Tile cutter wire passing hole processing machine
By combining a vertical CNC drilling machine, a clamping unit, and a 3D line laser profilometer, the problem of clamping and positioning the tile cutter was solved, enabling high-precision machining of the tile cutter's thread hole and improving sewing quality.
Patent Information
- Application Number
- CN202520256378.1
- Authority / Receiving Office
- CN · China
- Patent Type
- Utility models(China)
- Current Assignee / Owner
- Filing Date
- 2025-02-18
- Publication Date
- 2025-12-19
- Estimated Expiration
- 2035-02-18
AI Technical Summary
Existing technology makes it difficult to accurately clamp and position the tile cutter, which often results in a deviation between the protrusion position and the drilling position when the tile cutter passes through the thread hole, affecting the thread cutting performance and sewing quality.
The system employs a vertical CNC drilling machine, a clamping unit, and a 3D line laser profilometer. The clamping unit securely clamps the tile cutter, while the 3D line laser profilometer acquires high-precision detection data. The CNC system controls the drill bit to move in the X, Y, and Z axes to perform drilling.
It achieves high-precision clamping and positioning of the tile cutter, avoids drilling position deviation, improves the processing accuracy and thread cutting performance of the tile cutter, and enhances sewing quality.
Smart Images
Figure CN223684931U_ABST
Abstract
Description
TECHNICAL FIELD
[0001] The utility model relates to machining equipment, concretely is a kind of tile knife line hole processing machine. BACKGROUND
[0002] In modern clothing manufacturing industry, computer direct drive automatic thread cutting flat bed sewing machine as a kind of key sewing equipment, the performance and precision of its thread cutting cutter play a vital role to sewing quality. Figure 1 As shown in the tile cutter 100 is the thread cutting cutter of existing computer direct drive automatic thread cutting flat bed sewing machine, tile cutter 100 is provided with line containing groove 101, the end of line containing groove 101 is a convex 102 with the shape of partial sphere. To realize thread cutting function, need to drill thread hole 103 on this convex 102, and thread hole 103 must be accurately corresponding with line containing groove 101, only in this way, in the sewing process, thread can smoothly pass through line containing groove 101 and pass out through thread hole 103 on convex 102, and then complete thread cutting action under the cooperation of cutter and fixed cutter.
[0003] However, since tile cutter 100 is in the shape of tile as a whole, this special shape itself increases the difficulty of clamping and positioning. At the same time, convex 102 is in the shape of partial sphere, which further aggravates the complexity of clamping and positioning. In actual production and processing process, to accurately clamp tile cutter 100 on processing equipment, so that convex 102 is in ideal processing position, faces many challenges. Existing clamping and positioning technical means can not guarantee accurate fixation of tile cutter 100 every time, which leads to deviation between convex position and drilling position when processing thread hole 103 on convex 102. This deviation can have serious negative impact on product performance. INVENTION CONTENTS
[0004] In view of the existing computer direct drive automatic thread cutting flat bed sewing machine tile cutter thread hole processing problem, the utility model discloses a kind of tile cutter thread hole processing machines, to solve clamping and positioning difficult problem, avoid the deviation between convex position and drilling position when processing thread hole, and then improve the processing precision of tile cutter, guarantee its thread cutting performance in the sewing process, improve the sewing quality of clothing manufacturing. For this purpose, the technical scheme adopted by the utility model is as follows:
[0005] A kind of tile cutter thread hole processing machine, including vertical numerical control drilling machine, for clamping tile cutter clamping unit and with the vertical numerical control drilling machine connected numerical control system, different from prior art is still including 3D line laser profilograph installed on the processing machine and connected with the numerical control system;
[0006] The clamping unit can stably clamp the tile cutter, and the line accommodating groove and the protrusion of the tile cutter are in positions convenient for detection and processing; the 3D line laser profiler projects laser light sheets to the surfaces of the line accommodating groove and the protrusion of the clamped tile cutter to obtain detection data.
