An artificial intelligence laboratory with intelligent manufacturing real-time data analysis function

Abstract

This invention relates to the field of artificial intelligence laboratories, specifically an artificial intelligence laboratory with real-time data analysis capabilities for intelligent manufacturing. The laboratory includes a laboratory platform fixedly installed at the lower end of its inner cavity, and a motor-driven detection ring at the upper end. The detection ring has a probe telescopically mounted on one side of the inner cavity. A processing table is located at the upper end of the experimental platform. The advantages are: by using a telescopic rod to lower the pull rope, the clamping blocks are clamped and secured; the four sets of clamping blocks in a circular array move simultaneously towards the center; when the clamping blocks reach their limit positions, the center of the circular workpiece coincides with the origin, thus achieving convenient and rapid positioning; the workpiece is secured by a fastening pressure rod on the clamping block. Rotational pressing can easily cause positional displacement; the squeezing of the rotating rod provides a vertically downward clamping force, preventing workpiece displacement and further improving the workpiece installation accuracy.

Description

Technical Field

[0001] This invention relates to the field of artificial intelligence laboratories, specifically to an artificial intelligence laboratory with real-time data analysis capabilities for intelligent manufacturing. Background Technology

[0002] In the process of machining workpieces in an artificial intelligence laboratory, scanning technology is usually used to scan the dimensions of the workpieces and then analyze the accuracy of the data in real time, so as to facilitate the adjustment of machining precision.

[0003] However, in the actual data acquisition process, it is necessary to position the workpiece. Intelligent data scanning and acquisition requires origin positioning, especially for circular workpieces. For common rectangular workpieces, the corner points can be aligned with the origin to form fixed points. However, the origin of circular workpieces is mostly the center of the bottom surface, which is difficult to locate. At the same time, it makes the center of the circle coincide with the standard origin of the workpiece stage, making the operation even more difficult.

[0004] To address this issue, an artificial intelligence laboratory with real-time data analysis capabilities for intelligent manufacturing is provided to solve the problem of origin positioning in intelligent laboratory data analysis. Summary of the Invention

[0005] The purpose of this invention is to provide an artificial intelligence laboratory with real-time data analysis capabilities for intelligent manufacturing, in order to solve the problems mentioned in the background art.

[0006] To achieve the above objectives, the present invention provides the following technical solution:

[0007] An artificial intelligence laboratory with real-time data analysis capabilities for intelligent manufacturing includes a laboratory. An experimental platform is fixedly installed at the lower end of the laboratory's interior cavity. A motor-driven detection ring is installed at the upper end of the laboratory. A probe is telescopically mounted on one side of the detection ring within the laboratory's interior cavity. A processing table is installed at the upper end of the experimental platform. Four sets of upper and lower crossbeams are arranged in a circular array at the upper and lower ends of the processing table, respectively. An electrically telescopic rod-driven hanging plate is installed in the lower interior cavity of the processing table. A clamping block is slidably mounted on the upper crossbeam. A T-shaped rod is vertically slidably inserted into the clamping block. The lower end of the clamping block is connected to the hanging plate via a pull rope. A pressure plate is connected to the lower end of the T-shaped rod. An intermediate plate is pressed against the pressure plate at the lower end of the hanging plate. A pair of symmetrical rotating rods are arranged between the pressure plate and the intermediate plate. A spring is installed at the lower end of the pressure plate. The front end of each rotating rod is threadedly mounted on a screw-hole block, which is slidably mounted at the front end of the laboratory.

[0008] Preferably, the outer wall of the detection ring is provided with a toothed ring, and a side frame is provided at the upper end of the laboratory at the same height as the detection ring. The motor is fixedly installed on the side frame, and the upper end of the motor is rotatably connected to a drive gear that meshes with the toothed ring.

[0009] Preferably, the detection ring is located at the upper end of the processing table, and a telescopically mounted probe is provided on the inner side of the detection ring, facing the upper surface of the processing table.

[0010] Preferably, the upper and lower crossbeams are staggered, and the outer ends of both the upper and lower crossbeams are fixed to the inner wall of the laboratory. The upper end face of the upper crossbeam is provided with a first open long groove, and the end of the first open long groove is provided with an installation groove. The clamping block is slidably installed in the first open long groove along the installation groove.

[0011] Preferably, the upper end of the clamping block is provided with a through hole extending vertically, the T-shaped rod is vertically slidably inserted into the through hole, and a threaded fastening pressure rod is vertically provided on the side of the T-shaped rod near the processing table. The lower end of the T-shaped rod is installed on the pressure plate by a limiting nut.

