An ai data patch cord and method

Abstract

The application relates to the technical field of data switching, in particular to an AI data switching line and method. The switching line comprises a transmission line body, a protection piece is sleeved on the annular end of the transmission line body, two fixed housings are respectively arranged on the upper and lower ends of the transmission line body, two chips are arranged, a plurality of pins are welded at equal distances on the front ends of the two chips, the inward ends of the pins are connected with the outward ends of the corresponding fixed housings, the inward ends of the pins extend into the corresponding fixed housings and are connected with the corresponding conductors in the transmission line body, vertical parts of an auxiliary plate are arranged on the left and right ends of the two fixed housings, the front end of the horizontal part of the auxiliary plate is attached to the rear end of the corresponding chip, and the rear ends of two pressing pieces are respectively attached to the front ends of a plurality of corresponding pins. The design realizes mechanical positioning between the chip and the plurality of pins, effectively reduces the dislocation probability between the chip and the pins, and effectively guarantees the data switching effect and quality.

Description

Technical Field

[0001] This invention relates to an AI data transfer cable and method, belonging to the field of data transfer technology. Background Technology

[0002] Artificial intelligence (AI) is a technological system that relies on computer programs to simulate human intelligent behaviors such as learning, reasoning, perception, and decision-making. It can replace or assist humans in completing various intelligent tasks and is now widely used in various intelligent terminal devices. In the signal transmission architecture of intelligent devices, AI data adapter cables are typically used to build the data transmission link between the intelligent terminal and the carrier device, and supporting software is used to realize the real-time conversion and visualization of AI data.

[0003] Existing AI data conversion cables mainly consist of a transmission line, two sets of chips, and several pins. The two ends of the conductor inside the transmission line are respectively connected to the pins, and the pins are fixedly connected to the chips by soldering, thereby completing the electrical connection between the chips and the transmission line.

[0004] At present, the assembly and welding process of this type of structure generally adopts the operation method of manual alignment and overlapping before welding. However, the alignment accuracy of manual overlapping is limited, which can easily cause problems such as chip and pin misalignment and overlapping misalignment, resulting in unstable welding quality and directly affecting the data transfer accuracy and overall transmission performance of the equipment. Summary of the Invention

[0005] To address the problems in the prior art, this invention provides an AI data transfer cable and method.

[0006] The technical solution adopted by this invention to solve its technical problem is: An AI data transfer cable includes: The transmission line body has a protective fitting fitted at its annular end. Two fixed housings are provided, and the two fixed housings are respectively installed at the upper and lower ends of the transmission line body. The upper and lower ends of multiple wires in the transmission line body extend into the two fixed housings respectively. The protective component is installed between the two fixed housings. Two chips are provided, arranged opposite each other, and each chip is mounted on two fixed housings facing outwards. Multiple pins are soldered at equal intervals to the front end of each chip. The inward ends of the pins are connected to the outward ends of the corresponding fixed housings, and the inward ends of the pins extend into the corresponding fixed housings and are connected to the corresponding wires in the transmission line. Four auxiliary boards are provided. The auxiliary boards are L-shaped. The vertical parts of the auxiliary boards are installed on both the left and right ends of the two fixed housings, and the two auxiliary boards on the corresponding side are arranged opposite each other. The front end of the horizontal part of the auxiliary board is attached to the rear end of the corresponding chip. Two pressing components are provided. The rear ends of the two pressing components are respectively attached to the front ends of multiple corresponding pins, and the pressing components pass through the corresponding chips and are connected to the auxiliary board.

[0007] Furthermore, the pressing component includes a pressure plate, the rear end of the pressure plate being in contact with the front ends of a plurality of corresponding pins, the front end of the chip being recessed to form two positioning slots, the positioning slots penetrating the chip, the positioning slots extending to the inner end of the chip, and the positioning slots being located outside the pins, the front end of the pressure plate being recessed to form two square slots, the square slots penetrating the pressure plate, the rear end of the square slots being connected to the front end of the corresponding positioning slots; Each of the four auxiliary plates has a buckle at the front end of its horizontal portion. The buckle passes through the positioning slot and the square slot, and the buckle head is engaged with the front end of the pressure plate. The vertical portion of the buckle is in contact with the outer inner wall of the positioning slot. Multiple limiting components are equidistantly embedded at the front end of the pressure plate, and multiple limiting components on the same side are located between two square slots on the same side. The limiting components pass through the pressure plate and are connected to the corresponding pins.