[0007] The numerical control system receives the detection data of the 3D line laser profiler, and controls the drill bit of the vertical numerical control drilling machine to displace in the X, Y and Z axis directions after processing, and drills at the protrusion of the tile cutter.
[0008] Further, the 3D line laser profiler comprises two laser emission modules, one of which emits light sheets at an inclined angle to the tile cutter, the light sheets can cover the part of the line accommodating groove close to the edge, and accurately obtain the data of the side profile of the line accommodating groove and the joint with the protrusion; the other laser emission module vertically downward emits light sheets, which are vertically irradiated on the top of the protrusion, for accurately measuring the top profile and height information of the protrusion, and the two laser emission modules cooperate with each other to provide comprehensive and high-precision detection data for the numerical control system.
[0009] Further, a plurality of clamping units are circumferentially arranged on a disc intermittently rotated by a motor, each clamping unit comprises a support block fixed near the edge of the disc, and the upper surface of the support block has an arc surface matched with the tile cutter;
[0010] If the center of the disc is taken as a reference, the clockwise side of the support block is embedded with a positioning straight bar for abutting and limiting the axial straight edge of the tile cutter; the side of the support block close to the center of the disc is embedded with a positioning circular pin for abutting and limiting the radial straight edge of the tile cutter;
[0011] A hinge seat is fixed on the disc close to the side of the support block close to the center of the disc, a pressing rod is hinged on the hinge seat, the inner end of the pressing rod connects a guide rod, a circular groove is formed on the disc corresponding to the guide rod, a first spring is sleeved on the guide rod, one end of the first spring elastically abuts against the guide rod and the other end elastically abuts against the bottom of the circular groove, and the outer end of the pressing rod is fixedly connected with a pressing head, which is continuously pressed on the tile cutter under the action of the elasticity of the first spring.
[0012] Further, a drill bit avoiding hole is formed on the support block corresponding to the protrusion.
[0013] Further, a fixing seat is fixed on the disc opposite to the positioning straight bar, the fixing seat is slidingly connected with a slide rod capable of linearly horizontally moving the positioning straight bar, one end of the slide rod is fixed with a push plate, the other end of the slide rod is fixed with a stopper, a second spring is sleeved on the slide rod between the stopper and the fixing seat, the push plate is not in contact with the tile cutter under the elastic force of the second spring; a positioning cylinder is fixed on the frame of the processing machine and outside the disc, when the positioning cylinder is in the extended position, the cylinder rod can press against the stopper of the clamping unit near the cylinder rod, the push plate is pushed to make the tile cutter accurately abut against the positioning straight bar and the positioning round pin, thereby realizing accurate positioning.
[0014] Further, a push plate avoiding groove is formed in the support block corresponding to the push plate.
[0015] Further, the free end of the push plate is inclined to the inclined surface on the inner side of the wire containing groove under the pushing of the positioning cylinder, so that the tile cutter has a tendency to move towards the positioning straight bar and the positioning round pin.
[0016] Further, a limiting pin is fixed on the slide rod near the push plate to prevent the slide rod from being pulled out of the fixing seat.
[0017] Further, the tile cutter is also loosened by feeding and discharging mechanism, the feeding and discharging mechanism works when the disc intermittently rotates to the feeding and discharging position, the feeding and discharging mechanism includes a feeding and discharging base arranged at the center of the disc and not intermittently rotating with the disc, a feeding and discharging cylinder is fixed on the feeding and discharging base, the feeding and discharging base extends upwards to form a horizontal plate, the horizontal plate is hingedly connected with a vertical plate, the upper end of the vertical plate is hingedly connected with the cylinder rod of the feeding and discharging cylinder, the lower end of the vertical plate is fixed with the middle part of a U-shaped fork plate, the end parts of the U-shaped fork plate are respectively fixed with ball heads, the two ball heads can respectively press against the inner ends of the pressing rods of two adjacent clamping units to separate the pressing heads from the tile cutter, thereby facilitating feeding and discharging.
