KR102236598B1 - Processing system of medical artificial teeth and bones using laser - Google Patents

Abstract

The present invention relates to a processing system of medical artificial teeth and bones using laser, and more specifically, to a processing system of medical artificial teeth and bones using laser which uses a zirconia block for laser processing when processing the artificial teeth or bones so as to reduce pollution such as dust generated during laser processing; which does not require a separate firing time unlike the prior art which takes about 10 hours of firing time after processing, so the processing time of products can be shortened; which makes it possible to perform more precise processing than conventional tool processing by using the laser when processing the artificial teeth or bones, thereby being excellent for processing teeth or bones in detail; which makes it possible to figure out software (S/W) or PC bugs and the power consumption of the laser in advance by installing an artificial intelligent situational recognition sensor and a three-dimensional sensor inside the processing system of medical artificial teeth and bones using laser; and which makes it possible to prevent damage to the zirconia block in advance, thereby minimizing economic loss.

Description

Processing system of medical artificial teeth and bones using laser

In the present invention, when processing artificial teeth or bones with a medical artificial tooth and bone processing system using a laser, by using a zirconia block for laser processing, it is possible to reduce pollution such as dust generated in the laser processing process, as well as processing. Unlike the conventional, which takes about 10 hours of firing time, it does not require a separate firing time, so the processing time of the product can be shortened, and by using a laser when processing artificial teeth or bones, conventional tool processing Since it can be processed more precisely, it is excellent at processing teeth and bones in detail, and by installing an artificial intelligent situation recognition sensor and a 3D sensor inside the medical artificial tooth and bone processing system using laser, software (S/W ), PC bugs and laser power consumption can be identified in advance, as well as zirconia block damage can be prevented in advance, minimizing economic loss, and medical artificial teeth and bone processing systems using lasers use laser beams. Not only can various parts and materials be processed by adjusting, but also small-sized artificial teeth or bones can be processed by using zirconia blocks, and a barcode reader and a 3D scanner are installed inside the medical artificial teeth and bone processing system using lasers. By using the equipped laser, it is possible to use the scan function and to make more precise cleaning after processing the product, as well as to recognize the type of block and the company's product, and by marking the barcode on the zirconia block, the type of block and the It is easy to recognize the company's products, and by mounting an arm so that the stage for laser processing that rotates 360° can be easily replaced, it is easy to replace it with a stage for laser processing and a stage for removing residues, as well as easy artificial teeth in all directions. It relates to a medical artificial tooth and bone processing system using a laser capable of processing a laser.

In general, the conventional artificial tooth processing system may cause environmental pollution by generating dust and pollution when processing a tool block for processing an artificial tooth. When manufacturing an artificial tooth, the firing time after processing the artificial tooth is reduced. Since it takes more than 10 hours, there is a disadvantage that it takes a considerable amount of time to process the finished product.

In addition, since defects such as deformation often occur during the firing process of artificial teeth, the time to reprocess later occurs more than twice, so if a defective product that is not satisfied due to deformation after initial processing occurs, it is reprocessed to complete a satisfactory product. There is a disadvantage that it takes twice the time to do it, as well as an inconvenient point that the operator must always check.

On the other hand, if there is a situation in which the machining tool is stopped while being stuck in the block due to a defect in the software (S/W) built into the artificial tooth processing system and a bug in the PC, economic loss of destroying the entire block This happens.

In addition, tools of various sizes according to precision processing are required, and precision processing is limited due to the nature of the tool.Therefore, it is somewhat questionable to process even fine parts of artificial teeth and small bones, and cracks occur during precision processing due to the nature of the tool. There is this.

In addition, tools for each size according to precision processing are required. In particular, tools are frequently worn, and there is a problem that defective products are generated due to tool wear in the processing process because there is no way to know them beforehand.

On the other hand, the conventional zirconia block for artificial tooth tool processing only compresses zirconia powder, and after processing it, it is necessary to bake the processed product to make a product of hard teeth. Due to the characteristics of tool processing, the baked block is not processed at all due to the occurrence of cracks. There is a drawback of not being able to do so.

