 530b formed in each stopper body 520a and 530a are in communication with each other so that the first through passages 522a and 522b and the second through passages 532d and 532e ) Is formed. That is, a sufficient oxygen airflow for generating ozone for surface modification of the fixture f is formed through the spaced spaces formed in the stoppers 520 and 530 and the hollows 520b and 530b. Through this, since the internal space in which the fixture (f) is accommodated is substantially sealed, the amount of ozone generated is significantly increased compared to the conventional packaging container in which the amount of oxygen gradually decreases, so that the surface modification performance of the fixture (f) will be remarkably improved. I can.

Moreover, when the first through passages 522a and 522b and the second through passages 532d and 532e are simultaneously formed in the first and second caps 520 and 530, the storage space ( Supply of oxygen for ozone generation for modifying the surface of the fixture f accommodated in 514 may be concentrated. Accordingly, when ultraviolet rays are irradiated to modify the surface, as much oxygen as necessary is continuously supplied to the storage space 514 to be converted into ozone.

In this case, the first through passages 522a and 522b and the second through passages 532d and 532e are formed in a plurality, respectively, and the central portion is separated and shielded by the respective fixing portions 521 and 532. Therefore, even if a foreign substance penetrates when oxygen is supplied through the first through passages 522a and 522b and the second through passages 532d and 532e, the storage space is restricted by the outer surfaces of the fixing parts 521 and 532. (514) Internal hygiene can be maintained.

Meanwhile, the surface modification and sterilization treatment of the fixture f using ultraviolet rays is performed as follows.

First, the fixture (f) is prepared by first modifying and sterilizing the surface. In detail, the fixture f may be surface-treated with a resorbable blasting media (RBM) that forms a roughness on the surface by spraying a biocompatible medium such as aluminum oxide, titanium oxide, and calcium phosphate. In addition, after the RBM surface treatment, the first surface modification treatment may be performed through a sandblasted, large-grit, acid-etched (SLA) surface treatment that performs chemical etching using an acid solution or the like. In addition, the fixture f is first sterilized by exposure to a cleaning solution, ultraviolet rays, plasma, ozone, etc., and then received and packaged in the packaging container 600 for the dental implant.

In addition, the packaging container 600 for the dental implant in which the fixture f is accommodated is disposed inside the ultraviolet irradiation device. In detail, the ultraviolet light source unit to which ultraviolet rays are irradiated is provided inside the ultraviolet irradiation device, and the packaging container 600 for the dental implant may be provided in a form enclosed in the ultraviolet light source unit.

Here, the ultraviolet irradiation device may emit ultraviolet rays having a wavelength of 150 nm to 400 nm. At this time, when the wavelength range of light emitted from the ultraviolet irradiation device is less than 150 nm, skin tissue may be damaged when external leakage occurs due to excessive energy. In addition, when the wavelength range of light emitted from the ultraviolet irradiation device exceeds 400 nm, a substantial sterilization and surface modification effect may be insufficient.

In this case, the ultraviolet rays may be classified into UV-V, UV-C, UV-B, and UV-A according to a wavelength range. In other words, UV-V is in the wavelength range of 100nm to 200nm, UV-C is in the wavelength range of 200nm to 280nm, UV-B is in the wavelength range of 280nm to 315nm, and UV-A is ultraviolet rays corresponding to the wavelength range of 315nm to 400nm. Meaning, and the shorter the wavelength, the higher the energy.

On the other hand, oxygen molecules distributed inside the packaging container 600 for dental implants may be converted to ozone, a reactive generator, while the outer electrons are converted into an excited state through an energy impact exceeding the binding energy between molecules by the ultraviolet rays. . In addition, after the first surface modification, ozone is bonded to the surface of the fixture (f) converted to hydrophobicity due to the bonding of carbon atoms to the surface as time passes, thereby separating the carbon atoms. Accordingly, the surface of the fixture (f) can be re-converted to a high-energy hydrophilic state.

That is, as air containing a large amount of hydroxyl groups (-OH) is supplied to the storage space 514, the amount of ozone generated through ultraviolet rays may be significantly increased. Therefore, since the carbon-based contaminants deposited on the surface of the fixture (f) are separated and removed through reaction with ozone, the surface of the fixture (f) can be stored in a state of being hydrophilic. In addition, a photocatalytic reaction in which carbon atoms are separated from a biocompatible medium such as titanium oxide on the surface of the fixture f may be activated through a hydroxyl group supplied to the storage space 514. Accordingly, the secondary surface modification efficiency of the fixture f through ultraviolet rays can be remarkably improved.

In addition, since the binding ring of organic substances is broken by the ultraviolet rays irradiated on the surface of the fixture f, a cleaning effect is provided, so that organic contaminants such as viruses and bacteria can be removed.

Meanwhile, a cover part including a case part and an elastic body part to protect the projection body part 510, the first stopper part 520 and the second stopper part 530 coupled to each other from external contamination sources or impacts is further It can be provided.

In detail, the case portion is opened at one side, and the housing portion and the housing portion that can cover the entire assembly of the projection body portion 510 to which the first plug portion 520 and the second plug portion 530 are combined It may include a cover that covers one side of the opening. That is, the receiving portion is formed to have an inner diameter exceeding the maximum outer diameter portion of the assembly so as to smoothly receive or withdraw the assembly. At the same time, the receiving portion is formed to exceed the maximum length of the assembly.

