Novel stretching detection device for game machine data line material production

Abstract

The invention discloses a novel stretching detection device for game machine data line material production, and relates to the technical field of data line material stretching detection.The novel stretching detection device comprises a workbench, a left moving plate and a right moving plate are slidably connected to the two sides of the top of the workbench respectively, and a left fixing assembly is arranged on the side, close to the right moving plate, of the left moving plate; a right fixing assembly is arranged on the side, close to the left moving plate, of the right moving plate, the left fixing assembly is used for fixing one end of the data line, and the right fixing assembly is used for conducting stretching detection on the other end of the data line. According to the novel stretching detection device for game machine data line material production, the two ends of the data line are controlled to rotate reversely, namely, one end of the data line rotates forwards, and the other end of the data line rotates reversely, so that stretching detection can be conducted on the data line under the torsion condition, it can be ensured that the data line can bear various complex stress conditions in actual use, and the data line is not damaged. And the fault occurrence rate caused by torsion and stretching is reduced, so that the service life of the data line is prolonged.

Description

Technical Field

[0001] The present invention relates to the technical field of stretching detection of data cable materials, and specifically to a stretching detection device for the production of a new type of game console data cable materials. Background Technique

[0002] At present, with the booming development of the game console industry, the game console data cable, as a key component connecting the game console and various peripheral devices, its performance and reliability are directly related to the smoothness of the game experience and the stability of the device. With the continuous improvement of game graphics, the increasing richness of game content, and the increasing requirements of players for the accuracy of game operations, the complex stress conditions such as data transmission volume, tensile force, and torsional force that the game console data cable needs to withstand are becoming more and more severe. Therefore, accurate and comprehensive performance detection of the game console data cable materials to ensure that they can meet the actual use requirements has become a crucial link in the production process of the game console data cable materials;

[0003] At present, in the field of game console data cable materials production, the stretching detection device is one of the main tools for evaluating the performance of the data cable. Most of the existing stretching detection devices adopt a single stretching detection method, that is, applying tensile force to both ends of the data cable through a stretching mechanism to measure the mechanical property parameters of the data cable in a pure stretching state, such as tensile strength, elongation at break, etc. However, this single stretching detection method has obvious limitations;

[0004] In actual use, the game console data cable often undergoes a combined action of torsion and stretching. For example, when a player operates a game controller, the data cable will be unconsciously twisted; at the same time, during the game process, the movement and shaking of the data cable will also cause it to bear a certain tensile force. This complex stress condition will lead to potential problems such as stress concentration inside the data cable, wire breakage, and insulation layer damage, which will in turn affect the service life and performance stability of the data cable. However, the existing single stretching detection device cannot simulate this combined working condition of torsion and stretching, resulting in a large difference between the detection result and the actual performance of the data cable, and it is impossible to accurately evaluate the comprehensive performance and reliability of the data cable;

[0005] In addition, during the detection process of existing stretching detection devices, there are also deficiencies in the fixing and straightening methods of data lines. Before detection, the data lines are usually directly fixed at both ends of the detection device, lacking effective straightening treatment. Since the data lines may be bent, wrinkled or twisted during production, transportation and storage, when an external force is applied by the detection device, these bent parts are prone to relative sliding with the contact parts of the detection device. This sliding will not only cause inaccurate detection data, but may also damage the fixing structure at the end of the data line, and even lead to malfunctions of the detection device. At the same time, when the bent data line is stressed, stress concentration will occur at the bent part, resulting in the stress at this part being much greater than that of other parts, causing the data line to break or be damaged prematurely, affecting the stability of the detection process and the integrity of the data line. Summary of the Invention

[0006] Aiming at the deficiencies of the prior art, the present invention provides a stretching detection device for the production of a new type of game console data line material, which solves the technical problems mentioned in the background art.

[0007] To achieve the above objectives, the present invention is realized through the following technical solutions: A stretching detection device for the production of a new type of game console data line material, including a workbench. On both sides of the top of the workbench, a left moving plate and a right moving plate are respectively slidably connected. On the side of the left moving plate close to the right moving plate, a left fixing component is provided. On the side of the right moving plate close to the left moving plate, a right fixing component is provided. The left fixing component is used to fix one end of the data line, and the right fixing component is used to perform stretching detection on the other end of the data line;

[0008] A material groove for subsequent fixing of the data line is provided on the surface of the right moving plate;

[0009] A moving groove is provided on the surface of the workbench. A bidirectional lead screw is rotatably connected in the moving groove, and the left moving plate, the right moving plate and the bidirectional lead screw are threadedly connected. One end of the bidirectional lead screw is provided with a driving motor;

[0010] A first fixing frame and a second fixing frame are respectively fixedly connected to both sides of the surface of the workbench. A first rack is fixedly installed on the left side of the first fixing frame, and a second rack is fixedly installed on the right side of the second fixing frame.