In addition, in the artificial tooth procedure, the implant is fixed to the patient's hardest gum bone and then a prosthesis such as a crown is mounted.

In some cases, zirconia is used among materials for prosthesis. Zirconia has physiological stability and excellent aesthetics, but it is difficult to process, so if it is processed in a semi-sintered state and then sintered, it shrinks to its original shape and is artificial. You will make a tooth.

Among the equipment used in this process, there are automatic machinery and manual equipment. Existing manual equipment has a large number of problems in implant processing that requires an accurate horizontal and vertical surface because it does a circular enlargement movement that cannot perform a vertical movement.

There are many problems in terms of accuracy and efficiency because there is no equipment used for this purpose and a milling device for artificial tooth processing using existing materials.

Therefore, when processing artificial teeth or bones with a medical artificial tooth and bone processing system using a laser, since the zirconia block for laser processing is used, pollution such as dust generated during the laser processing can be reduced, as well as 10 after processing. Unlike conventional firing time, which takes about an hour, it does not require a separate firing time, so the processing time of the product can be shortened, and an artificial intelligent situation recognition sensor and 3D inside the medical artificial tooth and bone processing system using lasers. Since the sensor is installed, it is possible not only to grasp the power consumption of software (S/W), PC bugs, and lasers in advance, but also to prevent damage to the zirconia block in advance, minimizing economic loss, and medical artificial use using lasers. The tooth and bone processing system can process various parts or materials by controlling the laser beam, and it can process small-sized artificial teeth or bones because it uses zirconia blocks, and medical artificial teeth and bones processing using lasers. Since the system uses a laser equipped with a barcode reader and a 3D scanner, it is possible to use the scanning function and make more precise cleaning after processing the product, as well as medical use that utilizes a laser that can recognize the type of block and the company's product. There is an urgent need for the development of artificial teeth and bone processing systems.

KR 10-2012-0090152 (2012. 8. 17)

Therefore, the present invention was conceived to solve the above problems, and when processing an artificial tooth or bone with a medical artificial tooth and bone processing system using a laser, by using a zirconia block for laser processing, it occurs in the laser processing process. Medical artificial teeth using a laser that can reduce the processing time of the product because it does not require a separate firing time, unlike the conventional one that can reduce pollution such as dust that is processed and takes about 10 hours of firing time after processing. And to provide a bone processing system.

Another object of the present invention is to use a laser when processing artificial teeth or bones, so that more precise processing can be performed than conventional tool processing. It is to provide a bone processing system.

Another object of the present invention is to install an artificial intelligent situation recognition sensor and a 3D sensor inside a medical artificial tooth and bone processing system using a laser, so that software (S/W) or PC bugs and power consumption of the laser can be identified in advance. In addition, it is to provide a medical artificial tooth and bone processing system using a laser that can minimize the economic loss by preventing damage to the zirconia block in advance.

Another object of the present invention is that a medical artificial tooth and bone processing system using a laser can process various parts or materials by controlling a laser beam, as well as processing a small-sized artificial tooth or bone because a zirconia block is used. It is to provide a medical artificial tooth and bone processing system using laser.

Another object of the present invention is that by using a laser equipped with a barcode reader and a 3D scanner inside a medical artificial tooth and bone processing system using a laser, it is possible to use a scanning function and make more precise care after processing a product. Of course, it is to provide a medical artificial tooth and bone processing system using a laser that can recognize the type of block and its products.

Another object of the present invention is to provide a medical artificial tooth and bone processing system using a laser that makes it easy to recognize the types of blocks and their products by marking a barcode on a zirconia block.

Another object of the present invention is to mount an arm so that the stage for laser processing rotated by 360° is easily replaced, so that it is easy to replace the stage for laser processing and the stage for removing residues, as well as to easily use the laser in all directions. It is to provide a medical artificial tooth and bone processing system using a laser that can be processed.