[0008] Furthermore, a cylinder is installed at the front end of the horizontal portion of each of the four auxiliary plates, and the cylinder is located in the corresponding positioning slot. The inner end of the cylinder is in contact with the inner wall of the corresponding positioning slot, and the cylinder is located inside and outside the buckle. A reinforcing plate is installed at the front end of the vertical portion of each of the four auxiliary plates, and the reinforcing plate is connected to the side end of the fixed housing.

[0009] Furthermore, the limiting component includes a straight cylinder and a guide cylinder. The straight cylinder is embedded in the front end of the pressure plate, and the front end face of the straight cylinder coincides with the front end face of the pressure plate. The guide cylinder is embedded in the rear end of the pressure plate, and the rear end face of the guide cylinder coincides with the rear end face of the pressure plate. The front end of the guide cylinder and the rear end of the straight cylinder are connected in communication. A guide plate is slidably connected inside the straight cylinder. An elastic element is installed between the front end of the guide plate and the front wall of the straight cylinder. A positioning post is provided at the middle of the rear end of the guide plate, and the positioning post penetrates the guide cylinder. The positioning post is slidably connected to the guide cylinder. The front end of the pin is recessed to form a guide groove, and the cross-section of the guide groove is a trapezoid with a wider front and narrower back. The rear wall of the guide groove is recessed to form a positioning groove. The rear end of the positioning post penetrates the guide groove and extends into the positioning groove.

[0010] Furthermore, the protective component includes two fixed cylinders and multiple annular plates. The two fixed cylinders are respectively connected and installed on the inner ends of two fixed housings, and both fixed cylinders are fitted onto the annular end of the transmission line body. The multiple annular plates are equidistantly fitted onto the annular end of the transmission line body, and the multiple annular plates are located between the two fixed cylinders. Multiple fixing rods are equidistantly installed between the inner ends of the two fixed cylinders and the two outermost annular plates, and the fixing rods are located outside the transmission line body. Multiple elastic lines are equidistantly arranged between adjacent annular plates, and the elastic lines are located outside the transmission line body.

[0011] Furthermore, multiple electrodes are equidistantly embedded in the inner rear end of the chip, and the electrodes are electrically connected to the corresponding integrated circuits on the chip. The electrodes extend to the front end of the chip and are soldered to the rear end of the corresponding pins. Wing plates are installed on both the left and right ends of the inner side of the chip, and the wing plates are integrated with the chip substrate. The front end of the wing plate is recessed to form a mounting hole, and the mounting hole penetrates the wing plate. A protective ring is provided on the inner wall of the mounting hole.

[0012] Furthermore, the front end of the pin is recessed to form a notch, and the notch extends through the pin to the outward end of the pin, and the notch is located on the outward side of the pressure plate and the front end of the corresponding electrode.

[0013] A method for using an AI data adapter cable includes the following steps: Step 1: Place the corresponding chip on the outside of the corresponding fixed housing, and attach the auxiliary plate to the rear end of the chip. The cylinder and the buckle are inserted into the limit position of the corresponding positioning through slot to position the chip. At this time, the front ends of multiple electrodes in the chip are attached to the rear ends of multiple pins respectively. Place the pressure plate on the front ends of multiple pins and attach the buckle to the corresponding square through slot. Then, use the corresponding notch to solder the electrodes and pins. Repeat the above steps to assemble both chips. The second step is to insert the two chips into the connection module in the terminal and the connection module in the carrier device, respectively, so that the two chips are electrically connected to the terminal and the carrier device, respectively. Then, through the mounting holes and screws, the two chips are fastened to the connection module in the terminal and the connection module in the carrier device, respectively. The third step involves the terminal transmitting AI data to the corresponding chip. This chip converts the AI ​​data into multi-line analog signals, which are then transmitted independently through multiple corresponding pins and multiple wires in the transmission line. The multi-line analog signals are also transmitted to another chip via multiple pins on the other side. This chip then converts the multi-line analog signals back into AI data and transmits the AI ​​data to the carrier device. The carrier device then translates and displays the AI ​​data.