Such a receiving unit may be provided in various cross-sectional shapes such as a square or a circular shape, and preferably, at least one surface of the receiving unit may be provided to have a horizontal cross section to prevent collapse or rolling. In addition, it is preferable that the storage unit is made of a material such as synthetic resin or wood that is easy to manufacture and inexpensive. In addition, one edge of the cover portion may be adhered or fixed along the opened edge of the receiving portion.

Meanwhile, the elastic body portion may have an outer surface in close contact with the inner surface of the case portion, and the inner surface may be provided to surround the outer circumferential surface of the projection body portion 510. That is, the elastic body portion may be provided to elastically support a gap between the inner surface of the case portion and the outer circumference of the projection body portion 510. This elastic body portion may be formed of an elastic material such as rubber or silicone. Accordingly, shock or vibration that may be transmitted to the case portion in which the assembly is accommodated may be absorbed. Through this, damage to the projection body portion 510 formed of a silica material is prevented, and the first and second plug portions 520 and 530 are prevented from being separated from the projection body portion 510 can do.

In addition, in the present invention, it has been described and illustrated that the dental implant is provided as the fixture f, but the dental implant may be provided as an abutment. That is, the protrusion 522 may be inserted into a groove formed on one side of the abutment and may be aligned with the receiving position as the coupling protrusion of the abutment is seated in the support part 531.

At this time, the terms such as "include", "comprise" or "have" described above mean that the corresponding component may be present unless otherwise stated, excluding other components. It should not be construed as being able to include other components. All terms, including technical or scientific terms, have the same meaning as commonly understood by one of ordinary skill in the art, unless otherwise defined, to which the present invention belongs. Terms generally used, such as terms defined in the dictionary, should be interpreted as being consistent with the meaning of the context of the related technology, and are not interpreted as ideal or excessively formal meanings unless explicitly defined in the present invention.

As described above, the present invention is not limited to each of the above-described embodiments, and it is possible to be modified and implemented by those of ordinary skill in the art without departing from the scope claimed in the claims of the present invention. And, these modifications are within the scope of the present invention.

600: tooth implant packaging container 510: projection body
520: first plug 530: second plug
550: holder part f: fixture

Claims (5)

It is provided in a cylindrical shape and has both sides open so as to accommodate a tooth implant fixture to form a storage space therein, the projection body portion made of a material through which ultraviolet rays are transmitted for surface modification;
A first plug body disposed on one side of the projection body and having a grip groove portion formed along one or the other circumferential direction of the marking portion provided on the cylindrical outer circumferential surface, and a first plug body protruding to the other side of the first plug body, but having a coupling surface formed on the outside. A first stopper including a first fixing part and a protrusion protruding from the first fixing part to be inserted into an inner circumferential fastening groove formed at one end of the fixture;
The outer periphery corresponds to the inner periphery of one side of the projection body and the inner periphery is coupled to the coupling surface to mediate the connection of the projection body to the first stopper, and the end protrudes with a plurality of ultraviolet transmission intervals along the circumferential direction. A hollow holder portion; And
A second fixing portion having a cylindrical shape disposed on the other side of the projection body, and a second fixing portion protruding toward one side of the second stopper body and having a fitting surface connected to the inner circumference of the other side of the projection body. It includes a second stopper provided with a support portion at the inner end of the second fixing portion so that the other end of the fixture is seated,
The holder part protrudes downward from the inner end of the hollow body that is caught on the upper end of the projection body to be inserted into the inner circumference of the projection body, but the holder extension part formed with a recessed groove radially inward along the circumferential direction, and the inner circumference of the It is inserted into one side of the recessed groove, including a fitting ring extending round in response to a preset arc length,
The circular arc length of the fitting ring portion is a packaging container for a tooth implant, characterized in that formed in a length ratio of 50 to 95% with respect to the entire circumference of the inner peripheral portion of the recessed groove. delete The method of claim 1,
When the holder part is coupled to the inner circumference of the projection body part, an extension part protruding radially outward from the upper or lower outer circumference of the fitting ring part is formed to increase the friction fixing force in the drawing direction,
At the end of the holder extension part, a plurality of bushing support parts protruding downward with the ultraviolet transmission interval, and a support protrusion protruding radially inward from the end of the bushing support part to support one end of the fixture are formed,
The ultraviolet transmission interval is a packaging container for a tooth implant, characterized in that formed to be less than the diameter of one end of the fixture. The method of claim 1,
A cutting surface is formed on at least one side portion of the first fixing part and the second fixing part,
At least one of the first stopper and the second stopper is provided with a through passage through which ozonated oxygen is supplied to the storage space to modify the surface of the fixture by penetrating from the end of the cutting surface. Packaging container for dental implants. The method of claim 1,
The upper edge of the support part is radially protruded with a plurality of ultraviolet light transmission intervals along the circumferential direction, and a guide part formed at an inner end with a corner portion in which the other end of the fixture is in point contact is provided, and the guide part is provided on the inner bottom surface. A seating groove is formed in which the other end of the fixture, which is wrapped by, is seated,
An engaging protrusion protrudes radially outwardly so as to be forcibly fitted into the inner circumference of the holder part on the coupling surface
A packaging container for a tooth implant, characterized in that a plurality of fitting protrusions are protruding radially outwardly so as to be forcibly fitted to the other inner circumference of the projection body on the outer periphery of the fitting surface.

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