[0012] Preferably, the lower end cavity of the processing table is provided with four sets of guide wheels arranged in a circumferential array. One end of the pull rope is tied to the clamping block, and the other end of the pull rope extends along the guide wheels to the hanging plate. The hanging plate is provided with mounting holes arranged in a circumferential array, each corresponding to a pull rope. The four sets of pull ropes arranged in a circumferential array are of the same length.

[0013] Preferably, the pressure plate is installed in the middle of the inner cavity of the experimental platform, and the two ends of the pressure plate are provided with a second open long slot located directly below the first open long slot. The lower end of the T-shaped rod is slidably installed in the second open long slot, and the spring is pressed between the pressure plate and the lower inner wall of the inner cavity of the experimental platform.

[0014] Preferably, a lifting rod is provided at the lower end of the hanging plate, and an intermediate plate is provided on the upper outer wall of the pressure plate at the middle section of the lifting rod. A pair of upper slots and lower slots are provided symmetrically between the intermediate plate and the pressure plate. The upper slots and lower slots are symmetrical vertically, and the rotating rod is inserted between the upper slots and lower slots.

[0015] Preferably, a guide rail is provided at the front end of the laboratory corresponding to the rotating rod, and a screw hole block is vertically slidably installed in the guide rail. The rotating rod is composed of a stud, a connecting rod, and a convex rod. The convex rod is pressed between the upper slot and the lower slot, and the stud is threadedly rotatably installed on the screw hole block.

[0016] Compared with the prior art, the beneficial effects of the present invention are:

[0017] 1. This invention uses a telescopic rod to drive the pull rope down, thereby achieving the purpose of clamping and securing the clamping blocks. The four sets of clamping blocks in the circumferential array move towards the center of the circle simultaneously. When the clamping blocks move to the limit position, the center of the circular workpiece coincides with the origin, thus achieving convenient and fast positioning.

[0018] 2. The present invention achieves the fastening of the workpiece by means of the fastening pressure bar on the clamping block. Rotation and pressing can easily cause positional displacement. By squeezing through the rotating rod, a vertically downward fastening force is provided to prevent the workpiece from shifting and further improve the installation accuracy of the workpiece.

[0019] 3. This invention enables convenient adjustment of the processing detection position by setting up a motor-driven detection ring and a telescopically mounted probe. The probe collects processing data, which is then analyzed by an intelligent system to provide real-time feedback on processing accuracy and facilitate adjustment. Attached Figure Description

[0020] Figure 1 This is the front view of the present invention;

[0021] Figure 2 This is a schematic diagram of the structure of the present invention;

[0022] Figure 3 This is a schematic diagram of the three-dimensional structure of the rotating rod of the present invention;

[0023] Figure 4 This is a schematic diagram of the experimental platform structure of the present invention;

[0024] Figure 5 This is a top view of the processing table of the present invention;

[0025] Figure 6 This is a schematic diagram of the three-dimensional structure of the hanging plate of the present invention;

[0026] Figure 7 This is a three-dimensional structural diagram of the connection between the hanging plate and the pressure plate of the present invention;

[0027] Figure 8 This is a three-dimensional structural diagram of the pressure plate of the present invention.

[0028] In the diagram: 1. Laboratory; 2. Experimental bench; 3. Machining table; 4. Detection ring; 5. Side frame; 6. Upper crossbeam; 7. Lower crossbeam; 8. Clamping block; 9. Through hole; 10. Fastening rod; 11. Pressure plate; 12. T-shaped rod; 13. Probe; 14. Motor; 15. Drive gear; 16. First opening long slot; 17. Pull rope; 18. Guide wheel; 19. Electric telescopic rod; 20. Lifting rod; 21. Spring; 22. Limit nut; 23. Guide rail; 24. Gear ring; 25. Screw hole block; 26. Rotating rod; 27. Stud; 28. Protruding rod; 29. ​​Connecting rod; 30. Mounting slot; 31. Hanging plate; 32. Mounting hole; 33. Intermediate plate; 34. Upper slot; 35. Second opening long slot; 36. Lower slot. Detailed Implementation

[0029] The technical solutions of the embodiments of the present invention will be clearly and completely described below with reference to the accompanying drawings. Obviously, the described embodiments are only some embodiments of the present invention, and not all embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those skilled in the art without creative effort are within the scope of protection of the present invention.