[0014] The beneficial effects of this invention are: The chip is supported by two auxiliary plates, and the vertical part of the buckle and the cylinder are inserted into the extreme positions of the corresponding positioning slots, thereby positioning the chip. At this time, multiple pins on the corresponding fixed housing are located at the front end of the chip, and multiple pins are respectively attached to the front end of multiple corresponding electrodes, realizing mechanical positioning between the chip and multiple pins, effectively reducing the probability of misalignment between the chip and pins, and effectively ensuring the data transfer effect and quality. Attached Figure Description

[0015] Other features, objects, and advantages of the invention will become more apparent from the following detailed description of non-limiting embodiments with reference to the accompanying drawings: Figure 1 This is a schematic diagram of the structure of an AI data adapter cable according to the present invention; Figure 2 This is a perspective view of an AI data adapter cable according to the present invention; Figure 3 This is a perspective view of the fixed housing in an AI data adapter cable of the present invention; Figure 4 This is an assembly diagram of the chip and pins in an AI data adapter cable of the present invention; Figure 5 for Figure 4 Enlarged view of section A in the middle; Figure 6 This is a frontal perspective view of the chip in an AI data adapter cable of the present invention; Figure 7 This is a back-view perspective view of the chip in an AI data adapter cable of the present invention; Figure 8 This is a perspective view of an auxiliary board in an AI data transfer cable according to the present invention; Figure 9 This is a perspective view of the pressure plate in an AI data adapter cable of the present invention; Figure 10 This is a cross-sectional view of the pressure plate in an AI data transfer cable of the present invention.

[0016] In the picture: 1. Transmission line body; 11. Ring plate; 12. Elastic wire; 13. Fixing rod; 2. Fixed housing; 21. Fixed cylinder; 3. Chip; 31. Mounting hole; 32. Electrode; 33. Positioning slot; 4. Pressure plate; 41. Straight cylinder; 42. Square through groove; 43. Elastic device; 44. Guide plate; 45. Guide cylinder; 46. Positioning post. 5. Pin, 51. Guide groove, 52. Positioning groove, 53. Notch groove; 6. Auxiliary plate; 61. Cylinder; 62. Buckle; 63. Reinforcing plate. Detailed Implementation

[0017] To make the technical means, creative features, objectives and effects of this invention easier to understand, the invention will be further described below in conjunction with specific embodiments.