A medical artificial tooth and bone processing system using a laser according to a preferred embodiment of the present invention for achieving the above object comprises: a PC interface board for controlling a laser and a verio scanning device and scanning alone; A laser receiving electrical signals from the PC interface board and irradiating a laser beam with a beam expander; A beam expander for receiving the laser beam irradiated by the laser and increasing the diameter of the laser beam; A verio scanning device including a verio scan driving unit for facilitating 3D processing by adjusting the focal length of the laser of the increased laser beam to focus on the object processing surface, and for operating the verio scanning device; A camera adapter that optically monitors the position of a laser spot when focus is received from the verio scanning device; A two-axis (x-axis, y-axis) galvanometer scanner that scans so that the processed surface of the object can be processed into a plane, and a two-axis (x-axis, y-axis) galvanometer scanner that drives the scanner. The x-axis, y-axis) galvanometer scanner driver and a two-axis (x-axis, y-axis) laser reflection mirror reflecting the laser beam of the two-axis (x-axis, y-axis) galvanometer scanner A scan head including; An objective lens positioned at an exit hole below one side of the scan head and maintaining a constant focal size on a plane; It is rotated by a stepping motor included in the linear driving device around the x-axis rotating from +180° to -180° and rotating from 0° to 360° by a stepping motor that is separated by a predetermined distance from the objective lens. A stage for laser processing that provides a space to facilitate dimensional processing; A power supply for supplying power to the verio scan driver and the 2-axis (x-axis, y-axis) galvanometer scanner driver; It characterized in that it includes.

In the present invention, a linear driving device for facilitating three-dimensional processing by moving the laser processing stage in a z direction; It characterized in that it includes.

In the present invention, the laser is a nanosecond, picosecond, femtosecond pulse laser or CO ₂ laser, and the output of the laser beam is 10 to 50W.

In the present invention, the objective lens is an f-theta lens.

In the present invention, the focal diameter (s) formed by the laser spot on the processed surface of the object is the wavelength of the laser (λ), the aperture of the scanner, the focal length (f), and the quality of the laser beam ( It ^{depends on M 2} ), and the focal diameter (s: 1/e ² ) is s = λ·f·M ² ㆍk/d, and k is the correction factor, and d is the diameter of the beam. It is characterized.

In the present invention, a transmission module installed inside or outside the PC interface board and transmitting information related to the completion of laser processing, the remaining time of laser processing, and errors during laser processing as a notification text of the mobile phone; It characterized in that it further includes.

In the present invention, the laser or LED source and the camera attached to the camera adapter further comprises a separate fuse to configure a portion for 3D scanning.

In the present invention, the laser processing stage includes an arm mounted so that the laser processing stage rotated by 360° can be easily replaced, and that the stage for laser processing and the stage for removing residues can be replaced if necessary. It is characterized.

In the present invention, the laser processing stage includes placing an artificial tooth or a zirconia block made of a mold frame processed with a milling machine so as to be easily processed with a laser and processing it with a laser.

In the present invention, the power consumption of the software (S/W) or PC bug and the laser inside the medical artificial tooth and bone processing system using the laser can be identified in advance, and the damage of the zirconia block can be prevented in advance. Using the artificial intelligence situation recognition sensor and 3D sensor that are installed to minimize economic loss, and the scanning function, the product can be cleaned more precisely after processing, and the type of block and its own product can be recognized. A laser equipped with a barcode reader and a 3D scanner; It characterized in that it further includes.

As described above, the medical artificial tooth and bone processing system using the laser of the present invention has the following effects.

First, the present invention can reduce pollution such as dust generated in the laser processing process by using a zirconia block for laser processing when processing an artificial tooth or bone with a medical artificial tooth and bone processing system using a laser. Of course, it is possible to shorten the processing time of the product because it does not require a separate firing time, unlike the conventional firing time of about 10 hours after processing.

Second, the present invention is excellent in finely processing teeth or bones because it enables more precise processing than conventional tool processing by using a laser when processing artificial teeth or bones.