[0018] Further, each support block is fixed on the disc by the following structure: the L-shaped fixing block is provided with a convex point on the side surface of the support block corresponding to the clockwise side of the support block, the convex point abuts against the support block; a strip-shaped fixing block is fixed on the disc corresponding to the counterclockwise side of the support block by a screw, an axial and horizontal fastening screw is screwed on the strip-shaped fixing block, the rod end of the fastening screw abuts against the counterclockwise side of the support block, thereby stably fixing the support block on the disc.
[0019] Compared with the prior art, the present application has the following beneficial technical effects:
[0020] 1. Solving the clamping and positioning problem
[0021] In existing technologies, tile cutters are generally tile-shaped with partially spherical protrusions, making clamping and positioning difficult. This invention uses a clamping unit to securely clamp the tile cutter, positioning its grooves and protrusions in a position conducive to inspection and processing, effectively solving the problem of difficult clamping and positioning of tile cutters.
[0022] 2. Avoid drilling position deviation
[0023] Existing clamping and positioning technologies struggle to accurately fix tile cutters, often resulting in deviations between the protrusion position and the drilling position when machining through holes. This invention introduces a 3D line laser profilometer, which projects a laser beam onto the groove and protrusion surface of the clamped tile cutter to acquire detection data. After receiving and processing this data, the CNC system controls the drill bit of the vertical CNC drilling machine to move in the X, Y, and Z axes, thus avoiding deviations between the protrusion position and the drilling position when machining through holes.
[0024] 3. Improve processing accuracy and product performance
[0025] By solving the clamping and positioning problem and avoiding drilling position deviation, this utility model improves the processing accuracy of the tile cutter, ensures the thread-cutting performance of the tile cutter during the sewing process, and thus improves the sewing quality of garment manufacturing. Attached Figure Description
[0026] Figure 1 This is a schematic diagram of the structure of the tile cutter to be processed according to this utility model.
[0027] Figure 2 This is a schematic diagram of the structure of this utility model.
[0028] Figure 3 yes Figure 2 A magnified view of a portion of point A in the middle.
[0029] Figure 4 This is a structural schematic diagram from another perspective of the present invention.
[0030] Figure 5 yes Figure 4 A magnified view of a section at point B. Detailed Implementation
[0031] In the description of this utility model, it should be noted that the terms "center", "upper", "lower", "left", "right", "vertical", "horizontal", "inner", "outer", etc., indicate the orientation or positional relationship based on the orientation or positional relationship shown in the accompanying drawings. They are only for the convenience of describing this utility model and simplifying the description, and do not indicate or imply that the device or element referred to must have a specific orientation, or be constructed and operated in a specific orientation. Therefore, they should not be construed as limitations on this utility model.
[0032] In the description of this utility model, it should be noted that, unless otherwise explicitly specified and limited, the terms "installation," "connection," and "communication" should be interpreted broadly. For example, they can refer to a fixed connection, a detachable connection, or an integral connection; they can refer to a mechanical connection or an electrical connection; they can refer to a direct connection or an indirect connection through an intermediate medium; and they can refer to the internal communication between two components. Those skilled in the art can understand the specific meaning of the above terms in this utility model based on the specific circumstances.
[0033] The following specific embodiments illustrate the implementation of this utility model. Those skilled in the art can easily understand other advantages and effects of this utility model from the content disclosed in this specification. Obviously, the described embodiments are only some, not all, of the embodiments of this utility model. Based on the embodiments of this utility model, all other embodiments obtained by those skilled in the art without creative effort are within the protection scope of this utility model.
[0034] like Figures 1-5 The illustrated tile cutter through-hole processing machine includes a vertical CNC drilling machine, a clamping unit 300 for clamping the tile cutter 100, and a CNC system connected to the vertical CNC drilling machine. A 3D line laser profilometer 200 is mounted on the processing machine and connected to the CNC system. The 3D line laser profilometer is an optical measuring device used to acquire three-dimensional contour information of an object's surface. It illuminates the object's surface with a laser beam and uses a sensor to receive the reflected light, thereby calculating the three-dimensional coordinates of each point on the object's surface and generating the object's three-dimensional contour data.