[0011] As a further preference of this technical solution, the left fixing component includes a first rotating disk rotatably installed on the left moving plate. On the surface of the first rotating disk close to the right moving plate, a first vertical groove is arranged in a circumferential array. A clamping plate is slidably connected in the first vertical groove. A plurality of first convex blocks are arranged at the inner end of the clamping plate. A lead screw is threadedly connected to the clamping plate, and the lead screw is rotatably installed in the first vertical groove. The inner end of the lead screw is fixedly connected with a second bevel gear. A bidirectional motor is fixedly installed on the outside of the first rotating disk. The output end of the bidirectional motor is fixedly connected with a first bevel gear, and the first bevel gear is meshed with the second bevel gear.

[0012] As a further preference of this technical solution, a first gear ring is fixedly connected to the outer wall of the first rotating disk. One side of the surface of the left moving plate is rotatably connected to a first rotating rod. Both ends of the first rotating rod are fixedly connected to a third bevel gear and a first gear. The third bevel gear is meshed and connected with the first gear, and the first gear is in fitting engagement with the first rack.

[0013] As a further preference of this technical solution, the right fixing assembly includes a second rotating disk rotatably installed on the right moving plate. A plurality of second vertical grooves are circumferentially arranged on one side of the second rotating disk close to the left moving plate. A first air cylinder is fixedly installed on the inner wall of the second vertical groove. The output end of the first air cylinder is fixedly connected to a movable block. One side of the movable block is rotatably connected to a swing rod, and an adjusting wheel is arranged at the inner end of the swing rod.

[0014] As a further preference of this technical solution, an arc-shaped rod is fixedly connected to the bottom of the movable block, and the swing rod is slidably installed on the arc-shaped rod. A first damping spring sleeving on the arc-shaped rod is arranged on one side of the swing rod.

[0015] As a further preference of this technical solution, a moving frame is slidably connected to the outer wall of the swing rod. A clamping frame is fixedly connected to the bottom of the moving frame. A plurality of second convex blocks are arranged at the bottom of the clamping frame. A second air cylinder is fixedly installed on the movable block. The output end of the second air cylinder is fixedly connected to a T-shaped rod adapted to the moving frame.

[0016] As a further preference of this technical solution, positioning plates are fixedly connected to both sides of the outer wall of the swing rod. Slide rods slidably connected to the moving frame are fixedly connected to the positioning plates. A second damping spring sleeving on the slide rod is arranged between the connecting block and the positioning plate.

[0017] As a further preference of this technical solution, a second gear ring is fixedly connected to the outer wall of the second rotating disk. A second rotating rod is rotatably connected to the surface of the right moving plate. A fourth bevel gear and a second gear are respectively fixedly connected to both ends of the second rotating rod. The fourth bevel gear is meshed with the second gear ring, and the second gear is in fitting engagement with the second rack. Moreover, the first gear, the first rack, the second rack and the second gear are arranged in a staggered manner.

[0018] Compared with the prior art, the following beneficial effects are achieved:

[0019] Through the misalignment setting of the first gear, the first rack, the second rack, and the second gear, the rotation directions at both ends of the data cable are opposite, that is, one end of the data cable rotates forward and the other end rotates backward. Thus, it is possible to perform tensile detection on the data cable under torsional conditions. This detection method can simulate such complex stress conditions, making the detection results closer to the performance of the data cable in actual use, thereby more accurately evaluating the performance and reliability of the data cable. By simulating the torsional and tensile working conditions in actual use, potential problems that may occur during the normal use of the data cable, such as internal wire breakage and insulation layer damage, can be more effectively discovered, providing a basis for the improvement and optimization of the data cable; single tensile detection can only evaluate the performance of the data cable in a pure tensile state, while torsional tensile detection can comprehensively consider the torsional strength, tensile strength of the data cable, and the interaction between the two, more comprehensively evaluating the comprehensive performance of the data cable. During torsional tensile, the weak links of the data cable are more likely to be exposed. For example, the connection parts of the data cable, parts with a smaller bending radius, etc. may be more prone to failure under torsional tensile. Through this detection method, these weak links can be accurately detected, providing more accurate information for the quality control of the data cable; by performing detection under torsional tensile conditions, it can be ensured that the data cable can withstand various complex stress conditions in actual use, reducing the failure rate caused by torsion and tension, thereby extending the service life of the data cable.