Third, in the present invention, by installing an artificial intelligent situation recognition sensor and a 3D sensor inside a medical artificial tooth and bone processing system using a laser, software (S/W) or a PC bug and power consumption of the laser can be identified in advance. In addition, damage to the zirconia block can be prevented in advance, minimizing economic loss.

Fourth, according to the present invention, a medical artificial tooth and bone processing system using a laser can process various parts or materials by controlling a laser beam, as well as a zirconia block, so that a small-sized artificial tooth or bone can be processed. .

Fifth, the present invention uses a laser equipped with a barcode reader and a 3D scanner inside a medical artificial tooth and bone processing system using a laser, so that it is possible to use a scanning function and make more precise care after processing a product. You can recognize the type of block and your own product.

Sixth, in the present invention, by marking a barcode on a zirconia block, it is easy to recognize the type of the block and its own product.

Seventh, the present invention is equipped with an arm so that the stage for laser processing rotated by 360° is easily replaced, so that it is easy to replace the stage for laser processing and the stage for removing residues, as well as to easily process the laser from all directions. can do.

1 is a view showing the configuration of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention.
2 is a view showing the form of a laser processing stage in the configuration of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention.
3 is a view showing the form of a laser processing stage in which an arm for stage replacement is mounted among the configuration of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention.
FIG. 4 is a view showing the shape of a stage for removing remnants on which an arm for stage replacement is mounted in the configuration of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention.
5 is a view showing a shape of a zirconia block, which is a processing object, that is placed on a laser processing stage of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention.

Looking at a preferred embodiment of the present invention together with the accompanying drawings below, when it is determined that a detailed description of a related known technology or configuration may unnecessarily obscure the subject matter of the present invention, the detailed Description will be omitted, and terms to be described later are terms defined in consideration of functions in the present invention and may vary according to the intentions or customs of users and operators, so the definitions are medical artificial teeth and bones using the laser of the present invention. It should be made based on the contents throughout this specification describing the processing system.

Hereinafter, a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention will be described in detail with reference to the accompanying drawings.

1 is a view showing the configuration of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention, Figure 2 is a medical artificial tooth and bone processing using a laser according to an embodiment of the present invention It is a diagram showing the form of a stage for laser processing among the configuration of the system, and FIG. 3 is a laser equipped with an arm for stage replacement in the configuration of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention. It is a diagram showing the shape of a processing stage, and FIG. 4 is a shape of a stage for removing remnants on which an arm for stage replacement is mounted among the configuration of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention. 5 is a view showing the shape of a zirconia block, which is an object to be processed, placed on a laser processing stage of a medical artificial tooth and bone processing system using a laser according to an embodiment of the present invention.

A medical artificial tooth and bone processing system using the laser of the present invention includes a PC interface board 10, a scan alone 11, a laser 20, a beam expander 30, a verio scan device 40, and a verio scan driver 41 ), camera adapter (50), scan head (60), 2-axis (x-axis, y-axis) galvanometer scanner (61, 62), 2-axis (x-axis, y-axis) galvanometer scanner driver (63) , 64), 2-axis (x-axis, y-axis) laser reflection mirror (65, 66), objective lens (70), laser processing stage (80), residue removal stage (81), stage replacement arm (arm) ) 82, a power supply unit 90, a linear drive device 100, a stepping motor 101, a transmission module 110, a zirconia block 120, and the like.

