Multifunctional planting mobile phone calibration device

Abstract

The utility model provides a multifunctional planting mobile phone calibration device, which comprises a supporting bottom plate, a calibration panel and an optical identification mark image, and is characterized in that the supporting bottom plate is inwards sunken to form a fixed sunken part; the calibration panel is a glass panel, and the calibration panel is nested in the fixed concave part; a plurality of optical identification mark images are arranged, and the plurality of optical identification mark images are arranged on the calibration panel; the conical calibration assembly, the outer diameter calibration assembly, the ball head calibration assembly and the drill bit length calibration assembly are formed on the calibration panel. Compared with the prior art, the technical scheme has the beneficial effects that the planting mobile phone can be comprehensively calibrated based on the conical calibration assembly, the outer diameter calibration assembly, the ball head calibration assembly, the axial calibration assembly and the drill bit length calibration assembly, various calibration requirements are met through a simple structure, and the planting mobile phone calibration device has the advantages of being scientific in structure, complete in function and the like.

Description

Technical Field

[0001] The utility model relates to the technical field of medical equipment, in particular to a multifunctional implant mobile phone calibration device used for calibrating an implant mobile phone before performing a dental implant operation. Background Art

[0002] Currently, dental implants are the most effective means of treating tooth loss. To ensure the treatment effect, optical locators and implant handpieces are essential equipment for the operation. The optical locator captures the logo pattern on the implant handpiece to obtain the real-time position and real-time posture of the implant handpiece. By dynamically comparing the real-time position, ideal position, real-time posture, and ideal posture, the implant handpiece can be navigated step by step in real time to guide the implant handpiece to run along the most ideal trajectory.

[0003] Before using the implant mobile phone to perform dental implant operations, it needs to be calibrated. For the implant mobile phone, the so-called calibration refers to unifying the three-dimensional coordinate system of the implant mobile phone and the three-dimensional coordinate system of the optical locator. After the calibration operation, the optical locator can locate the implant mobile phone in real time according to the position status of the reference plate on the implant mobile phone.

[0004] Depending on the different clinical use scenarios, before implementing the dental implant operation, the implant mobile phone needs to be adaptively configured, such as equipped with a drill bit or a ball head. Correspondingly, the drill bit position, drill position and outer diameter must be calibrated. The calibration plate used for calibration operations in the prior art has the problem of single function and can only perform three-dimensional coordinate system one. If drill bit calibration or ball head calibration is required, additional calibration tools are required, which brings great inconvenience to the operation. Summary of the invention

[0005] The technical problem to be solved by the utility model is that, in view of the above-mentioned defects of the prior art, a multifunctional implant mobile phone calibration device is provided, which integrates the calibration function by optimizing the structural design, facilitates the comprehensive calibration of the implant mobile phone before the implementation of the dental implant surgery, and has the advantages of scientific structure and complete functions.

[0006] The technical solution adopted by the utility model to solve the technical problem is as follows:

[0007] A multifunctional implant mobile phone calibration device, comprising:

[0008] A support bottom plate, the support bottom plate is a square plate-shaped structure, and a first limiting side wall, a second limiting side wall, a third limiting side wall and a fourth limiting side wall are arranged on the support bottom plate, the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall are respectively arranged on four side edges of the support bottom plate and are sequentially connected end to end, the support bottom plate is recessed inwardly to form a fixed recessed portion, and the fixed recessed portion is located inside the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall;

[0009] A calibration panel, wherein the calibration panel is a square plate-shaped structure, the calibration panel is a glass panel, the calibration panel is nested in the fixed recessed portion, and the four sides of the calibration panel are respectively tightly matched with the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall;

[0010] An optical recognition mark image, wherein a plurality of optical recognition mark images are provided, and the plurality of optical recognition mark images are provided on the calibration panel;

[0011] A conical calibration component, an outer diameter calibration component, a ball head calibration component, an axial calibration component and a drill length calibration component, wherein the conical calibration component, the outer diameter calibration component, the ball head calibration component and the drill length calibration component are formed on the calibration panel.