[0020] When driving the right fixed component to move outward by controlling the right moving plate, the data cable is straightened by using the adjusting wheel. During the torsional tension test, the data cable needs to bear a large tensile force and torsional force. If there are bends, wrinkles or twists on the surface of the data cable, when an external force is applied by the testing equipment (such as the right moving plate driving the right fixed component to move), the contact part between the data cable and the testing device is prone to relative sliding. This sliding will not only lead to inaccurate test data, but may also damage the fixed structure at the end of the data cable, and even cause a malfunction of the testing equipment. Through the straightening process, the surface of the data cable becomes smooth and flat, and the contact with the testing device is closer, greatly reducing the possibility of sliding, thus ensuring that the testing process can proceed stably and smoothly. When a bent data cable is subjected to an external force, stress concentration will occur at the bent part. Stress concentration will make the stress at this part much greater than that of other parts, resulting in premature fracture or damage of the data cable. While for a straight data cable under force, the stress can be evenly distributed across the entire cross-section of the data cable, avoiding the problem of excessive local stress and further improving the stability of the testing process; in the torsional tension test, uniform stress is the basis for obtaining accurate test data. After the data cable is straightened, its internal structure is more regular, and each part of the material can work together to jointly bear the external force. When the testing equipment applies a tensile force or torsional force, the data cable can deform uniformly, enabling the testing equipment to accurately measure the mechanical property parameters of the data cable, such as tensile strength and torsional stiffness. In contrast, when a bent data cable is under force, the deformation degrees of different parts are different, which will cause deviations in the test data and cannot truly reflect the actual performance of the data cable; during the testing process of a bent data cable, due to uneven stress, local stress is prone to be too high, resulting in a certain degree of damage to the data cable during the testing process. This secondary damage will not only affect the accuracy of the test data, but may also cause the data cable to malfunction prematurely in subsequent use. While a straight data cable can be stressed evenly, reducing the phenomenon of excessive local stress and the possibility of secondary damage to the data cable during the testing process, ensuring the integrity of the data cable. BRIEF DESCRIPTION OF THE DRAWINGS

[0021] Figure 1 is a schematic diagram of the overall structure of the present invention;

[0022] Figure 2 is a top view of the structures of the left moving plate, right moving plate, first fixing frame, first toothed rod, first gear, second fixing frame, second toothed rod, and second gear in the present invention;

[0023] Figure 3 is a schematic diagram of the structures of the left moving plate and left fixed component in the present invention;

[0024] Figure 4 is a schematic cross-sectional view of the structure of the first rotating disk in the present invention;

[0025] Figure 5 This is a schematic structural diagram of the right moving plate and the right fixing component in the present invention;

[0026] Figure 6 This is a schematic cross-sectional view of the structure of the second rotating disk in the present invention;

[0027] Figure 7 This is a schematic structural diagram of the movable block, the swing rod, the adjusting wheel, the clamping frame, and the second convex block in the present invention;

[0028] Figure 8 This is a schematic structural diagram of the second cylinder, the T-shaped rod, the moving frame, the clamping frame, and the second convex block in the present invention.

[0029] In the figure: 1, workbench; 2, left moving plate; 3, right moving plate; 4, left fixing component; 5, right fixing component; 11, moving groove; 12, bidirectional lead screw; 13, driving motor; 14, first fixing frame; 15, first toothed rod; 16, second fixing frame; 17, second toothed rod; 31, material groove; 41, first rotating disk; 42, first vertical groove; 43, bidirectional motor; 44, first bevel gear; 45, lead screw; 46, second bevel gear; 47, clamping plate; 48, first convex block; 49, first toothed ring; 410, first rotating rod; 411, third bevel gear; 412, first gear; 51, second rotating disk; 52, second vertical groove; 53, first cylinder; 54, movable block; 56, swing rod; 57, adjusting wheel; 58, arc-shaped rod; 59, first damping spring; 510, second cylinder; 511, T-shaped rod; 512, moving frame; 513, clamping frame; 514, second convex block; 515, positioning plate; 516, sliding rod; 517, second damping spring; 518, connecting block; 519, second toothed ring; 520, second rotating rod; 521, fourth bevel gear; 522, second gear. Detailed implementation manners

[0030] Next, the technical solutions in the embodiments of the present invention will be clearly and completely described in conjunction with the accompanying drawings of the specification. Obviously, the described embodiments are only a part of the embodiments of the present invention, rather than all the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by those of ordinary skill in the art without making creative efforts shall fall within the protection scope of the present invention.