As shown in Figs. 1 to 5, the medical artificial tooth and bone processing system 200 using a laser according to the present invention is a PC interface that controls the laser 20 and the verio scan device 40 and the scan alone 11 A board 10; A laser (20) receiving an electrical signal from the PC interface board (10) and irradiating a laser beam to a beam expander (30); A beam expander 30 receiving the laser beam irradiated by the laser 20 and increasing the diameter of the laser beam; By adjusting the focal length of the laser 20 of the increased laser beam, the object processing surface is focused to facilitate 3D processing, and includes a verio scan driving unit 41 for operating the verio scanning device 40 A verio scan device 40 to perform; A camera adapter (50) optically monitoring the position of a spot of the laser (20) when the focus is received from the verio scanning device (40); Two-axis (x-axis, y-axis) galvanometer scanners 61 and 62 for scanning the object to be processed into a plane, and the two-axis (x-axis, y-axis) galvanometer scanner 61 , 62) two-axis (x-axis, y-axis) galvanometer scanner driving unit (63, 64) and the two-axis (x-axis, y-axis) galvanometer scanner (61, 62) of the laser beam A scan head unit 60 including two-axis (x-axis, y-axis) laser reflection mirrors 65 and 66 for reflecting the image; An objective lens (70) positioned at an exit hole below one side of the scan head (60) and maintaining a constant focal size on a plane; A stepping motor 101 included in the linear driving device around the x-axis rotating from +180° to -180° and the z-axis rotating from 0° to 360°, separated by a predetermined distance from the objective lens 70 ) To provide a space to facilitate 3D processing by rotating the stage 80 for laser processing; A power supply unit 90 for supplying power to the verio scan driving unit 41 and the two-axis (x-axis, y-axis) galvanometer scanner driving units 63 and 64 is provided, and the laser processing stage 80 is positioned in the z direction. Further provided with a linear driving device 100 that facilitates 3D processing by moving in a direction, and is installed inside or outside the PC interface board 10, the completion of laser processing, the remaining time of laser processing, and the time of laser processing. It further comprises a transmission module 110 for transmitting information related to the error as a notification text of the mobile phone.

The functions of each of the technical means constituting the medical artificial tooth and bone processing system using the laser of the present invention will be described as follows.

The PC interface board 10 controls the laser 20 and the verio scan device 40 and the scan alone 11.

The laser 20 receives an electrical signal from the PC interface board 10 and irradiates a laser beam to the beam expander 30.

Here, the laser 20 is a nanosecond, picosecond, femtosecond pulse laser or CO ₂ laser, and the output of the laser beam is 10 to 50W.

The beam expander 30 receives the laser beam irradiated by the laser 20 and increases the diameter of the laser beam.

The verio scanning device 40 adjusts the focal length of the laser 20 of the increased laser beam to focus on the object processing surface to facilitate 3D processing, and enables the verio scanning device 40 to operate. It includes a verio scan driver 41.

The camera adapter 50 optically monitors the position of the spot of the laser 20 when the focus is received from the verio scanning device 40.

Here, the focal diameter (s) formed by the laser spot on the processed surface of the object depends on the wavelength of the laser (λ), the aperture of the scanner, the focal length (f), and the quality of the laser beam (M ² ). It depends, and the focal diameter (s: 1/e ² ) is s = λㆍfㆍM ² ㆍ k/d, k is the correction factor, and d is the diameter of the beam.

In addition, the correction factor (k) 1.27 is the most ideal, but it may be in the range of 1.5 to 2.0, and the diameter (d) of the beam is in the range of 6 to 70 mm.

The scan head unit 60 includes two-axis (x-axis, y-axis) galvanometer scanners 61 and 62 for scanning the object to be processed into a plane, and the two-axis (x-axis, y-axis). Axis) 2-axis (x-axis, y-axis) galvanometer scanner driving unit (63, 64) that drives the galvanometer scanners (61, 62), and the 2-axis (x-axis, y-axis) galvanometer scanner It includes two-axis (x-axis, y-axis) laser reflection mirrors 65 and 66 that reflect the (61, 62) laser beam.

Here, the laser beam is in a desired direction by rotating torsion mirrors 65 and 66 in the horizontal and vertical directions of the two-axis (x-axis, y-axis) galvanometer scanners 61 and 62 mounted on the scan head unit 60. It is biased towards.

The objective lens 70 is positioned at an exit hole below one side of the scan head unit 60 and maintains a constant focal size on a plane.

Here, the objective lens 70 is an f-theta lens.