[0012] Compared with the prior art, the beneficial effects of the present technical solution are: based on the conical calibration component, outer diameter calibration component, ball head calibration component, axial calibration component and drill bit length calibration component, the implant mobile phone can be comprehensively calibrated, and a variety of calibration requirements can be met through a simple structure. It has the advantages of scientific structure and complete functions.

[0013] Further, the bottom of the fixed recessed portion protrudes upward to form a limiting platform, and a glue overflow groove is arranged around the limiting platform, and a transition plane is formed between the glue overflow groove and the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall;

[0014] The position limiting platform is provided with an adhesive colloid, and the calibration panel is fixedly arranged in the fixed recessed portion of the supporting bottom plate through the adhesive colloid.

[0015] The beneficial effects of adopting the above scheme are: limiting the matching depth between the supporting base plate and the calibration panel by limiting the high platform, ensuring that the actual height of the calibration panel is consistent with the designed height, and effectively preventing the adhesive glue from overflowing by providing an overflow groove and reserving a transition plane.

[0016] Furthermore, the support bottom plate is upwardly protruded to form a first calibration column, and the upper end of the first calibration column is downwardly recessed to form a conical recessed portion;

[0017] The calibration panel is provided with a first calibration circular through hole. When the calibration panel is fixed on the supporting base plate, the first calibration column is sleeved in the first calibration circular through hole. The first calibration column forms the conical calibration component on the calibration panel through the conical recess.

[0018] The beneficial effect of adopting the above solution is that a conical calibration component is formed on the calibration panel through the conical recessed portion on the first calibration cylinder, so that the tip of the implant mobile phone can be calibrated with a simple and stable structure.

[0019] Furthermore, a second calibration cylinder is formed on the support bottom plate and protrudes upward, and the upper end of the second calibration cylinder is recessed downward to form a hemispherical recessed portion;

[0020] A second calibration circular through hole is provided on the calibration panel. When the calibration panel is fixed on the supporting base plate, the second calibration column is sleeved in the second calibration circular through hole. The second calibration column forms the ball head calibration component on the calibration panel through the hemispherical recess.

[0021] The beneficial effect of adopting the above solution is that a ball head calibration component is formed on the calibration panel through the hemispherical recessed portion on the second calibration cylinder, so that the ball head of the implant mobile phone can be calibrated with a simple and stable structure.

[0022] Furthermore, a third calibration column is formed on the support bottom plate and protrudes upwards, a sleeve blind hole is opened at the upper end of the third calibration column, an axial calibration rod is nested and fixed in the sleeve blind hole, and the axial calibration rod is a ceramic round rod;

[0023] A third calibration circular through hole is provided on the calibration panel. When the calibration panel is fixed on the supporting base plate, the third calibration column is sleeved in the third calibration circular through hole. The third calibration column forms the axial calibration component on the calibration panel through the axial calibration rod.

[0024] The beneficial effect of adopting the above solution is that an axial calibration component is formed on the calibration panel through the axial calibration rod on the third calibration cylinder, so that the implant mobile phone can be axially calibrated with a simple and stable structure.

[0025] Furthermore, a calibration bar-shaped through hole is provided on the calibration panel, and the width of the calibration bar-shaped through hole gradually increases from one end to the other end;

[0026] When the calibration panel is fixed on the supporting base plate, the calibration bar-shaped through holes form the outer diameter calibration component on the calibration panel.

[0027] The beneficial effect of adopting the above scheme is that an outer diameter calibration component is formed by a calibration bar-shaped through hole whose width gradually increases from one end to the other end, so that the diameter of the drill bit of the implant mobile phone can be measured with a simple and stable structure.

[0028] Furthermore, the calibration panel is provided with scale values, and the scale values ​​are located beside the calibration bar-shaped through holes.

[0029] The beneficial effect of adopting the above solution is that a scale value is set next to the calibration bar-shaped through hole, which is convenient for operators to directly read the data.