[0018] Example 1: As Figures 1-9As shown, an AI data adapter cable is provided, including: a transmission line body 1, with two fixed housings 2 installed at both the upper and lower ends of the transmission line body 1, and multiple wires in the transmission line body 1 extending into the two fixed housings 2 at their upper and lower ends respectively. The fixed housings 2 provide shielding protection for the exposed conductors in the transmission line body 1 and provide mounting carriers for components such as pins 5. Fixed cylinders 21 are connected and installed on the inner ends of the two fixed housings 2, and the two fixed cylinders 21 are fitted onto the annular end of the transmission line body 1. The fixed cylinders 21 allow for loosening between the transmission line body 1 and the fixed housings 2. Multiple annular pieces 11 located between two fixed cylinders 21 are equidistantly fitted onto the annular end of the transmission line body 1. The multiple annular pieces 11 work together to protect the transmission line body 1. Multiple fixing rods 13 are equidistantly installed between the inner ends of the two fixed cylinders 21 and the two outermost annular pieces 11, and the fixing rods 13 are located outside the transmission line body 1. The fixing rods 13 securely install the outermost annular piece 11 to the fixed cylinder 21. Multiple elastic lines 12 located outside the transmission line body 1 are equidistantly arranged between two adjacent annular pieces 11. The elastic lines 12 connect the two adjacent annular pieces 11 and allow the transmission line body 1 to bend normally. Multiple pins 5 are equidistantly installed on the outward ends of both fixed housings 2, and the pins 5 extend into the corresponding fixed housing 2 and connect to the corresponding wires in the transmission line 1. The chip 3 is connected to the transmission line 1 through the pins 5. The vertical parts of the auxiliary plates 6 are installed on both the left and right ends of the two fixed housings 2, and the two auxiliary plates 6 on the corresponding side are arranged opposite each other. The auxiliary plates 6 have an L-shaped structure and support the chip 3 through the auxiliary plates 6. The front end of the vertical part of the four auxiliary plates 6 is equipped with reinforcing plates 63, and the reinforcing plates 63 are connected to the side end of the fixed housing 2. The reinforcing plates 63 increase the installation strength between the auxiliary plates 6 and the fixed housing 2. Two chips 3 arranged opposite to each other are respectively installed on the outer side of two fixed housings 2. The rear ends of the two chips 3 are respectively attached to the front end of the lateral part of the two auxiliary plates 6. The chips 3 are used to convert information. Wing plates are installed on the left and right ends of the inner side of the two chips 3. The wing plates are integrated with the substrate of the chips 3. The wing plates provide a processing carrier for the mounting holes 31. The front end of the wing plate is recessed to the rear to form a mounting hole 31 that penetrates the wing plate. The chips 3 are fastened through the mounting holes 31. A protective ring is set on the inner wall of the mounting hole 31 to protect the mounting hole 31. Multiple electrodes 32 are equidistantly embedded at the inner rear ends of two chips 3, and the electrodes 32 are electrically connected to the corresponding integrated circuits on the chips 3. The electrodes 32 extend to the front end of the chips 3, and multiple pins 5 are equidistantly attached to the front ends of the two chips 3. The front ends of the multiple electrodes 32 are respectively soldered to the rear ends of the multiple pins 5. The electrodes 32 are used to connect the pins 5 and the chips 3. A notch 53 is formed by recessing the front end of pin 5 to the rear, and the notch 53 extends to the outer end of pin 5. The notch 53 is located on the outer side of pressure plate 4 and the front end of corresponding electrode 32. The notch 53 assists in the welding between pin 5 and electrode 32. Two positioning slots 33 are formed by recessing the front end of both chips 3 to the rear, and the positioning slots 33 located on the outer side of pin 5 extend to the inner end of chip 3. The rear ends of the two pressure plates 4 are respectively attached to the front ends of multiple corresponding pins 5. The pins 5 are pressed by the pressure plates 4. Two square through slots 42 are formed by recessing the front ends of the two pressure plates 4. The rear ends of the square through slots 42 are connected to the front ends of the corresponding positioning through slots 33. The buckle 62 passes through the pressure plates 4 through the square through slots 42. Each of the four auxiliary plates 6 has a buckle 62 at its front end in the horizontal direction. The buckle 62 passes through the positioning slot 33 and the square slot 42. The vertical part of the buckle 62 is in contact with the outer inner wall of the positioning slot 33. The buckle head of the buckle 62 is locked at the front end of the pressure plate 4. Each of the four auxiliary plates 6 has a cylinder 61 installed at its front end in the horizontal direction, located inside and outside the buckle 62. The cylinder 61 is located in the corresponding positioning slot 33. The inner end of the cylinder 61 is in contact with the inner wall of the corresponding positioning slot 33. The buckle 62, the cylinder 61 and the positioning slot 33 work together to position the chip 3.

[0019] During assembly, two predetermined chips 3 are first taken out, and one chip 3 is placed on the outside of the corresponding fixed housing 2. The chip 3 is then attached to the front end of the horizontal part of the two corresponding auxiliary plates 6, and the vertical part of the buckle 62 and the cylinder 61 are inserted into the extreme position of the corresponding positioning through slot 33. The chip 3 is then positioned and placed. At this time, multiple pins 5 on the corresponding fixed housing 2 are located at the front end of the chip 3, and multiple pins 5 are respectively attached to the front end of multiple corresponding electrodes 32, realizing mechanical positioning between the chip 3 and multiple pins 5, effectively reducing the probability of misalignment between the chip 3 and the pins 5, and effectively ensuring the data transfer effect and quality. Next, place the pressure plate 4 at the front end of multiple corresponding pins 5, and make the two corresponding buckles 62 pass through the two corresponding square through slots 42, and the buckle heads of the two corresponding buckles 62 are locked at the front end of the pressure plate 4, thereby making the pressure plate 4 securely installed. At this time, the pressure plate 4 will press and hold multiple pins 5, thereby effectively reducing the probability of phenomena such as poor soldering between pins 5 and chip 3 due to pins 5 being lifted, and effectively reducing the probability of pins 5 and chip 3 being separated, thus effectively ensuring the data transfer effect and quality. Then, soldering is performed between the pins 5 and the corresponding electrodes 32 in the notch 53, so that the multiple pins 5 are soldered to the multiple electrodes 32 respectively, thereby connecting the multiple pins 5 to the chip 3. The two chips 3 are then installed in the same way as above.