The stage 80 is separated from the objective lens 70 by a predetermined distance, and is a linear driving device around an x-axis rotating from +180° to -180° and a z-axis rotating from 0° to 360° ( It is rotated by the stepping motor 101 included in 100) to provide a space to facilitate three-dimensional processing.

Here, the laser processing stage 80 is equipped with an arm 82 so that the laser processing stage 80 rotated by 360° can be easily replaced, and the laser processing stage 80 and the stage for removing residues 81 It can be replaced if necessary, and the laser processing stage 80 has a U-shaped shape, and a U-shaped central axis is connected to the stepping motor 101 included in the linear drive device 100.

In addition, it is most preferable to move the stage left and right through a gear to move the remaining residue after laser processing in the residue removal stage 81 to fall off, but it may be possible to remove it by burning it with a laser in parallel with this.

In addition, the form in which the laser processing stage 80 and the stage for removing residues 81 are combined with the stage replacement arm 82 is the most preferable form of a clip that holds both sides, but in addition to the above stages Any form that can be fixed by combining the (80, 81) and the arm (82) will be possible.

In addition, on the laser processing stage 80, a zirconia block 120 made of an artificial tooth or a mold frame in a form processed by a milling machine is placed on the laser processing stage 80 so as to be easily processed with the laser 20, and processed with the laser 20.

The power supply unit 90 supplies power to the verio scan driving unit 41 and the two-axis (x-axis, y-axis) galvanometer scanner driving units 63 and 64.

The PC in which the PC interface board 10 is embedded, the stage 80 for laser processing, and the transmission module 110 supply power from a separate power supply unit.

Here, the PC is any one of a desktop PC, a smartphone, a tablet PC, a slate PC, and a notebook computer.

The linear driving device 100 moves the laser processing stage 80 in the z direction to facilitate 3D processing.

The transmission module 110 is installed inside or outside the PC interface board 10 and transmits information related to the completion of laser processing, the remaining time of laser processing, and errors during laser processing as a notification text on the mobile phone. .

Here, the communication method by the transmission module 110 is a wired communication method selected from Ethernet, a universal serial bus, IEEE 1394, serial communication and parallel communication, or infrared communication, Bluetooth, WiFi, home RF and wireless LAN. It is a wireless communication method selected from among 5G communication.

In addition, it may be possible to further include configuring a part for 3D scanning by separately fusing the laser 20 or the LED source and the camera attached to the camera adapter 50.

In addition, by installing an artificial intelligent situation recognition sensor and a 3D sensor inside the medical artificial tooth and bone processing system 200 using a laser, it is possible to identify software (S/W), PC bugs, and power consumption of the laser in advance. In addition, damage to the zirconia block can be prevented in advance, thereby minimizing economic loss.

In addition, since a laser equipped with a barcode reader and a 3D scanner is used inside the medical artificial tooth and bone processing system 200 using a laser, it is possible to use the scanning function and make more precise care after processing the product. You can recognize the type and your product.

As described above, since the medical artificial tooth and bone processing system using a laser can be applied to various medical fields as well as dentistry, its use and application targets are wide.

Optimal embodiments have been disclosed in the drawings and specification, and terms used herein are used only for the purpose of describing the present invention, and are not used to limit the meaning or the scope of the present invention described in the claims. Therefore, those of ordinary skill in the art will be able to make various modifications and other equivalent embodiments therefrom, and thus, the true technical protection scope of the present invention should be determined by the technical spirit of the appended claims.