[0030] Furthermore, a circular recessed portion is provided on the calibration panel, and a drill length calibration component is formed in the circular recessed portion through a circular glass sheet.

[0031] The beneficial effect of adopting the above solution is that a drill length calibration component is formed directly on the calibration panel through a circular recessed portion and a circular glass sheet, and the drill length calibration function can be realized through a simple structure.

[0032] Furthermore, the calibration panel is a glass panel, and the optical recognition logo images are provided with 6, and the optical recognition logo images are provided on the calibration panel by silk screen printing;

[0033] The optical recognition mark image includes a first fan-shaped mark and a second fan-shaped mark. In the same optical recognition mark image, the vertices of the first fan-shaped mark and the second fan-shaped mark coincide with each other. The first fan-shaped mark and the second fan-shaped mark are white mark points or black mark points.

[0034] The beneficial effect of adopting the above scheme is: an axially symmetrical figure is formed by the first sector-shaped logo and the second sector-shaped logo, and the axial directions of different optical recognition logo images are set in different directions according to actual conditions to meet the logo function requirements.

[0035] Furthermore, the calibration panel is provided with a sealing groove along the side surface, and a sealing rubber ring is connected to the sealing groove. When the calibration panel is fixed on the supporting base plate, the sealing rubber ring abuts against the gap between the calibration panel and the supporting base plate.

[0036] The beneficial effect of adopting the above scheme is that when the calibration panel and the supporting base plate are fixedly connected, the gap between the two is filled by the sealing rubber ring, which can improve the integrity of the device and prevent water from entering the device or breeding bacteria. BRIEF DESCRIPTION OF THE DRAWINGS

[0037] Figure 1 It is an overall front view of the utility model multifunctional implant mobile phone calibration device.

[0038] Figure 2 It is an exploded schematic diagram of a multifunctional implant mobile phone calibration device of the utility model.

[0039] Figure 3 It is a front view of a supporting base plate in the multifunctional implant mobile phone calibration device of the utility model.

[0040] Figure 4 It is a front view of a calibration panel in the multifunctional implant mobile phone calibration device of the utility model.

[0041] In the figure, the components represented by the reference numerals are as follows:

[0042] Support base plate 1, calibration panel 2, optical recognition identification image 3, cone calibration component 4, outer diameter calibration component 5, ball head calibration component 6, axial calibration component 7, drill length calibration component 8;

[0043] A first limiting side wall 101, a second limiting side wall 102, a third limiting side wall 103, a fourth limiting side wall 104, a limiting platform 105, an overflowing glue groove 106, and a transition plane 107;

[0044] A first sector mark 301 and a second sector mark 302;

[0045] A first calibration cylinder 401 and a first calibration circular through hole 402;

[0046] Calibrate the strip-shaped through hole 501;

[0047] A second calibration cylinder 601 and a second calibration circular through hole 602;

[0048] A third calibration cylinder 701, an axial calibration rod 702, and a third calibration circular through hole 703;

[0049] Circular recessed portion 801. DETAILED DESCRIPTION

[0050] In order to make the purpose, technical solution and advantages of the utility model clearer and more specific, the utility model is further described in detail with reference to the accompanying drawings and examples. It should be understood that the specific embodiments described here are only used to explain the utility model and are not used to limit the utility model.

[0051] In the description of the present invention, it should be understood that the directions or positional relationships indicated by the terms "center", "upper", "lower", "front", "back", "left", "right", etc. are based on the directions or positional relationships shown in the drawings, and are only for the convenience of describing the present invention and simplifying the description, rather than indicating or implying that the device or component referred to must have a specific direction, be constructed and operated in a specific direction, and therefore cannot be understood as limiting the present invention. In addition, the terms "first" and "second" are used for descriptive purposes only, and cannot be understood as indicating or implying relative importance.