[0020] During assembly, a corresponding chip 3 is first inserted into the terminal connection module, and the chip 3 and the terminal are fastened together by screws and corresponding mounting holes 31. At this time, the terminal and the chip 3 are electrically connected. Then, the transmission line 1 is bent, and with the assistance of the elastic line 12, the structure formed by multiple ring plates 11 is bent, so that another chip 3 can move to the outside of the connection module in the carrier device. Then insert another chip 3 into the connection module of the carrier device, and fasten the other chip 3 to the carrier device with screws and corresponding mounting holes 31. At this time, the other chip 3 is electrically connected to the carrier device, thereby connecting the terminal and the carrier device. In use, the AI ​​data stored in the terminal is transmitted to the corresponding chip 3. The chip 3 converts the AI ​​data into multi-line analog signals, which are then transmitted independently through multiple corresponding pins 5 and multiple wires in the transmission line 1. The multi-line analog signals are also transmitted to another chip 3 through multiple pins 5 on the other side. The chip 3 then converts the multi-line analog signals back into AI data and transmits the AI ​​data to the carrier device. The carrier device translates and displays the AI ​​data, thus completing the transfer of AI data.

[0021] Example 2: Figure 4 , Figure 5 , Figure 9 and Figure 10 As shown, multiple straight cylinders 41 are equidistantly embedded at the front ends of both pressure plates 4, and the front end face of the straight cylinder 41 coincides with the front end face of the pressure plate 4. The multiple straight cylinders 41 on the same side are located between two square through slots 42 on the same side. The straight cylinders 41 provide installation space for components such as the elastic element 43. Multiple guide cylinders 45 are equidistantly embedded at the rear ends of both pressure plates 4, and the rear end face of the guide cylinder 45 coincides with the rear end face of the pressure plate 4. The front end of the guide cylinder 45 is connected to the rear end of the corresponding straight cylinder 41. The guide cylinders 45 guide the movement of the positioning column 46. Guide plates 44 are slidably connected within multiple straight cylinders 41. The guide plates 44 provide an installation carrier for the positioning post 46. An elastic element 43 is installed between the front end of the guide plate 44 and the front wall of the straight cylinder 41. The elastic element 43 applies pressure to the guide plate 44. The elastic element 43 can be a spring. The front end face of multiple pins 5 is recessed backward to form a guide groove 51. The cross-section of the guide groove 51 is a trapezoid with a wider front and narrower back. The positioning post 46 is guided into the positioning groove 52 through the guide groove 51. A positioning groove 52 is formed by a rearward recess on the rear wall of the guide groove 51. A positioning post 46 is provided in the middle of the rear end of multiple guide plates 44. The positioning post 46 passes through the guide cylinder 45 and is slidably connected to the guide cylinder 45. The rear end of the positioning post 46 passes through the guide groove 51 and extends into the positioning groove 52. The positioning post 46 and the positioning groove 52 work together to position the pin 5 and the pressure plate 4.

[0022] When the pressure plate 4 is placed, the positioning post 46 enters the positioning groove 52 under the guidance of the corresponding guide groove 51, and then the pressure plate 4 is fastened by the buckle 62. At this time, under the restriction of the positioning groove 52, the positioning post 46 moves upward, which in turn causes the guide plate 44 to move upward along the straight cylinder 41 and compress the elastic device 43, so that the elastic device 43 generates elastic force. The elastic force of the elastic device 43 will apply pressure to the guide plate 44, the positioning post 46 and the pin 5, realizing the positioning and squeezing pressing treatment of the independent pin 5, effectively reducing the probability of contact between two adjacent pins 5, and effectively reducing the probability of tilted connection between the pin 5 and the chip 3, effectively ensuring the data transfer effect and quality.

[0023] A method for using an AI data adapter cable includes the following steps: Step 1: Place the corresponding chip 3 on the outside of the corresponding fixed housing 2, and attach the auxiliary plate 6 to the rear end of the chip 3. The cylinder 61 and the buckle 62 are both inserted into the extreme positions of the corresponding positioning through slot 33 to position the chip 3. At this time, the front ends of multiple electrodes 32 in the chip 3 are respectively attached to the rear ends of multiple pins 5. The pressure plate 4 is placed on the front ends of multiple pins 5, and the buckle 62 is engaged in the corresponding square through slot 42. Then, the corresponding notch 53 is used to weld the electrodes 32 and the pins 5. The two chips 3 are assembled in the same way as above. The second step is to insert the two chips 3 into the connection module in the terminal and the connection module in the carrier device respectively, so that the two chips 3 are electrically connected to the terminal and the carrier device respectively. Then, through the mounting hole 31 and screws, the two chips 3 are fastened to the connection module in the terminal and the connection module in the carrier device respectively. The third step involves the terminal transmitting AI data to the corresponding chip 3. This chip 3 converts the AI ​​data into multi-line analog signals, which are then transmitted independently through multiple corresponding pins 5 and multiple wires in the transmission line 1. The multi-line analog signals are also transmitted to another chip 3 using multiple pins 5 on the other side. This chip 3 then converts the multi-line analog signals back into AI data and transmits the AI ​​data to the carrier device. The carrier device then translates and displays the AI ​​data.