10: PC interface board 11: Scan alone
20: laser 30: beam expander
40: verio scan device 41: verio scan driver
50: camera adapter 60: scan head
61, 62: 2-axis (x-axis, y-axis) galvanometer scanner
63, 64: 2-axis (x-axis, y-axis) galvanometer scanner driver
65, 66: 2-axis (x-axis, y-axis) laser reflection mirror
70: objective lens 80: laser processing stage
81: stage for removing residues 82: arm for stage replacement
90: power supply unit 100: linear drive device
101: stepping motor 110: transmission module
120: zirconia block
200: Medical artificial tooth and bone processing system using laser

Claims (10)

In a medical artificial tooth and bone processing system using a laser,
A PC interface board for controlling the laser and verio scanning devices and scanning alone;
A laser receiving electrical signals from the PC interface board and irradiating a laser beam with a beam expander;
A beam expander receiving the laser beam irradiated by the laser and increasing the diameter of the laser beam;
A verio scanning device including a verio scan driving unit for facilitating 3D processing by adjusting the focal length of the laser of the increased laser beam to focus on the object processing surface, and for operating the verio scanning device;
A camera adapter that optically monitors the position of a laser spot when the focus is received from the verio scanning device;
A two-axis (x-axis, y-axis) galvanometer scanner that scans so that the processed surface of the object can be processed into a plane, and a two-axis (x-axis, y-axis) galvanometer scanner that drives the scanner. An x-axis, y-axis) galvanometer scanner driver and a two-axis (x-axis, y-axis) laser reflection mirror reflecting the laser beam of the two-axis (x-axis, y-axis) galvanometer scanner A scan head including;
An objective lens positioned at an exit hole below one side of the scan head and maintaining a constant focal size on a plane;
It is rotated by a stepping motor included in the linear drive device around the x-axis rotating from +180° to -180° and rotating from 0° to 360° by a stepping motor that is separated by a predetermined distance from the objective lens. A stage for laser processing that provides a space to facilitate dimensional processing;
A power supply unit for supplying power to the verio scan driving unit and the 2-axis (x-axis, y-axis) galvanometer scanner driving unit; Medical artificial teeth and bone processing system using a laser, characterized in that it includes. The method of claim 1,
A linear driving device for facilitating 3D processing by moving the laser processing stage in the z direction; Medical artificial teeth and bone processing system using a laser, characterized in that it further comprises. The method of claim 1,
The laser is a nanosecond, picosecond, femtosecond pulsed laser or CO ₂ laser, and the laser beam has an output of 10 to 50W. The method of claim 1,
The objective lens is a medical artificial tooth and bone processing system using a laser, characterized in that the f-theta lens. The method of claim 1,
The focal diameter (s) formed by the laser spot on the processed surface of the object depends on the wavelength of the laser (λ), the aperture of the scanner, the focal length (f), and the quality of the laser beam (M ² ). , The focal diameter (s: 1/e ² ) is s = λ·f·M ² ㆍk/d, and k is the correction factor, and d is the diameter of the beam. A medical artificial tooth and bone processing system. The method of claim 1,
A transmission module installed inside or outside the PC interface board and transmitting information related to the completion of laser processing, the remaining time of laser processing, and errors during laser processing as a notification text of the mobile phone; Medical artificial teeth and bone processing system using a laser, characterized in that it further comprises. The method of claim 1,
A medical artificial tooth and bone processing system using a laser, further comprising: separately fusing the laser or LED source and a camera attached to a camera adapter to form a 3D scanning portion. The method of claim 1,
The laser processing stage is equipped with an arm so that the stage for laser processing rotated by 360° can be easily replaced, and the laser processing stage and the stage for removing residues can be replaced if necessary. A medical artificial tooth and bone processing system. The method of claim 1,
On the laser processing stage, artificial teeth and bones for medical use using a laser, characterized in that it includes placing an artificial tooth or a zirconia block made of a mold frame in a form of a milling machine so that it is easy to process with a laser, and processing it with a laser. system. The method of claim 1,
It is possible to know in advance the power consumption of software (S/W) or PC bug and laser power consumption inside the medical artificial tooth and bone processing system using laser, and it is possible to prevent damage to the zirconia block in advance, thereby minimizing economic loss. A barcode reader and a 3D scanner that are equipped to recognize the type of block and the company's products using the artificial intelligence situation recognition sensor and 3D sensor, and the scanning function, which can be processed more precisely after processing the product. Equipped with a laser; Medical artificial teeth and bone processing system using a laser, characterized in that it further comprises.

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