[0030] Please see Figures 1 to 8 The present invention provides a technical solution:

[0031] An artificial intelligence laboratory with real-time data analysis capabilities for intelligent manufacturing includes a laboratory 1. A probe ring 4 driven by a motor 14 is mounted on the upper end of the laboratory 1. A probe 13 is telescopically mounted on one side of the probe ring 4 within the inner cavity of the laboratory 1. A gear ring 24 is mounted on the outer wall of the probe ring 4. A side frame 5 is mounted at the same height as the probe ring 4 on the upper end of the laboratory 1. The motor 14 is fixedly mounted on the side frame 5. A drive gear 15 meshing with the gear ring 24 is rotatably connected to the upper end of the motor 14. The probe ring 4 is located on the upper end of a processing table 3. The telescopically mounted probe 13 is mounted on the inner side of the probe ring 4, facing the upper surface of the processing table 3. The rotation of the drive gear 15 by the motor 14 drives the probe ring 4 to rotate through the meshing of the drive gear 15 and the gear ring 24, achieving the purpose of adjusting the circumferential position of the probe ring 4 and facilitating the detection of processing data at different processing positions.

[0032] Laboratory 1 has an experimental platform 2 fixedly installed at the lower end of its inner cavity. The upper end of the experimental platform 2 is equipped with a processing table 3. The upper and lower ends of the processing table 3 are respectively equipped with four sets of upper crossbeams 6 and lower crossbeams 7 arranged in a circular array. The upper crossbeams 6 and lower crossbeams 7 are staggered. The outer ends of the upper crossbeams 6 and lower crossbeams 7 are fixed to the inner wall of laboratory 1.

[0033] A clamping block 8 is slidably mounted on the upper crossbeam 6. A first open long groove 16 is provided on the upper end face of the upper crossbeam 6. An installation groove 30 is provided at the end of the first open long groove 16. The clamping block 8 is slidably mounted in the first open long groove 16 along the installation groove 30. The installation groove 30 is used to realize the sliding installation of the clamping block 8 in the first open long groove 16, thereby achieving the clamping and fastening of the workpiece by the lateral sliding of the clamping block 8.

[0034] The lower end of the processing table 3 is equipped with a hanging plate 31 driven by an electric telescopic rod 19. The lower end of the clamping block 8 is connected to the hanging plate 31 by a pull rope 17. The lower end of the processing table 3 is equipped with four sets of guide wheels 18 arranged in a circular array. One end of the pull rope 17 is tied to the clamping block 8, and the other end of the pull rope 17 extends along the guide wheel 18 to the hanging plate 31. The hanging plate 31 is equipped with mounting holes 32 arranged in a circular array, corresponding one-to-one with the pull rope 17. The four sets of pull ropes 17 are of the same length. The electric telescopic rod 19 drives the hanging plate 31 to descend, so that the pull rope 17 drives the four sets of clamping blocks 8 arranged in a circular array to slide towards the origin. When the clamping block 8 moves to its limit position, the center of the circular workpiece coincides with the origin, thereby achieving convenient and fast positioning.

[0035] A T-shaped rod 12 is vertically slidably inserted into the clamping block 8. The upper end of the clamping block 8 is provided with a through hole 9 that runs vertically through the block. The T-shaped rod 12 is vertically slidably inserted into the through hole 9. A threaded fastening rod 10 is vertically installed on the side of the T-shaped rod 12 near the processing table 3. The lower end of the T-shaped rod 12 is installed on the pressure plate 11 through a limit nut 22. By rotating the thread of the fastening rod 10, the lower end of the fastening rod 10 is made to fit against the upper end face of the workpiece.

[0036] The lower end of the T-shaped rod 12 is connected to a pressure plate 11, which is installed in the middle of the inner cavity of the experimental platform 2. The two ends of the pressure plate 11 are provided with a second open long groove 35 located directly below the first open long groove 16. The lower end of the T-shaped rod 12 is slidably installed in the second open long groove 35. The second open long groove 35 is used to drive the T-shaped rod 12 to slide laterally on the pressure plate 11 during the lateral movement of the clamping block 8.

[0037] A spring 21 is vertically installed at the lower end of the pressure plate 11. The spring 21 is pressed between the pressure plate 11 and the lower inner wall of the inner cavity of the experimental platform 2, and the spring 21 is used to buffer the downward pressure force.