[0052] In the description of the present utility model, it should be noted that, unless otherwise clearly stipulated and limited, the terms "installed", "connected" and "connected" should be understood in a broad sense. For example, it can be a fixed connection, a detachable connection, or an integral connection; it can be a mechanical connection or an electrical connection; it can be a direct connection, or it can be an indirect connection through an intermediate medium, or it can be a connection between the two components. When a component is referred to as being "fixed to" or "disposed on" another element, it can be directly on the other component or there can also be a central component. When a component is considered to be "connected" to another element, it can be directly connected to the other element or there can be a central element at the same time. For those of ordinary skill in the art, the specific meanings of the above terms in the present utility model can be understood according to specific circumstances.

[0053] Currently, dental implants are the most effective means of treating tooth loss. To ensure the treatment effect, optical locators and implant handpieces are essential equipment for the operation. The optical locator captures the logo pattern on the implant handpiece to obtain the real-time position and real-time posture of the implant handpiece. By dynamically comparing the real-time position, ideal position, real-time posture, and ideal posture, the implant handpiece can be navigated step by step in real time to guide the implant handpiece to run along the most ideal trajectory.

[0054] Before using the implant mobile phone to perform dental implant operations, it needs to be calibrated. For the implant mobile phone, the so-called calibration refers to unifying the three-dimensional coordinate system of the implant mobile phone and the three-dimensional coordinate system of the optical locator. After the calibration operation, the optical locator can locate the implant mobile phone in real time according to the position status of the reference plate on the implant mobile phone.

[0055] Depending on the different clinical use scenarios, before implementing the dental implant operation, the implant mobile phone needs to be adaptively configured, such as equipped with a drill bit or a ball head. Correspondingly, the drill bit position, drill position and outer diameter must be calibrated. The calibration plate used for calibration operations in the prior art has the problem of single function and can only perform three-dimensional coordinate system one. If drill bit calibration or ball head calibration is required, additional calibration tools are required, which brings great inconvenience to the operation.

[0056] like Figure 1 and Figure 2 As shown, in order to solve the above problems, the utility model provides a multifunctional implant mobile phone calibration device, including a support base plate 1, a calibration panel 2 and an optical recognition identification image 3, and also includes a conical calibration component 4, an outer diameter calibration component 5, a ball head calibration component 6, an axial calibration component 7 and a drill length calibration component 8. Among them, the support base plate 1 and the calibration panel 2 mainly play a structural support role, and the other components of the device are directly or indirectly arranged on the support base plate 1 or the calibration panel 2; the optical recognition identification image 3 plays a feature identification role, and the real-time position and posture of the optical recognition identification image 3 can be collected by an optical locator to obtain the real-time position and posture of the device; the conical calibration component 4 is used to calibrate the tip of the drill bit of the implant mobile phone, the outer diameter calibration component 5 is used to measure the outer diameter of the drill bit of the implant mobile phone, the ball head calibration component 6 is used to calibrate the ball head drill of the implant mobile phone, the axial calibration component 7 is used to axially calibrate the drill bit of the implant mobile phone to determine its direction, and the drill length calibration component 8 is used to calibrate the length of the drill bit of the implant mobile phone to determine its length. In the present device, the conical calibration component 4 , the outer diameter calibration component 5 , the ball head calibration component 6 and the drill length calibration component 8 are formed on the calibration panel 2 .

[0057] The supporting base plate 1 is a square plate-shaped structure, and is provided with a first limiting side wall 101, a second limiting side wall 102, a third limiting side wall 103 and a fourth limiting side wall 104. The first limiting side wall 101, the second limiting side wall 102, the third limiting side wall 103 and the fourth limiting side wall 104 are respectively arranged on the four sides of the supporting base plate 1 and are connected end to end in sequence. The supporting base plate 1 is recessed inwardly to form a fixed recessed portion, and the fixed recessed portion is located within the first limiting side wall 101, the second limiting side wall 102, the third limiting side wall 103 and the fourth limiting side wall 104.