[0031] Embodiment 1: In combination with Figures 1 - 8As shown in the figure, the present invention provides a technical solution: a stretching detection device for the production of a novel game console data cable material. The device includes a workbench 1. On both sides of the top of the workbench 1, a left moving plate 2 and a right moving plate 3 are respectively slidably connected. On the side of the left moving plate 2 close to the right moving plate 3, a left fixing component 4 is provided, while on the side of the right moving plate 3 close to the left moving plate 2, a right fixing component 5 is provided. The function of the left fixing component 4 is to fix one end of the data cable, and the right fixing component 5 is used to perform stretching detection on the other end of the data cable;

[0032] A material groove 31 for subsequent fixing of the data cable is formed on the surface of the right moving plate 3, so as to facilitate the fixing and management of the data cable during the detection process;

[0033] A moving groove 11 is formed on the surface of the workbench 1. A bidirectional lead screw 12 is rotatably connected in the moving groove 11. The left moving plate 2, the right moving plate 3 and the bidirectional lead screw 12 are threadedly connected, so that the bidirectional lead screw 12 can drive the moving plates to move synchronously. One end of the bidirectional lead screw 12 is provided with a driving motor 13 for controlling the rotation of the bidirectional lead screw 12;

[0034] On both sides of the surface of the workbench 1, a first fixing frame 14 and a second fixing frame 16 are respectively fixedly connected. On the left side of the first fixing frame 14, a first toothed rod 15 is fixedly installed, and on the right side of the second fixing frame 16, a second toothed rod 17 is fixedly installed;

[0035] In the embodiment of the present invention, by turning on the driving motor 13, the bidirectional lead screw 12 can be driven to rotate synchronously. The rotation of the bidirectional lead screw 12 drives the left moving plate 2 and the right moving plate 3 to move synchronously towards the inside or synchronously towards the outside. When stretching detection of the data cable is required, first pass one end of the data cable through the material groove 31 and move it to one side of the left moving plate 2, and then use the left fixing component 4 to clamp and fix the end of the data cable. Then, control the left moving plate 2 and the right moving plate 3 to move towards both sides, and use the right fixing component 5 to straighten the twisted data cable. After the data cable is straightened, then use the right fixing component 5 to clamp and fix the other end of the data cable, thus completing the entire stretching detection process of the data cable.

[0036] Embodiment Two: Combined with Figure 3 、 Figure 4 、 Figure 5 、 Figure 6 、 Figure 7 、 Figure 8As shown, on the basis of the first embodiment, the left fixing assembly 4 is composed of a first rotating disk 41 rotatably mounted on the left moving plate 2. On the side of the surface of the first rotating disk 41 close to the right moving plate 3, a plurality of first vertical grooves 42 are arranged in a circumferential array. In these first vertical grooves 42, a clamping plate 47 is slidably connected. A plurality of first protrusions 48 are arranged at the inner end of the clamping plate 47, and these protrusions are used to clamp the data cable. A lead screw 45 is connected to the clamping plate 47 by a thread, and the lead screw 45 is rotatably mounted in the first vertical groove 42. The inner end of the lead screw 45 is fixedly connected to a second bevel gear 46. In addition, a bidirectional motor 43 is fixedly mounted on the outer side of the first rotating disk 41, and its output end is fixedly connected to a first bevel gear 44. The first bevel gear 44 is meshed with the second bevel gear 46. When it is necessary to clamp and fix one end of the data cable, by turning on the bidirectional motor 43, the first bevel gear 44 can be driven to rotate synchronously. The rotation of the first bevel gear 44 will drive the second bevel gear 46 to rotate synchronously, and then the second bevel gear 46 will drive the lead screw 45 to rotate synchronously. The rotation of the lead screw 45 will drive the clamping plate 47 to move towards the outer wall side of the data cable, and the data cable is clamped and fixed by the first protrusions 48. After the tensile test is completed, the bidirectional motor 43 is turned on again to drive the first bevel gear 44 to rotate in the reverse direction, so as to control the reverse movement of the clamping plate 47 to release the data cable;

[0037] A first toothed ring 49 is fixedly connected to the outer wall of the first rotating disk 41. One side of the surface of the left moving plate 2 is rotatably connected to a first rotating rod 410. Third bevel gears 411 and first gears 412 are respectively fixedly connected to both ends of the first rotating rod 410. The third bevel gear 411 is meshed with the first gear 412, and the first gear 412 is in meshing fit with the first toothed bar 15. When the first gear 412 moves to be meshed with the first toothed bar 15, under the action of the first toothed bar 15, the first gear 412 can be driven to rotate. The rotation of the first gear 412 can drive the first rotating rod 410 and the first gear 412 to rotate synchronously. Due to the meshing of the third bevel gear 411 and the first gear 412, the rotation of the first gear 412 will also drive the third bevel gear 411 to rotate synchronously. The rotation of the third bevel gear 411 further drives the first toothed ring 49 to rotate synchronously, and the rotation of the first toothed ring 49 will drive the first rotating disk 41 to rotate synchronously. In this way, the rotating first rotating disk 41 cooperates with the clamping plate 47 and the first protrusions 48 to drive the data cable to generate a torsional phenomenon. In this way, the data cable can be subjected to a tensile test under the condition of torsion to ensure the performance and reliability of the data cable in actual use;