[0038] The lower end of the hanging plate 31 is provided with an intermediate plate 33 that is pressed onto the pressure plate 11. A pair of symmetrical rotating rods 26 are provided between the pressure plate 11 and the intermediate plate 33. The lower end of the hanging plate 31 is provided with a lifting rod 20. The middle section of the lifting rod 20 is located on the upper outer wall of the pressure plate 11 and is provided with an intermediate plate 33. A pair of symmetrical upper slots 34 and lower slots 36 are provided between the intermediate plate 33 and the pressure plate 11. The upper slots 34 and lower slots 36 are symmetrical. The rotating rod 26 is inserted between the upper slots 34 and lower slots 36, and the upper slots 34 and lower slots 36 are used to fasten and clamp the rotating rod 26.

[0039] The front end of the rotating rod 26 is threadedly mounted on the screw hole block 25. The screw hole block 25 is slidably mounted on the front end of the laboratory 1. A guide rail 23 is provided at the front end of the laboratory 1 corresponding to the rotating rod 26. The screw hole block 25 is vertically slidably mounted in the guide rail 23. The rotating rod 26 is composed of a stud 27, a connecting rod 29, and a protruding rod 28. The protruding rod 28 is pressed between the upper slot 34 and the lower slot 36. The stud 27 is threadedly mounted on the screw hole block 25. When the clamping block 8 is tightened under the pull of the pull rope 17, the stud 27 on the screw hole block 25... The rotation causes the protruding rod 28 to press against the upper slot 34 and the lower slot 36. Since the upper end is limited by the electric telescopic rod 19, the pressing of the protruding rod 28 can only act on the pressure plate 11. During the rotation and pressing process, the spring 21 is further compressed, and the pressure plate 11 descends. Through the pressure plate 11 pressing against the limit nut 22, the T-shaped rod 12 descends, which in turn causes the fastening rod 10 to descend, thereby achieving fastening of the upper end face of the workpiece. This avoids the workpiece from rotating and shifting due to the downward pressure of the fastening rod 10, and improves the accuracy of the workpiece installation and positioning.

[0040] Working principle: First, the motor 14 rotates the drive gear 15, which in turn drives the detection ring 4 to rotate through the meshing of the drive gear 15 and the gear ring 24, thereby achieving the purpose of adjusting the circumferential position of the detection ring 4, which facilitates the detection of processing data at different processing positions.

[0041] During processing and installation, the clamping block 8 is slidably installed in the first open long slot 16 using the mounting slot 30. The workpiece is clamped and secured by the lateral sliding of the clamping block 8. The hanging plate 31 is lowered by the electric telescopic rod 19, which causes the pull rope 17 to slide the four sets of clamping blocks 8 distributed in a circumferential array toward the origin. When the clamping block 8 moves to its limit position, the center of the circular workpiece coincides with the origin, thus achieving convenient and fast positioning.

[0042] The second open slot 35 is used to drive the T-shaped rod 12 to slide laterally on the pressure plate 11 during the lateral movement of the clamping block 8. The spring 21 is used to buffer the downward pressure force. The upper slot 34 and lower slot 36 are used to fasten and clamp the rotating rod 26. The threaded rotation of the fastening pressure rod 10 makes the lower end of the fastening pressure rod 10 fit against the upper end face of the workpiece. When the clamping block 8 is fastened under the pull of the pull rope 17, the rotation of the stud 27 on the threaded hole block 25 makes the protruding rod 28 align with the upper end face. The compression of slot 34 and lower slot 36 is limited by the electric telescopic rod 19 at the upper end, so that the compression of the protruding rod 28 can only act on the pressure plate 11. During the rotation compression process, the spring 21 is further compressed, the pressure plate 11 descends, and the compression of the limit nut 22 by the pressure plate 11 realizes the descent of the T-shaped rod 12, which in turn causes the fastening rod 10 to descend, thereby achieving the fastening of the upper end face of the workpiece. This avoids the workpiece from rotating and shifting due to the downward pressure of the fastening rod 10, and improves the accuracy of workpiece installation and positioning.

[0043] Although embodiments of the invention have been shown and described, it will be understood by those skilled in the art that various changes, modifications, substitutions and alterations can be made to these embodiments without departing from the principles and spirit of the invention, the scope of which is defined by the appended claims and their equivalents.