[0035] The clamping unit 300 can securely clamp the tile cutter 100, so that the groove 101 and protrusion 102 of the tile cutter 100 are in a position that is convenient for inspection and processing; the 3D line laser profilometer 200 projects a laser beam onto the surface of the groove 101 and protrusion 102 of the clamped tile cutter 100 to obtain inspection data.
[0036] The CNC system receives the detection data from the 3D line laser profilometer 200, processes it, and controls the drill bit of the vertical CNC drilling machine to move in the X, Y, and Z axis directions to drill holes at the protrusion 102 of the tile cutter 100.
[0037] In this embodiment, the working principle of the tile cutter wire hole processing machine is a process of multi-component collaboration:
[0038] 1. Clamping preparation stage
[0039] The clamping unit 300 plays a crucial role as the foundation. Due to the overall tile-like shape of the tile cutter 100 and the partial spherical shape of the protrusion 102, clamping is quite challenging. The clamping unit 300, with its specific structure and design, securely clamps the tile cutter 100. During the clamping process, it adjusts the position of the tile cutter 100 so that the wire slot 101 and the protrusion 102 are in an ideal position for subsequent detection and processing, laying the foundation for the entire processing flow.
[0040] 2. Detection data acquisition stage
[0041] After the tile cutter 100 is clamped in place, the 3D line laser profiler 200 begins work. It is an optical measuring device used to obtain three-dimensional profile information of an object's surface. Its working method is to project a laser sheet onto the surface of the clamped tile cutter 100's wire slot 101 and protrusion 102. After the laser sheet is reflected off the object's surface, the 3D line laser profiler 200 uses its own sensors to receive these reflected lights. Then, based on the relevant information of the reflected light, it calculates the three-dimensional coordinates of each point on the object's surface through a specific algorithm, and generates the three-dimensional profile data of the tile cutter 100's wire slot 101 and protrusion 102, completing the acquisition of detection data.
[0042] 3. Data processing and analysis stage
[0043] The 3D line laser profiler 200 transmits the acquired detection data to the numerical control system. As the "brain" of the entire processing machine, the numerical control system processes and analyzes these data. It accurately understands the actual shape of the tile cutter 100, the specific positions of the wire slot 101 and the protrusion 102, and related size information based on the detection data. At the same time, the numerical control system compares and analyzes these actual data with the pre-set processing parameters and target positions, determines the displacement and path of the drill bit in the X, Y, Z axis directions, to ensure that the drill bit can accurately reach the drilling position at the protrusion 102 of the tile cutter 100.
[0044] 4. Drilling processing stage
[0045] After data processing and analysis, the numerical control system controls the drill bit action of the vertical numerical control drilling machine according to the results obtained. It accurately controls the displacement of the drill bit in the X, Y, Z axis directions, so that the drill bit moves accurately to the predetermined drilling position at the protrusion 102 of the tile cutter 100 according to the planned path. After reaching the position, the drill bit starts working and performs drilling operation at the protrusion 102 of the tile cutter 100, thus completing the processing of the tile cutter's wire hole.
[0046] In summary, the tile cutter wire hole processing machine realizes stable clamping of the tile cutter 100 through the clamping unit 300, obtains accurate detection data by using the 3D line laser profiler 200, processes and analyzes the data by means of the numerical control system, and finally controls the vertical numerical control drilling machine to complete the drilling processing. The components work cooperatively to realize high-precision processing of the tile cutter wire hole.