[0038] The right fixing component 5 includes a second rotating disk 51 rotatably mounted on the right moving plate 3. A second vertical groove 52 is circumferentially arranged on one side of the second rotating disk 51 close to the left moving plate 2. A first air cylinder 53 is fixedly mounted on the inner wall of the second vertical groove 52. The output end of the first air cylinder 53 is fixedly connected with a movable block 54. One side of the movable block 54 is rotatably connected with a swing rod 56. An adjusting wheel 57 is arranged at the inner end of the swing rod 56. A curved rod 58 is fixedly connected to the bottom of the movable block 54. The swing rod 56 is slidably mounted on the curved rod 58. A first damping spring 59 sleeving on the curved rod 58 is arranged on one side of the swing rod 56. When it is necessary to perform a stretching test on the data cable, one end of the data cable is passed through the material groove 31 and moved to one side of the left moving plate 2, and the left fixing component 4 is used to clamp and fix the end of the data cable. When the data cable passes through the material groove 31, under the elastic force of the first damping spring 59, the swing rod 56 and the adjusting wheel 57 can be pushed to rotate towards the data cable side, so that the adjusting wheel 57 is in close contact with the surface of the data cable. Then, when the right moving plate 3 is controlled to drive the right fixing component 5 to move outward, the data cable is straightened by using the adjusting wheel 57. In this process, the movement track and force of the swing rod 56 can be finely adjusted through the adjusting wheel 57 to achieve precise control of the data cable, ensuring the stability and accuracy of the data cable during the detection process;

[0039] A moving frame 512 is slidably connected to the outer wall of the swing rod 56. A clamping frame 513 is fixedly connected to the bottom of the moving frame 512. A plurality of second convex blocks 514 are arranged at the bottom of the clamping frame 513. A second air cylinder 510 is fixedly mounted on the movable block 54. The output end of the second air cylinder 510 is fixedly connected with a T-shaped rod 511 adapted to the moving frame 512. Positioning plates 515 are fixedly connected to both sides of the outer wall of the swing rod 56. Slide rods 516 slidably connected to the moving frame 512 are fixedly connected to the positioning plates 515. A second damping spring 517 sleeving on the slide rod 516 is arranged between the connecting block 518 and the positioning plate 515. After the data cable is straightened, that is, when the adjusting wheel 57 moves to the end position of the other end of the data cable, the second air cylinder 510 is started to drive the T-shaped rod 511 to move downward, so that the T-shaped rod 511 pushes the moving frame 512 to move downward. At the same time, the moving frame 512 drives the swing rod 56 and the adjusting wheel 57 to rotate, so that the swing rod 56 and the adjusting wheel 57 are in a vertical state, and the moving frame 512 drives the clamping frame 513 and the adjusting wheel 57 to move downward and compress the second damping spring 517, so that the second convex blocks 514 clamp the data cable. Then, the left moving plate 2 and the right moving plate 3 are controlled to move to both sides. In this way, the stability and accuracy of the data cable during the detection process can be ensured, and at the same time, the detection efficiency and precision can also be improved;

[0040] In the structure of the present invention, a second gear ring 519 is fixedly connected to the outer wall of the second rotating disk 51. A second rotating rod 520 is rotatably connected to the surface of the right moving plate 3. Fourth bevel gears 521 and second gears 522 are respectively fixedly connected to both ends of the second rotating rod 520. The fourth bevel gear 521 meshes with the second gear ring 519, and they can smoothly transmit rotational power between them. The second gear 522 meshes and fits with the second toothed rod 17, ensuring precise cooperation between the gears. In the design, the first gear 412, the first toothed rod 15, the second toothed rod 17, and the second gear 522 are arranged in a staggered manner. This design makes the transmission between the gears more efficient. When the second gear 522 moves to the position where it meshes with the second toothed rod 17, the acting force of the second toothed rod 17 can effectively drive the second gear 522 to rotate. As the second gear 522 rotates, it can further drive the second rotating rod 520 and the fourth bevel gear 521 to rotate synchronously. During the rotation of the fourth bevel gear 521, it will drive the second gear ring 519 meshing with it to rotate synchronously, and the rotation of the second gear ring 519 will drive the second rotating disk 51 to rotate synchronously. In this way, the rotating second rotating disk 51 can cooperate with the clamping frame 513 and the second convex block 514 to apply a torsional effect on the data cable. Due to the staggered arrangement of the first gear 412, the first toothed rod 15, the second toothed rod 17, and the second gear 522, the rotation directions of both ends of the data cable are opposite, that is, one end rotates forward while the other end rotates backward. This design enables the data cable to be stretched and detected while being twisted, thereby simulating the complex stress conditions that the data cable may encounter during actual use;