[0058] Correspondingly, the calibration panel 2 is a square plate-shaped structure, and the calibration panel 2 is nested in the fixed recessed portion. In the supporting base plate 1, the fixed recessed portion serves to provide a position in which the calibration panel 2 can be embedded. When the calibration panel 2 is placed in the fixed recessed portion, the four sides of the calibration panel 2 are closely matched with the first limiting side wall 101, the second limiting side wall 102, the third limiting side wall 103 and the fourth limiting side wall 104.

[0059] There are multiple optical recognition logo images 3, and multiple optical recognition logo images 3 are set on the calibration panel 2. The optical recognition logo image 3 is a characteristic logo of the device, and the real-time posture of the device can be determined by the real-time posture of the optical recognition logo image 3. In particular, the calibration panel 2 is a glass panel, and the glass panel has good flatness and is not easy to deform, so as to ensure that the optical recognition logo image 3 thereon will not be affected by external high temperature, impact, etc. during long-term use and will not be easily changed, thereby avoiding the introduction of human operation errors.

[0060] The device integrates the functional components such as the cone calibration component 4, the outer diameter calibration component 5, the ball head calibration component 6, the axial calibration component 7 and the drill length calibration component 8, and can fully calibrate the implant mobile phone, meet various calibration requirements through a simple structure, and has the advantages of scientific structure and complete functions. At the same time, the structural characteristics of the glass panel are used to effectively avoid the introduction of human errors and improve the recognition accuracy and calibration accuracy of the device.

[0061] like Figure 3 As shown, preferably, the bottom of the fixed recessed portion protrudes upward to form a limiting platform 105, and the limiting platform 105 is surrounded by overflowing glue grooves 106, and a transition plane 107 is formed between the overflowing glue grooves 106 and the first limiting side wall 101, the second limiting side wall 102, the third limiting side wall 103 and the fourth limiting side wall 104; an adhesive colloid is provided on the limiting platform 105, and the calibration panel 2 is fixedly arranged in the fixed recessed portion of the supporting base plate 1 by the adhesive colloid.

[0062] In this preferred embodiment, there are two core technical points. One is to ensure that the position of the calibration panel 2 is within a reasonable range through a limiting platform 105. The other is to form a glue overflow groove 106 on the bottom surface of the supporting base plate 1, and a transition plane 107 is also provided outside the glue overflow groove 106.

[0063] The calibration panel 2 is lifted by the limiting platform 105, and the characteristics of the supporting base plate 1 and the calibration panel 2 being both rigid structures are utilized to ensure that the actual relative position relationship between the optical identification mark image 3 on the calibration panel 2 and the conical calibration component 4, the outer diameter calibration component 5, the ball head calibration component 6, the axial calibration component 7 and the drill length calibration component 8 is consistent with the designed relative position relationship, so that the device can be assembled accurately. The overflow glue groove 106 and the transition plane 107 form two barriers. During the bonding and fixing process, the adhesive colloid will first spread evenly between the supporting base plate 1 and the calibration panel 2, and the excess part will enter the overflow glue groove 106, and only a very small part will enter the transition plane 107. The overflow of the adhesive colloid can be effectively prevented by providing the overflow glue groove 106 and reserving the transition plane 107.

[0064] like Figure 3 and Figure 4 As shown, preferably, a first calibration column 401 is formed on the support base plate 1 and protrudes upward, and the upper end of the first calibration column 401 is recessed downward to form a conical recess; a first calibration circular through hole 402 is opened on the calibration panel 2, and when the calibration panel 2 is fixed on the support base plate 1, the first calibration column 401 is sleeved in the first calibration circular through hole 402, and the first calibration column 401 forms the conical calibration component 4 on the calibration panel 2 through the conical recess.

[0065] When in use, when performing tip calibration, the drill bit is installed and fixed on the implant mobile phone, and the drill bit is controlled by the implant mobile phone to abut the conical recessed portion in the conical calibration component 4. Since the positional relationship between the conical recessed portion and the calibration panel 2 is known, the tip calibration operation of the implant mobile phone can be completed based on the coordinate conversion relationship between the three-dimensional coordinate system of the implant mobile phone and the three-dimensional coordinate system of the calibration panel 2.