[0024] Although this specification describes embodiments, not every embodiment contains only one independent technical solution. This narrative style is merely for clarity. Those skilled in the art should consider the specification as a whole. The technical solutions in each embodiment can also be appropriately combined to form other embodiments that can be understood by those skilled in the art.

Claims

1. An AI data adapter cable, characterized in that, include: Transmission line body (1), the annular end of the transmission line body (1) is fitted with a protective component; Fixed housing (2), two of them are provided. The two fixed housings (2) are respectively installed at the upper and lower ends of the transmission line body (1), and the upper and lower ends of multiple wires in the transmission line body (1) extend into the two fixed housings (2) respectively. The protective component is installed between the two fixed housings (2). Two chips (3) are provided, and the two chips (3) are arranged opposite each other. The two chips (3) are respectively installed on the outer side of two fixed housings (2). Multiple pins (5) are welded at equal intervals at the front end of the two chips (3). The inner end of the pins (5) is connected to the outer end of the corresponding fixed housing (2), and the inner end of the pins (5) extends into the corresponding fixed housing (2) and is connected to the corresponding wire in the transmission line body (1). Four auxiliary plates (6) are provided. The auxiliary plates (6) are L-shaped. The vertical parts of the auxiliary plates (6) are installed on both the left and right ends of the two fixed housings (2). The two auxiliary plates (6) on the corresponding side are arranged opposite to each other. The front end of the horizontal part of the auxiliary plate (6) is in contact with the rear end of the corresponding chip (3). Two pressing components are provided. The rear ends of the two pressing components are respectively attached to the front ends of multiple corresponding pins (5), and the pressing components pass through the corresponding chip (3) and are connected to the auxiliary board (6).

2. The AI ​​data adapter cable according to claim 1, characterized in that: The pressing component includes a pressure plate (4), the rear end of the pressure plate (4) is in contact with the front end of a plurality of corresponding pins (5), the front end of the chip (3) is recessed to form two positioning through slots (33), and the positioning through slots (33) penetrate the chip (3), the positioning through slots (33) extend to the inner end of the chip (3), and the positioning through slots (33) are located outside the pins (5), the front end of the pressure plate (4) is recessed to form two square through slots (42), and the square through slots (42) penetrate the pressure plate (4), the rear end of the square through slots (42) is connected to the front end of the corresponding positioning through slots (33); Each of the four auxiliary plates (6) has a buckle (62) at the front end of its horizontal part. The buckle (62) passes through the positioning through groove (33) and the square through groove (42). The buckle head of the buckle (62) is engaged with the front end of the pressure plate (4). The vertical part of the buckle (62) is in contact with the outer inner wall of the positioning through groove (33). Multiple limiting components are equidistantly embedded at the front end of the pressure plate (4). Multiple limiting components on the same side are located between two square through grooves (42) on the same side. The limiting components pass through the pressure plate (4) and are connected to the corresponding pin (5).

3. The AI ​​data adapter cable according to claim 2, characterized in that: A cylinder (61) is installed at the front end of the horizontal part of each of the four auxiliary plates (6), and the cylinder (61) is located in the corresponding positioning slot (33). The inner end of the cylinder (61) is in contact with the inner wall of the corresponding positioning slot (33), and the cylinder (61) is located inside and outside the buckle (62). A reinforcing plate (63) is installed at the front end of the vertical part of the four auxiliary plates (6), and the reinforcing plate (63) is connected to the side end of the fixed housing (2).