[0041] In practical applications, data cables often suffer from the combined effects of torsion and tension. For example, the plug may be twisted when connecting devices, or the data cable may be twisted during winding or movement. The detection method provided by the present invention can simulate such complex stress conditions, making the detection results closer to the performance of the data cable in actual use. Therefore, it can more accurately evaluate the performance and reliability of the data cable. By simulating the torsion and tension conditions in actual use, potential problems that may occur during the normal use of the data cable, such as internal wire breakage and insulation layer damage, can be more effectively detected. This information provides an important basis for the improvement and optimization of the data cable. The traditional single-tension detection can only evaluate the performance of the data cable in a pure tension state, while the torsion-tension detection of the present invention can comprehensively consider the torsion strength, tension strength of the data cable, and the interaction between the two, so as to more comprehensively evaluate the comprehensive performance of the data cable. During the torsion-tension process, the weak links of the data cable are more likely to be exposed. For example, the connection parts of the data cable and the parts with a smaller bending radius are more likely to fail under torsion-tension. Through this detection method, these weak links can be accurately detected, providing more accurate information for the quality control of the data cable. By detecting under torsion-tension conditions, it can be ensured that the data cable can withstand various complex stress conditions in actual use, reduce the failure rate caused by torsion and tension, thereby extending the service life of the data cable and ensuring its good performance and reliability in various environments.

[0042] In an embodiment of the present invention, when performing the tensile detection of the data cable, first, one end of the data cable needs to be passed through the material groove 31 and moved towards one side of the left moving plate 2. During this process, the left fixing component 4 is used to clamp and fix the end of the data cable. When the data cable passes through the material groove 31, it will be subjected to the elastic force of the first damping spring 59. This force can push the swing rod 56 and the adjusting wheel 57 to rotate towards the data cable side. The adjusting wheel 57 will be in contact with the surface of the data cable, thus providing a smooth surface for the data cable. Subsequently, the right moving plate 3 is controlled to drive the right fixing component 5 to move outward, and the adjusting wheel 57 is used to straighten the data cable. During the torsional tensile detection process, the data cable needs to withstand large tensile and torsional forces. If there are bends, wrinkles, or twists on the surface of the data cable, when the detection device applies an external force, the contact part between the data cable and the detection device is prone to relative sliding. This sliding will not only cause inaccurate detection data but also may damage the fixing structure at the end of the data cable and even cause a malfunction of the detection device. Through the straightening process, the surface of the data cable becomes smooth and flat, and the contact with the detection device is closer, greatly reducing the possibility of sliding, thereby ensuring that the detection process can proceed stably and smoothly. When a bent data cable is subjected to an external force, a stress concentration phenomenon will occur at the bent part. The stress concentration will make the stress at this part much greater than that at other parts, resulting in premature fracture or damage of the data cable. However, when a straight data cable is stressed, the stress can be evenly distributed across the entire cross-section of the data cable, avoiding the problem of excessive local stress and further improving the stability of the detection process. In torsional tensile detection, uniform stress is the basis for obtaining accurate detection data. After the data cable is straightened, its internal structure is more regular, and each part of the material can work together to withstand the external force. When the detection device applies a tensile or torsional force, the data cable can deform uniformly, enabling the detection device to accurately measure the mechanical property parameters of the data cable, such as tensile strength and torsional stiffness. In contrast, when a bent data cable is stressed, the deformation degrees of different parts are different, resulting in deviation of the detection data and unable to truly reflect the actual performance of the data cable. During the detection process of a bent data cable, due to uneven stress, there is an easy occurrence of excessive local stress, causing the data cable to be damaged to a certain extent during the detection process. This secondary damage will not only affect the accuracy of the detection data but also may cause the data cable to malfunction prematurely in subsequent use. However, a straight data cable can be stressed evenly, reducing the phenomenon of excessive local stress and the possibility of secondary damage to the data cable during the detection process, ensuring the integrity of the data cable;