[0066] Based on the above technical solution, a conical calibration component 4 is formed on the calibration panel 2 through the conical recess on the first calibration cylinder 401, so that the tip of the implant mobile phone can be calibrated with a simple and stable structure.

[0067] like Figure 3 and Figure 4 As shown, preferably, a second calibration column 601 is formed on the support base plate 1 in an upward protrusion, and the upper end of the second calibration column 601 is recessed downward to form a hemispherical recess; a second calibration circular through hole 602 is opened on the calibration panel 2, and when the calibration panel 2 is fixed on the support base plate 1, the second calibration column 601 is sleeved in the second calibration circular through hole 602, and the second calibration column 601 forms the ball head calibration component 6 on the calibration panel 2 through the hemispherical recess.

[0068] When in use, when calibrating the ball head, the ball head is installed and fixed on the implant mobile phone, and then the ball head is abutted against the hemispherical recessed portion in the ball head calibration component 6 through the implant mobile phone. Since the positional relationship between the hemispherical recessed portion and the calibration panel 2 is known, the ball head calibration operation for the implant mobile phone can be completed based on the coordinate conversion relationship between the three-dimensional coordinate system of the implant mobile phone and the three-dimensional coordinate system of the calibration panel 2.

[0069] Based on the above structure, a ball head calibration component 6 is formed on the calibration panel 2 through the hemispherical recessed portion on the second calibration cylinder 601, so that the ball head of the implant mobile phone can be calibrated with a simple and stable structure.

[0070] like Figure 3 and Figure 4As shown, preferably, a third calibration column 701 is formed on the support base plate 1 in an upward protrusion, and a sleeve blind hole is provided at the upper end of the third calibration column 701, and an axial calibration rod 702 is nested and fixed in the sleeve blind hole, and the axial calibration rod 702 is a ceramic round rod; a third calibration circular through hole 703 is provided on the calibration panel 2, and when the calibration panel 2 is fixed on the support base plate 1, the third calibration column 701 is sleeved in the third calibration circular through hole 703, and the third calibration column 701 forms the axial calibration component 7 on the calibration panel 2 through the axial calibration rod 702.

[0071] When performing axial calibration, the implant mobile phone is plugged into the axial calibration rod 702 and the implant mobile phone is made to abut against the side of the third calibration cylinder 701, so that the mobile phone connecting sleeve and the axial calibration rod 702 form a coaxial relationship. Since the positional relationship between the axial calibration rod 702 and the calibration panel 2 is known, the axial calibration operation of the implant mobile phone can be completed based on the coordinate conversion relationship between the three-dimensional coordinate system of the implant mobile phone and the three-dimensional coordinate system of the calibration panel 2.

[0072] Based on the above structure, an axial calibration component 7 is formed on the calibration panel 2 through the axial calibration rod 702 on the third calibration cylinder 701, so that the implant mobile phone can be axially calibrated with a simple and stable structure.

[0073] like Figure 3 and Figure 4 As shown, preferably, a calibration strip-shaped through hole 501 is opened on the calibration panel 2, and the width of the calibration strip-shaped through hole 501 gradually increases from one end to the other end; when the calibration panel 2 is fixed on the supporting base plate 1, the calibration strip-shaped through hole 501 forms the outer diameter calibration component 5 on the calibration panel 2.

[0074] When measuring the outer diameter, the drill bit is installed and fixed on the implant mobile phone, and then the drill bit is sleeved on the thicker end of the calibration strip through hole 501, and the drill bit is operated by the implant mobile phone to gradually move toward the thinner end until the drill bit is snapped and fixed. Since the positional relationship between the calibration strip through hole 501 and the calibration panel 2 is known, the outer diameter of the drill bit can be obtained by the position of the drill bit in the calibration strip through hole 501 at this time.