[0047] In another preferred embodiment, the 3D line laser profiler 200 comprises two laser emission modules. One of the laser emission modules emits a light sheet at an inclined angle towards the tile cutter 100, which can cover the part near the edge of the wire groove 101, accurately obtain the side profile of the wire groove 101 and the data at the junction with the protrusion 102, and the other laser emission module emits a light sheet vertically downward, which is perpendicular to the top of the protrusion 102 and is used for accurately measuring the top profile and height information of the protrusion 102. The two laser emission modules cooperate with each other to provide comprehensive and high-precision detection data for the numerical control system. This embodiment optimizes the 3D line laser profiler 200 by adopting two laser emission modules. One emits a light sheet at an inclined angle, and the other emits a light sheet vertically downward. Due to the complex shape of the wire groove 101 and the protrusion 102 of the tile cutter 100, it is difficult to obtain the required data comprehensively by a single angle laser. The inclined light sheet covers the part near the edge of the wire groove 101, which can accurately obtain the side profile of the wire groove 101 and the data at the junction with the protrusion 102; the vertical light sheet irradiates the top of the protrusion 102, which can accurately measure the top profile and height information of the protrusion 102. The two modules cooperate with each other to provide more comprehensive and high-precision detection data for the numerical control system, which helps to improve the accuracy of the drilling position.
[0048] In another preferred embodiment, a plurality of clamping units 300 are arranged in a circumferential array on the disc 500 driven by the motor 400 to rotate intermittently, and each clamping unit 300 comprises a support block 301 fixed near the edge of the disc 500, and the upper surface of the support block 301 has an arc-shaped surface matched with the tile cutter 100;
[0049] If the center of the disc 500 is taken as the reference, the clockwise side of the support block 301 is embedded with a positioning straight bar 302 for abutting and limiting the axial straight edge 105 of the tile cutter 100; and the side of the support block 301 close to the center of the disc 500 is embedded with a positioning circular pin 303 for abutting and limiting the radial straight edge 104 of the tile cutter 100;
[0050] The support block 301 is fixed on the disc 500 near the center of the disc 500, and a hinge seat 304 is arranged on the disc 500. A pressure rod 305 is hinged on the hinge seat 304, and the inner end of the pressure rod 305 is connected with a guide rod 306. A circular groove 501 is arranged on the disc 500 corresponding to the guide rod 306. A first spring 307 is sleeved on the guide rod 306, and one end of the first spring 307 is in elastic abutment with the guide rod 306, and the other end is in elastic abutment with the bottom of the circular groove 501. The outer end of the pressure rod 305 is fixedly connected with a pressure head 317. Under the action of the elasticity of the first spring 307, the pressure head 317 continuously presses on the tile cutter 100. A plurality of clamping units 300 are arranged in a circular array on the disc 500 driven to rotate intermittently by the motor 400. This arrangement can realize batch clamping and processing of the tile cutter 100. The motor 400 drives the disc 500 to rotate intermittently, and each clamping unit 300 can be moved to the processing position in turn, thereby improving the processing efficiency.
[0051] The upper surface of the support block 301 of each clamping unit 300 has an arc surface matched with the tile cutter 100, which can better fit the tile cutter 100 and provide stable support. The positioning straight bar 302 and the positioning round pin 303 are respectively in abutment with the axial straight edge 105 and the radial straight edge 104 of the tile cutter 100, so as to ensure the accurate position of the tile cutter 100 on the clamping unit 300.
[0052] The pressure rod 305 hinged on the hinge seat 304 is in continuous abutment with the tile cutter 100 under the action of the elasticity of the first spring 307 through the cooperation of the guide rod 306 and the first spring 307, so as to ensure that the tile cutter 100 is stable during processing.
[0053] In another preferred embodiment, a drill bit avoiding hole 308 is arranged on the support block 301 corresponding to the protrusion 102. When the drill bit of the vertical numerical control drilling machine drills a hole at the protrusion 102 of the tile cutter 100, the drill bit avoiding hole 308 can avoid interference between the drill bit and the support block 301, ensure smooth drilling operation, and also protect the support block 301 from being damaged by the drill bit.