[0043] After the data line is straightened, the adjusting wheel 57 moves to the other end of the data line, and the second cylinder 510 is turned on to drive the T-shaped rod 511 to move downward, so that the T-shaped rod 511 pushes the moving frame 512 to move downward. At the same time, the moving frame 512 drives the swing rod 56 and the adjusting wheel 57 to rotate, so that the swing rod 56 and the adjusting wheel 57 are in a vertical state. The moving frame 512 also drives the clamping frame 513 and the adjusting wheel 57 to move downward, and compresses the second damping spring 513. 17, so that the second protrusion 514 clamps the data line. After the adjusting wheel 57 moves to the position of the other end of the data line, the second cylinder 510 drives the T-shaped rod 511 to push the moving frame 512 to move downward, which can accurately control the clamping position, ensure that the second protrusion 514 accurately acts on the data line, so that the data line is stably clamped to avoid loosening or slipping during the subsequent stretching test. The moving frame 512 drives the clamping frame 513 to move downward and compress the second damping spring 517, which is beneficial to the The elastic force of the second damping spring 517 is used to make the second protrusion 514 apply a suitable clamping force to the data line, so that the data line will not slip due to too small a clamping force, nor will the data line be damaged due to too large a clamping force. The swing rod 56 and the adjusting wheel 57 are in a vertical state driven by the movable frame 512, so that the data line can be evenly stressed during the stretching process, and uneven stress on the data line due to the tilt of the swing rod 56 and the adjusting wheel 57 can be avoided, thereby affecting the accuracy of the stretching test result. When the left movable plate 2 and the right movable plate 3 move to both sides to perform a stretching test on the data line, since the data line has been stably clamped and is in a horizontal state, a linear stretching of the data line can be achieved, ensuring that the test result can truly reflect the stretching performance of the data line. When the second protrusion 514 clamps the data line, since the clamping force is uniform and adjustable, it can reduce the damage to the surface of the data line, ensuring that the appearance and performance of the data line after the test are not greatly affected, and then the left movable plate 2 and the right movable plate 3 are controlled to move to both sides to perform a stretching test on the data line.

[0044] Working principle of the new tensile testing device for the production of game console data cable materials:

[0045] Step 1: When the data line needs to be stretched and tested, one end of the data line is passed through the material slot 31 and moved to one side of the left movable plate 2, and the first bevel gear 44 is driven to rotate synchronously by turning on the bidirectional motor 43, so that the first bevel gear 44 drives the second bevel gear 46 to rotate synchronously, and the second bevel gear 46 drives the screw rod 45 to rotate synchronously, so that the screw rod 45 drives the clamping plate 47 to move toward the outer wall of the data line, and the clamping plate 47 clamps and fixes the data line through the first protrusion 48;

[0046] Step 2: The left fixing component 4 clamps and fixes the end of the data cable. When the data cable passes through the material groove 31, under the elastic force of the first damping spring 59, it can push the swing rod 56 and the adjusting wheel 57 to rotate towards the data cable side, so that the adjusting wheel 57 fits and contacts the surface of the data cable;

[0047] Step 3: By starting the driving motor 13 to drive the bidirectional lead screw 12 to rotate synchronously, the bidirectional lead screw 12 drives the left moving plate 2 and the right moving plate 3 to move outward synchronously, and the adjusting wheel 57 is used to straighten the data cable;

[0048] And when the first gear 412 moves to mesh with the first rack 15, under the action of the first rack 15, it can drive the first gear 412 to rotate, so that the first gear 412 can drive the first rotating rod 410 and the first gear 412 to rotate synchronously, so that the first gear 412 drives the meshing first tooth ring 49 to rotate synchronously, so that the first tooth ring 49 drives the first rotating disk 41 to rotate synchronously, and further makes the rotating first rotating disk 41 cooperate with the clamping plate 47 and the first convex block 48 to drive the data cable to generate a torsional phenomenon. When the second gear 522 moves to mesh with the second rack 17, under the action of the second rack 17, it can drive the second gear 522 to rotate, so that the second gear 522 can drive the second rotating rod 520 and the fourth bevel gear 521 to rotate synchronously, so that the fourth bevel gear 521 drives the meshing second tooth ring 519 to rotate synchronously, so that the second tooth ring 519 drives the second rotating disk 51 to rotate synchronously, and further makes the rotating second rotating disk 51 cooperate with the clamping frame 513 and the second convex block 514 to drive the data cable to generate a torsional phenomenon. And due to the misaligned setting of the first gear 412, the first rack 15 and the second rack 17, the second gear 522, the rotation directions of both ends of the data cable are opposite, that is, one end of the data cable rotates forward and the other end rotates backward, so that the data cable can be stretched and detected under the condition of torsion.

[0049] Although the embodiments of the present invention have been shown and described, those of ordinary skill in the art can understand that various changes, modifications, substitutions and variations can be made to these embodiments without departing from the principle and spirit of the present invention. The scope of the present invention is defined by the appended claims and their equivalents.