[0075] Based on the above structure, the outer diameter calibration component 5 is formed by the calibration bar-shaped through hole 501 whose width gradually increases from one end to the other end, so that the diameter of the drill bit of the implant mobile phone can be measured with a simple and stable structure.

[0076] Preferably, the calibration panel 2 is provided with scale values, and the scale values ​​are located beside the calibration bar-shaped through hole 501. The scale values ​​are provided beside the calibration bar-shaped through hole 501, so that the operator can directly read the data.

[0077] like Figure 3 and Figure 4 As shown, preferably, a circular recessed portion 801 is provided on the calibration panel 2, and a drill length calibration component 8 is formed in the circular recessed portion 801 by a circular glass sheet.

[0078] When the length is calibrated, the drill bit is fixed on the implant mobile phone, and the implant mobile phone is used to control the drill bit to abut against the circular glass sheet. Since the positional relationship between the circular glass sheet and the calibration panel 2 is known, the drill bit length calibration operation for the implant mobile phone can be completed based on the coordinate conversion relationship between the three-dimensional coordinate system of the implant mobile phone and the three-dimensional coordinate system of the calibration panel 2. Therefore, the drill bit length calibration component 8 is directly formed on the calibration panel 2 through the circular recessed portion 801 and the circular glass sheet, and the drill bit length calibration function can be realized through a simple structure.

[0079] Specifically, there are six optical recognition logo images 3, and the optical recognition logo images 3 are set on the calibration panel 2 by silk screen printing. Figure 1 and Figure 2 As shown, the optical recognition mark image 3 includes a first fan-shaped mark 301 and a second fan-shaped mark 302. In the same optical recognition mark image 3, the vertices of the first fan-shaped mark 301 and the second fan-shaped mark 302 coincide with each other; the first fan-shaped mark 301 and the second fan-shaped mark 302 are white mark points or black mark points.

[0080] As described above, in the present device, the optical identification mark image 3 plays a role of a characteristic mark. The optical identification mark image 3 is formed by the first sector mark 301 and the second sector mark 302, so that a single optical identification mark image 3 can have a characteristic mark function, and further based on the position and orientation of different optical identification mark images 3 being independent of each other, a more obvious characteristic mark function can be played. Therefore, an axially symmetrical figure is formed by the first sector mark 301 and the second sector mark 302, and the axial directions of different optical identification mark images 3 are set in different directions according to actual conditions to meet the requirements of the marking function.

[0081] Preferably, the calibration panel 2 is provided with a sealing groove along the side, and a sealing rubber ring is connected to the outer surface of the sealing groove. When the calibration panel 2 is fixed on the supporting base plate 1, the sealing rubber ring abuts against the gap between the calibration panel 2 and the supporting base plate 1. When the calibration panel 2 and the supporting base plate 1 are fixedly connected, the gap between the two is filled by the sealing rubber ring, which can make the integrity of the device better and prevent water from entering the device or breeding bacteria.

[0082] The support base plate 1 is an integrally formed aluminum alloy structure. The use of an aluminum alloy structure as the support base plate 1 makes the device have the advantages of high strength and light weight.

[0083] It should be understood that the application of the present invention is not limited to the above examples. For ordinary technicians in this field, improvements or changes can be made according to the above description. All these improvements and changes should fall within the scope of protection of the claims attached to the present invention.

Claims

1. A multifunctional implant mobile phone calibration device, characterized in that: include: A support bottom plate, the support bottom plate is a square plate-shaped structure, and a first limiting side wall, a second limiting side wall, a third limiting side wall and a fourth limiting side wall are arranged on the support bottom plate, the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall are respectively arranged on four side edges of the support bottom plate and are sequentially connected end to end, the support bottom plate is recessed inwardly to form a fixed recessed portion, and the fixed recessed portion is located inside the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall; A calibration panel, wherein the calibration panel is a square plate-shaped structure, the calibration panel is a glass panel, the calibration panel is nested in the fixed recessed portion, and the four sides of the calibration panel are respectively tightly matched with the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall; An optical recognition mark image, wherein a plurality of optical recognition mark images are provided, and the plurality of optical recognition mark images are provided on the calibration panel; A conical calibration component, an outer diameter calibration component, a ball head calibration component, an axial calibration component and a drill length calibration component, wherein the conical calibration component, the outer diameter calibration component, the ball head calibration component and the drill length calibration component are formed on the calibration panel.