4. The AI ​​data adapter cable according to claim 3, characterized in that: The limiting component includes a straight cylinder (41) and a guide cylinder (45). The straight cylinder (41) is embedded in the front end of the pressure plate (4), and the front end face of the straight cylinder (41) coincides with the front end face of the pressure plate (4). The guide cylinder (45) is embedded in the rear end of the pressure plate (4), and the rear end face of the guide cylinder (45) coincides with the rear end face of the pressure plate (4). The front end of the guide cylinder (45) is connected to the rear end of the straight cylinder (41). A guide plate (44) is slidably connected inside the straight cylinder (41). An elastic element (43) is installed between the front end of the guide plate (44) and the front wall of the straight cylinder (41). The guide plate (44) has a positioning post (46) at the middle of its rear end, and the positioning post (46) passes through the guide cylinder (45). The positioning post (46) is slidably connected to the guide cylinder (45). The front end of the pin (5) is recessed to form a guide groove (51), and the cross-section of the guide groove (51) is a trapezoid with a wider front and narrower back. The rear wall of the guide groove (51) is recessed to form a positioning groove (52). The rear end of the positioning post (46) passes through the guide groove (51) and extends into the positioning groove (52).

5. The AI ​​data adapter cable according to claim 4, characterized in that: The protective component includes two fixed cylinders (21) and multiple annular pieces (11). The two fixed cylinders (21) are respectively connected and installed on the inner ends of the two fixed housings (2), and both fixed cylinders (21) are fitted onto the annular end of the transmission line body (1). The multiple annular pieces (11) are equidistantly fitted onto the annular end of the transmission line body (1), and the multiple annular pieces (11) are located between the two fixed cylinders (21). Multiple fixing rods (13) are equidistantly installed between the inner ends of the two fixed cylinders (21) and the two outermost annular pieces (11), and the fixing rods (13) are located outside the transmission line body (1). Multiple elastic lines (12) are equidistantly arranged between two adjacent annular pieces (11), and the elastic lines (12) are located outside the transmission line body (1).

6. The AI ​​data adapter cable according to claim 5, characterized in that: The chip (3) has multiple electrodes (32) equidistantly embedded at the rear end of the inner side, and the electrodes (32) are electrically connected to the corresponding integrated circuit on the chip (3). The electrodes (32) extend to the front end of the chip (3) and are soldered to the rear end of the corresponding pin (5). The chip (3) has wing plates installed on both the left and right ends of the inner side, and the wing plates and the substrate of the chip (3) are integrated. The front end of the wing plate is recessed to form a mounting hole (31), and the mounting hole (31) penetrates the wing plate. A protective ring is provided on the inner wall of the mounting hole (31).

7. The AI ​​data adapter cable according to claim 6, characterized in that: The front end of the pin (5) is recessed to form a notch (53), and the notch (53) penetrates the pin (5). The notch (53) extends to the outer end of the pin (5), and the notch (53) is located on the outer side of the pressure plate (4) and the front end of the corresponding electrode (32).

8. A method of using an AI data adapter cable, employing the AI ​​data adapter cable as described in claim 7, characterized in that, Includes the following steps: Step 1: Place the corresponding chip (3) on the outside of the corresponding fixed housing (2), and attach the auxiliary plate (6) to the rear end of the chip (3). The cylinder (61) and the buckle (62) are inserted into the extreme position of the corresponding positioning through slot (33) so that the chip (3) is positioned. At this time, the front ends of multiple electrodes (32) in the chip (3) are attached to the rear ends of multiple pins (5) respectively, and the pressure plate (4) is placed on the front ends of multiple pins (5), and the buckle (62) is snapped into the corresponding square through slot (42). Then, the corresponding notch (53) is used to weld the electrodes (32) and the pins (5). The two chips (3) are assembled in the same way as above. The second step is to insert the two chips (3) into the terminal connection module and the carrier device connection module respectively, so that the two chips (3) are electrically connected to the terminal and the carrier device respectively. Then, through the mounting hole (31) and screws, the two chips (3) are fastened to the terminal connection module and the carrier device connection module respectively. The third step is for the terminal to transmit the AI ​​data to the corresponding chip (3). The chip (3) converts the AI ​​data into multi-line analog signals and then transmits them independently through multiple corresponding pins (5) and multiple wires in the transmission line (1). The multi-line analog signals are transmitted to another chip (3) using multiple pins (5) on the other side. The chip (3) converts the multi-line analog signals back into AI data and transmits the AI ​​data to the carrier device. The carrier device translates and displays the AI ​​data.

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