[0054] In another preferred embodiment, a fixing seat 309 is fixed on the disc 500 opposite to the positioning straight bar 302, the fixing seat 309 is slidingly matched with a slide bar 310 capable of linearly horizontally displacing the positioning straight bar 302, one end of the slide bar 310 is fixedly connected with a push plate 311, the other end of the slide bar 310 is fixedly connected with a stop head 312, a second spring 313 is sleeved on the slide bar 310 between the fixing seat 309 and the stop head 312, under the elastic force of the second spring 313, the push plate 311 is not in contact with the tile cutter 100; a positioning air cylinder 600 is fixed on the rack of the processing machine and outside the disc 500, when the positioning air cylinder 600 is extended, the cylinder rod thereof can abut against the stop head 312 of the clamping unit 300 parked nearby, push the push plate 311 to make the tile cutter 100 accurately abut against the positioning straight bar 302 and the positioning round pin 303, so as to realize accurate positioning. The slide bar 310 on the fixing seat 309 is connected with the push plate 311, the second spring 313 is sleeved on the slide bar 310, and under the elastic force of the second spring 313, the push plate 311 is not in contact with the tile cutter 100. In this way, under the normal state, the push plate 311 will not generate unnecessary pressure on the tile cutter 100, and the clamping position is avoided to be affected. When the positioning air cylinder 600 is extended, the cylinder rod abuts against the stop head 312, pushes the push plate 311 to make the tile cutter 100 accurately abut against the positioning straight bar 302 and the positioning round pin 303, so as to realize accurate positioning. The positioning air cylinder 600 can accurately control the action of the push plate 311 as needed, and ensures that the tile cutter 100 can reach the accurate position every time.
[0055] In another preferred embodiment, a push plate avoiding groove 314 is formed in the supporting block 301 corresponding to the push plate 311. When the push plate 311 moves under the pushing of the positioning air cylinder 600, the push plate avoiding groove 314 provides space for the push plate 311, avoids the push plate 311 from interfering with the supporting block 301, and ensures that the push plate 311 can smoothly push the tile cutter 100 to be positioned.
[0056] In another preferred embodiment, when the push plate 311 moves under the pushing of the positioning air cylinder 600, the free end thereof abuts against the inclined surface 106 on the inner side of the line containing groove 101, so that the tile cutter 100 has a tendency to displace towards the positioning straight bar 302 and the positioning round pin 303. Due to the existence of the inclined surface 106, the force applied by the push plate 311 makes the tile cutter 100 have a tendency to displace towards the positioning straight bar 302 and the positioning round pin 303, and the accuracy and stability of the positioning of the tile cutter 100 are further improved.
[0057] In another preferred embodiment, a limiting pin 322 is fixed on the slide rod 310 near the push plate 311 to prevent the slide rod 310 from coming out of the fixed seat 309. The limiting pin 322 can prevent the slide rod 310 from coming out of the fixed seat 309 during sliding, ensuring the stability and reliability of the positioning structure of the push plate 311, and avoiding positioning failure caused by the slide rod 310 coming out.
[0058] In another preferred embodiment, an unloading mechanism 700 is further included for loosening the tile cutter 100, which works when the disc 500 is intermittently rotated to the unloading position. The unloading mechanism 700 includes an unloading base 701 arranged at the center of the disc 500 and not intermittently rotated with the disc 500, an unloading cylinder 702 fixed on the unloading base 701, a horizontal plate 703 extending upward from the unloading base 701 to the unloading position, a vertical plate 704 hinged to the horizontal plate 703, a cylinder rod of the unloading cylinder 702 hinged to the upper end of the vertical plate 704, a middle part of a U-shaped fork plate 705 fixed to the lower end of the vertical plate 704, and ball heads 706 fixed to the end parts of the U-shaped fork plate 705, respectively. The two ball heads 706 can respectively press against the inner ends of the pressing rods 305 of the adjacent two clamping units 300, so that the pressing heads 317 are separated from the tile cutter 100, facilitating unloading. When the disc 500 is intermittently rotated to the unloading position, the unloading cylinder 702 acts, and the U-shaped fork plate 705 is driven to move by the vertical plate 704, so that the ball heads 706 press against the inner ends of the pressing rods 305 of the adjacent two clamping units 300, respectively, and the pressing heads 317 are separated from the tile cutter 100, facilitating the unloading operation of the tile cutter 100, and improving the automation degree and efficiency of the machining.