2. A multifunctional implant mobile phone calibration device according to claim 1, characterized in that: The bottom of the fixed recessed portion protrudes upward to form a limiting platform, and a glue overflow groove is arranged around the limiting platform, and a transition plane is formed between the glue overflow groove and the first limiting side wall, the second limiting side wall, the third limiting side wall and the fourth limiting side wall; The position limiting platform is provided with an adhesive colloid, and the calibration panel is fixedly arranged in the fixed recessed portion of the supporting bottom plate through the adhesive colloid.

3. The multifunctional implant mobile phone calibration device according to claim 1, characterized in that: The support bottom plate is upwardly protruding to form a first calibration column, and the upper end of the first calibration column is recessed downward to form a conical recessed portion; The calibration panel is provided with a first calibration circular through hole. When the calibration panel is fixed on the supporting base plate, the first calibration column is sleeved in the first calibration circular through hole. The first calibration column forms the conical calibration component on the calibration panel through the conical recess.

4. The multifunctional implant mobile phone calibration device according to claim 1, characterized in that: The support bottom plate is upwardly protruding to form a second calibration column, and the upper end of the second calibration column is concave downward to form a hemispherical concave portion; A second calibration circular through hole is provided on the calibration panel. When the calibration panel is fixed on the supporting base plate, the second calibration column is sleeved in the second calibration circular through hole. The second calibration column forms the ball head calibration component on the calibration panel through the hemispherical recess.

5. The multifunctional implant mobile phone calibration device according to claim 1, characterized in that: The support bottom plate is upwardly protruded to form a third calibration column, the upper end of the third calibration column is provided with a sleeve blind hole, an axial calibration rod is nested and fixed in the sleeve blind hole, and the axial calibration rod is a ceramic round rod; A third calibration circular through hole is provided on the calibration panel. When the calibration panel is fixed on the supporting base plate, the third calibration column is sleeved in the third calibration circular through hole. The third calibration column forms the axial calibration component on the calibration panel through the axial calibration rod.

6. The multifunctional implant mobile phone calibration device according to claim 1, characterized in that: The calibration panel is provided with a calibration bar-shaped through hole, and the width of the calibration bar-shaped through hole gradually increases from one end to the other end; When the calibration panel is fixed on the supporting base plate, the calibration bar-shaped through holes form the outer diameter calibration component on the calibration panel.

7. The multifunctional implant mobile phone calibration device according to claim 6, characterized in that: The calibration panel is provided with scale values, and the scale values ​​are located beside the calibration bar-shaped through holes.

8. The multifunctional implant mobile phone calibration device according to claim 1, characterized in that: A circular recessed portion is provided on the calibration panel, and a drill length calibration component is formed in the circular recessed portion through a circular glass sheet.

9. The multifunctional implant mobile phone calibration device according to claim 1, characterized in that: The calibration panel is a glass panel, and six optical recognition logo images are provided, and the optical recognition logo images are provided on the calibration panel by silk screen printing; The optical recognition mark image includes a first fan-shaped mark and a second fan-shaped mark. In the same optical recognition mark image, the vertices of the first fan-shaped mark and the second fan-shaped mark coincide with each other. The first fan-shaped mark and the second fan-shaped mark are white mark points or black mark points.

10. A multifunctional implant mobile phone calibration device according to any one of claims 1 to 8, characterized in that: The calibration panel is provided with a sealing groove along the side surface, and a sealing rubber ring is connected to the outer surface of the sealing groove. When the calibration panel is fixed on the supporting base plate, the sealing rubber ring abuts against the gap between the calibration panel and the supporting base plate.

Images