Claims

1. A stretching detection device for the production of a data cable material for a new type of game console, comprising a workbench (1), characterized in that: On both sides of the top of the workbench (1), a left moving plate (2) and a right moving plate (3) are respectively slidably connected. On the side of the left moving plate (2) close to the right moving plate (3), a left fixing component (4) is arranged. On the side of the right moving plate (3) close to the left moving plate (2), a right fixing component (5) is arranged. The left fixing component (4) is used to fix one end of the data cable, and the right fixing component (5) is used to perform tensile detection on the other end of the data cable. A material groove (31) for subsequent fixing of the data cable is formed on the surface of the right moving plate (3). A moving groove (11) is formed on the surface of the workbench (1). A bidirectional lead screw (12) is rotatably connected in the moving groove (11). The left moving plate (2), the right moving plate (3) are threadedly connected to the bidirectional lead screw (12). One end of the bidirectional lead screw (12) is provided with a driving motor (13). On both sides of the surface of the workbench (1), a first fixing frame (14) and a second fixing frame (16) are respectively fixedly connected. On the left side of the first fixing frame (14), a first rack (15) is fixedly installed. On the right side of the second fixing frame (16), a second rack (17) is fixedly installed.

2. The stretching detection device for the production of a new type of game console data cable material according to claim 1, characterized in that: The left fixing component (4) includes a first rotating disk (41) rotatably installed on the left moving plate (2). On the surface of the first rotating disk (41) close to the right moving plate (3), a first vertical groove (42) is formed in a circumferential array. A clamping plate (47) is slidably connected in the first vertical groove (42). A number of first protrusions (48) are arranged at the inner end of the clamping plate (47). A lead screw (45) is threadedly connected to the clamping plate (47). The lead screw (45) is rotatably installed in the first vertical groove (42). The inner end of the lead screw (45) is fixedly connected with a second bevel gear (46). A bidirectional motor (43) is fixedly installed on the outside of the first rotating disk (41). The output end of the bidirectional motor (43) is fixedly connected with a first bevel gear (44). The first bevel gear (44) is meshed and connected with the second bevel gear (46).

3. A stretching detection device for the production of a data cable material for a new game console according to claim 2, characterized in that: A first toothed ring (49) is fixedly connected to the outer wall of the first rotating disk (41). On one side of the surface of the left moving plate (2), a first rotating rod (410) is rotatably connected. Third bevel gears (411) and first gears (412) are fixedly connected to both ends of the first rotating rod (410). The third bevel gears (411) are meshed and connected with the first gears (412). The first gears (412) are meshed and matched with the first rack (15).

4. A stretching detection device for the production of a data cable material for a new game console according to claim 3, characterized in that: The right fixing component (5) includes a second rotating disk (51) rotatably installed on the right moving plate (3). On the side of the second rotating disk (51) close to the left moving plate (2), a second vertical groove (52) is formed in a circumferential array. A first air cylinder (53) is fixedly installed on the inner wall of the second vertical groove (52). The output end of the first air cylinder (53) is fixedly connected with a movable block (54). One side of the movable block (54) is rotatably connected with a swing rod (56). An adjusting wheel (57) is arranged at the inner end of the swing rod (56).

5. A stretching detection device for the production of a new game console data cable material according to claim 4, characterized in that: An arc-shaped rod (58) is fixedly connected to the bottom of the movable block (54). The swing rod (56) is slidably installed on the arc-shaped rod (58). A first damping spring (59) sleeved on the arc-shaped rod (58) is arranged on one side of the swing rod (56).

6. The stretching detection device for the production of a new type of game console data cable material according to claim 5, characterized in that: A moving frame (512) is slidably connected to the outer wall of the swing rod (56). A clamping frame (513) is fixedly connected to the bottom of the moving frame (512). A plurality of second bumps (514) are provided at the bottom of the clamping frame (513). A second cylinder (510) is fixedly installed on the movable block (54). The output end of the second cylinder (510) is fixedly connected to a T-shaped rod (511) that is adapted to the moving frame (512).

7. A stretching detection device for the production of a data cable material for a new type of gaming machine according to claim 6, characterized in that: Positioning plates (515) are fixedly connected to both sides of the outer wall of the swing rod (56). Slide rods (516) that are slidably connected to the moving frame (512) are fixedly connected to the positioning plates (515). A second damping spring (517) sleeved on the slide rod (516) is provided between the connecting block (518) and the positioning plate (515).

8. A stretching detection device for the production of a data cable material for a new gaming machine according to claim 7, characterized in that: A second gear ring (519) is fixedly connected to the outer wall of the second rotating disk (51). A second rotating rod (520) is rotatably connected to the surface of the right moving plate (3). A fourth bevel gear (521) and a second gear (522) are respectively fixedly connected to both ends of the second rotating rod (520). The fourth bevel gear (521) meshes with the second gear ring (519). The second gear (522) meshes and mates with the second toothed rod (17). Moreover, the first gear (412), the first toothed rod (15) and the second toothed rod (17), the second gear (522) are arranged in a staggered manner.

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