Claims

1. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing, comprising a laboratory (1), characterized in that: The laboratory (1) has an experimental platform (2) fixedly installed at the lower end of its inner cavity. The laboratory (1) has a detection ring (4) driven by a motor (14) at its upper end. The detection ring (4) has a probe (13) telescopically mounted on one side of the inner cavity of the laboratory (1). The experimental platform (2) has a processing table (3) at its upper end. The processing table (3) has four sets of upper crossbeams (6) and lower crossbeams (7) arranged in a circular array at its upper and lower ends, respectively. The processing table (3) has a hanging plate (31) driven by an electric telescopic rod (19) in its lower inner cavity. A clamping block (8) is slidably mounted on the upper crossbeam (6). A T-shaped rod (12) is vertically slidably inserted into the block (8). The lower end of the clamping block (8) is connected to the hanging plate (31) via a pull rope (17). The lower end of the T-shaped rod (12) is connected to a pressure plate (11). The lower end of the hanging plate (31) is provided with an intermediate plate (33) pressed onto the pressure plate (11). A pair of symmetrical rotating rods (26) are provided between the pressure plate (11) and the intermediate plate (33). A spring (21) is provided at the lower end of the pressure plate (11). The front end of the rotating rod (26) is threadedly mounted on a screw hole block (25). The screw hole block (25) is slidably mounted on the front end of the laboratory (1). The lower end cavity of the processing table (3) is provided with four sets of guide wheels (18) arranged in a circular array. One end of the pull rope (17) is tied to the clamping block (8), and the other end of the pull rope (17) extends along the guide wheel (18) to the hanging plate (31). The hanging plate (31) is provided with mounting holes (32) arranged in a circular array that correspond one-to-one with the pull rope (17). The four sets of pull ropes (17) arranged in a circular array have the same length.

2. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing as described in claim 1, characterized in that: The outer wall of the detection ring (4) is provided with a toothed ring (24). The upper end of the laboratory (1) is provided with a side frame (5) at the same height as the detection ring (4). The motor (14) is fixedly installed on the side frame (5). The upper end of the motor (14) is rotatably connected to the drive gear (15) of the meshing toothed ring (24).

3. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing as described in claim 2, characterized in that: The detection ring (4) is located at the upper end of the processing table (3), and a telescopic probe (13) is installed inside the detection ring (4) facing the upper surface of the processing table (3).

4. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing as described in claim 1, characterized in that: The upper crossbeam (6) and the lower crossbeam (7) are staggered. The outer ends of the upper crossbeam (6) and the lower crossbeam (7) are fixed to the inner wall of the laboratory (1). The upper end face of the upper crossbeam (6) is provided with a first open long groove (16). The end of the first open long groove (16) is provided with an installation groove (30). The clamping block (8) is slidably installed in the first open long groove (16) along the installation groove (30).

5. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing as described in claim 4, characterized in that: The upper end of the clamping block (8) is provided with a through hole (9) that runs vertically through the top and bottom. The T-shaped rod (12) is vertically slidably inserted into the through hole (9). A threaded fastening rod (10) is vertically provided on the side of the T-shaped rod (12) that is close to the processing table (3). The lower end of the T-shaped rod (12) is installed on the pressure plate (11) through a limiting nut (22).

6. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing as described in claim 5, characterized in that: The pressure plate (11) is installed in the middle of the inner cavity of the experimental platform (2). The two ends of the pressure plate (11) are provided with a second open long groove (35) located directly below the first open long groove (16). The lower end of the T-shaped rod (12) is slidably installed in the second open long groove (35). A spring (21) is vertically provided at the lower end of the pressure plate (11). The spring (21) is pressed between the pressure plate (11) and the lower inner wall of the inner cavity of the experimental platform (2).

7. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing as described in claim 1, characterized in that: The lower end of the hanging plate (31) is provided with a lifting rod (20). The middle section of the lifting rod (20) is located on the upper outer wall of the pressure plate (11) and is provided with a middle plate (33). A pair of upper slots (34) and lower slots (36) are provided between the middle plate (33) and the pressure plate (11) and are symmetrical. The upper slots (34) and lower slots (36) are symmetrical. The rotating rod (26) is inserted between the upper slots (34) and the lower slots (36).

8. An artificial intelligence laboratory with real-time data analysis function for intelligent manufacturing as described in claim 1, characterized in that: The front end of the laboratory (1) is provided with a guide rail (23) corresponding to the rotating rod (26). A screw hole block (25) is vertically slidably installed in the guide rail (23). The rotating rod (26) is composed of a stud (27), a connecting rod (29) and a protruding rod (28). The protruding rod (28) is pressed between the upper slot (34) and the lower slot (36). The stud (27) is threadedly mounted on the screw hole block (25).

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