[0059] In another preferred embodiment, each of the support blocks 301 is fixed on the disc 500 by the following structure: an L-shaped fixing block 318 is fixed on the disc 500 corresponding to the clockwise side of each of the support blocks 301 by a screw, the L-shaped fixing block 318 is provided with a convex point 319 towards the side surface of the support block 301, and the convex point 319 abuts against the support block 301; a strip-shaped fixing block 320 is fixed on the disc 500 corresponding to the counterclockwise side of the support block 301 by a screw, the strip-shaped fixing block 320 is screwed with an axial horizontal fastening screw 321, and the rod end of the fastening screw 321 abuts against the counterclockwise side of the support block 301, thereby stably fixing the support block 301 on the disc 500. This fixing structure can stably fix the support block 301 on the disc 500, ensure the stability of the clamping unit 300 during the rotation and machining of the disc 500, avoid the displacement or shaking of the support block 301, and thereby ensure the clamping and machining precision of the tile cutter 100.
[0060] The above description is only the preferred embodiment of the present application, and is not intended to limit the present application. Any modification, equivalent replacement, improvement, etc. made within the spirit and principle of the present application shall be included in the protection scope of the present application.
Claims
1. A tile cutter wire passing hole processing machine comprising a vertical numerical control drilling machine, a clamping unit (300) for clamping a tile cutter (100), and a numerical control system connected with the vertical numerical control drilling machine, characterized in that, Also included is a 3D line laser profiler (200) installed on the processing machine and connected to the numerical control system; The clamping unit (300) can stably clamp the tile cutter (100), so that the line containing groove (101) and the protrusion (102) of the tile cutter (100) are in a position convenient for detection and processing; the 3D line laser profiler (200) projects a laser sheet to the surface of the line containing groove (101) and the protrusion (102) of the clamped tile cutter (100) to obtain detection data; The numerical control system receives the detection data of the 3D line laser profiler (200), and after processing, controls the drill bit of the vertical numerical control drilling machine to displace in the X, Y, Z axis direction, and drill at the protrusion (102) of the tile cutter (100).
2. The tiling cutter wire passing hole processing machine according to claim 1, characterized in that, The 3D line laser profiler (200) includes two laser emission modules, one of which emits a light sheet at an inclined angle to the tile cutter (100), which can cover the part of the line containing groove (101) near the edge, accurately obtain the side profile of the line containing groove (101) and the data of the junction with the protrusion (102); the other laser emission module emits a light sheet vertically downward, which is perpendicular to the top of the protrusion (102) and is used to accurately measure the top profile and height information of the protrusion (102), and the two laser emission modules cooperate with each other to provide comprehensive and high-precision detection data for the numerical control system.
3. The tiling cutter wire passing hole processing machine according to claim 1, characterized in that, A plurality of clamping units (300) are arranged in a circular array on a disc (500) driven by a motor (400) to rotate intermittently, each clamping unit (300) includes a support block (301) fixed near the edge of the disc (500), and the upper surface of the support block (301) has an arc surface matched with the tile cutter (100); If the center of the disc (500) is taken as a reference, a positioning straight bar (302) for abutting and limiting the axial straight edge (105) of the tile cutter (100) is embedded on the clockwise side of the support block (301); a positioning round pin (303) for abutting and limiting the radial straight edge (104) of the tile cutter (100) is embedded on the side of the support block (301) close to the center of the disc (500); A hinge seat (304) is fixed on the disc (500) on the side of the support block (301) close to the center of the disc (500), a pressing rod (305) is hinged on the hinge seat (304), an inner end of the pressing rod (305) is connected to a guide rod (306), a circular groove (501) is formed in the disc (500) corresponding to the guide rod (306), a first spring (307) is sleeved on the guide rod (306), one end of the first spring (307) is in elastic abutment with the guide rod (306), and the other end is in elastic abutment with the groove bottom of the circular groove (501), and an outer end of the pressing rod (305) is fixedly connected to a pressing head (317), which is continuously pressed on the tile cutter (100) under the action of the elasticity of the first spring (307).
4. The tiling cutter wire passing hole processing machine according to claim 3, characterized in that, A drill avoiding hole (308) is formed in the support block (301) corresponding to the protrusion (102).
5. The tiling cutter wire passing hole processing machine according to claim 3, characterized in that, A fixing seat (309) is fixed on the disc (500) opposite to the positioning straight bar (302), the fixing seat (309) is in sliding fit with a slide rod (310) capable of linear horizontal displacement to the positioning straight bar (302), one end of the slide rod (310) is fixedly connected with a push plate (311) facing the positioning straight bar (302), the other end of the slide rod (310) is fixedly connected with a stop head (312), a second spring (313) is sleeved on the slide rod (310) between the stop head (312) and the fixing seat (309), under the action of the elasticity of the second spring (313), the push plate (311) is not in contact with the tile cutter (100); a positioning air cylinder (600) is fixed on the rack of the processing machine and outside the disc (500), when the positioning air cylinder (600) is in extension, the cylinder rod thereof can abut against the stop head (312) of the clamping unit (300) parked nearby, the push plate (311) is pushed to make the tile cutter (100) abut against the positioning straight bar (302) and the positioning round pin (303) accurately, so that accurate positioning is realized.
6. A tiling blade wire hole processing machine according to claim 5, characterized in that, A push plate avoiding groove (314) is formed in the supporting block (301) corresponding to the push plate (311).
7. The tiling cutter wire passing hole processing machine according to claim 5, characterized in that, Under the pushing of the positioning air cylinder (600), the free end of the push plate (311) abuts into the inclined surface (106) on the inner side of the line containing groove (101), so that the tile cutter (100) has a tendency to displace to the positioning straight bar (302) and the positioning round pin (303).
8. The tiling cutter wire passing hole processing machine according to claim 5, characterized in that, A limiting pin (322) is fixed on the slide rod (310) close to the push plate (311) to prevent the slide rod (310) from coming out of the fixing seat (309).
9. The blade hole processing machine according to claim 3, wherein Further comprising a feeding and discharging mechanism (700) for loosening the tile cutter (100), the feeding and discharging mechanism (700) works when the disc (500) is intermittently rotated to a feeding and discharging position, the feeding and discharging mechanism (700) comprises a feeding and discharging base (701) arranged at the center of the disc (500) and not intermittently rotated with the disc (500), a feeding and discharging air cylinder (702) is fixed on the feeding and discharging base (701), the feeding and discharging base (701) extends upward to form a horizontal plate (703) to the feeding and discharging position, the horizontal plate (703) is hingedly connected with a vertical plate (704), the upper end of the vertical plate (704) is hingedly connected with the cylinder rod of the feeding and discharging air cylinder (702), the lower end of the vertical plate (704) is fixedly connected with the middle part of a U-shaped fork plate (705), the end parts of the U-shaped fork plate (705) are respectively fixedly connected with ball heads (706), the two ball heads (706) can respectively abut against the inner ends of the pressing rods (305) of two adjacent clamping units (300) to make the pressing heads (317) separate from the tile cutter (100) to facilitate feeding and discharging.
10. The tiling cutter wire passing hole processing machine according to claim 3, characterized in that, Each of the support blocks (301) is fixed on the disc (500) by the following structure: an L-shaped fixing block (318) is fixed on the clockwise side of each of the support blocks (301) on the disc (500) by a screw, the L-shaped fixing block (318) is provided with a convex point (319) on the side facing the support block (301), and the convex point (319) abuts against the support block (301); a strip-shaped fixing block (320) is fixed on the counterclockwise side of the support block (301) on the disc (500) by a screw, the strip-shaped fixing block (320) is screwed with an axial and horizontal fastening screw (321), and the rod end of the fastening screw (321) abuts against the counterclockwise side of the support block (301), so as to stably fix the support block (301) on the disc (500).