Electronic production equipment wiring method

Abstract

The invention relates to the technical field of electronic production equipment wiring methods, provides an electronic production equipment wiring method, and aims to optimize connection paths among internal components of electronic equipment and improve wiring efficiency, overall performance, reliability and maintainability of the equipment. Comprising the following steps: S100, dividing an internal component into a plurality of modules according to the overall architecture and function requirements of equipment; s200, determining a connection relationship between the modules; s300, analyzing signal transmission requirements among the modules, and determining a starting point and a terminal point of wiring and components needing to be connected; s400, selecting a wire rod with a proper specification; s500, designing a test point; s600, simulation and optimization are carried out through wiring software; s700, wiring is carried out according to the optimized mode, and all connection points are ensured to be firm and reliable; and S800, after wiring is completed, testing the equipment.

Description

Technical Field

[0001] The present invention relates to the technical field of electronic production equipment wiring methods, and in particular to an electronic production equipment wiring method. Background Art

[0002] Wiring design is a crucial link in the design and manufacturing process of electronic equipment. Traditional wiring methods often rely on engineers' experience and intuition, lack of systematic analysis and optimization, resulting in low wiring efficiency and difficulty in ensuring the overall performance, reliability and maintainability of the equipment. Summary of the invention

[0003] The present invention provides an electronic production equipment wiring method, which optimizes the connection paths between components inside the electronic equipment and improves the wiring efficiency, overall performance, reliability and maintainability of the equipment.

[0004] The technical solution of the present invention is as follows: A wiring method for electronic production equipment comprises the following steps: S100: Divide the internal components into several modules according to the overall architecture and functional requirements of the device; S200: Determine the connection relationship between modules; S300: Analyze the signal transmission requirements between modules and determine the starting point and end point of the wiring and the components that need to be connected; S400: Choose the appropriate specification wire; S500: Design test points; S600: Simulation and optimization through wiring software; S700: Carry out wiring in an optimized manner and ensure that all connection points are firm and reliable; S800: After completing the wiring, test the equipment.

[0005] Furthermore, step S100 includes: S110: Divide the equipment into a station module 1, a station module 2, a station module 3, a station module 4, a station module 5 and a station module 6; The station four modules include station four XY module photoelectric components and station four ZR module photoelectric components; The six-station module includes a blanking photoelectric component and a blanking magnetic opening component; S120: Designing a station one carrier top assembly corresponding to the station one module and located at the bottom of the station one module; Design a station two carrier top assembly corresponding to the station two module and located at the bottom of the station two module; Design a station three carrier top assembly corresponding to the station three module and located at the bottom of the station three module; Design a station four carrier top assembly corresponding to the station four module and located at the bottom of the station four module; Design a station five carrier top assembly corresponding to the station five module and located at the bottom of the station five module; Design a station six carrier top assembly corresponding to the station six module and located at the bottom of the station six module; S130: design a station one panel support assembly corresponding to the station one module and located on the upper part of the station one module; Design a station two top plate bracket assembly corresponding to the station two module and located on the upper part of the station two module; Design a three-station floor support assembly corresponding to the station three module and located on the upper part of the station three module; Design a station four top plate bracket assembly corresponding to the station four module and located on the upper part of the station four module; Design a station five top plate bracket assembly corresponding to the station five module and located on the top of the station five module; Design a six-station ceiling bracket assembly corresponding to the six-station module and located on the upper part of the six-station module; S140: A top electric control panel and a PLC controller are arranged on the top of each workstation top plate, and a plurality of terminal blocks are installed on the top electric control panel.

[0006] Furthermore, the station one module is used for loading and scanning; The station two module is used for film tearing, and the station two top plate support assembly includes a film tearing top plate assembly and a film tearing top assembly; The three modules of the workstation are used for testing; The station four module is used for film pasting, including the station four XY module photoelectric component and the station four ZR module photoelectric component, and the station four top plate bracket component includes a film pasting top plate component and a film pasting top component; Station 5 module is used as a reserved station for ICT testing; The six modules of the workstation are used for unloading, including unloading of optoelectronic components and unloading of magnetic opening components.

[0007] Furthermore, step S700 includes: S710: Connect the three-day workstation floor support assembly, the four-day workstation floor support assembly, and the five-day workstation floor support assembly to the PLC controller end; S720: Connect the top assembly of the carrier board at station two, the top assembly of the carrier board at station three, the top assembly of the carrier board at station five, and the top assembly of the carrier board at station six to the PLC controller end; S730: Connect the film tearing top plate assembly and the film tearing top assembly to the PLC controller end; S740: Connect the film top plate assembly and the film top assembly to the PLC controller end; S750: Connect the photoelectric components of the XY module of the fourth station and the photoelectric components of the ZR module of the fourth station to the PLC controller end; S760: Connect the blanking photoelectric component and the blanking magnetic opening component to the PLC controller end.

[0008] Furthermore, step S710 includes: S711: Connect from the PLC controller to the top plate bracket terminal block 1 through four 10-pin standard cables; S712: The top plate bracket terminal block 1 is connected to the top plate bracket terminal block 2 through a 40-pin standard cable; S713: Use an 8-bit junction box to aggregate the signals of the three-day board support assembly, the four-day board support assembly and the five-day board support assembly of the workstation respectively; S714: The second top plate bracket terminal block is connected to the top plate bracket assembly junction box at station three, the top plate bracket assembly junction box at station four, and the top plate bracket assembly junction box at station five through three 10-pin cables.

[0009] Further, step S720 includes: S721: Connect from the PLC controller to the top sub-station 1 on the carrier board through four 10-pin standard cables; S722: The top sub-stage 1 on the carrier board is connected to the top sub-stage 2 on the carrier board through a 40-pin standard cable; S723: Use an 8-bit junction box to aggregate the signals of the upper assembly on the carrier board at station two, the upper assembly on the carrier board at station three, the upper assembly on the carrier board at station five, and the upper assembly on the carrier board at station six respectively; S724: The second top sub-station on the carrier is connected to the top component junction box on the carrier at station two, the top component junction box on the carrier at station three, the top component junction box on the carrier at station five, and the top component junction box on the carrier at station six through four 10-pin cables.

[0010] Further, step S730 includes: S731: Connect from the PLC controller to the first terminal block of the second station through four 10-pin standard cables; S732: Station 2 film-tearing terminal block 1 is connected to station 2 film-tearing terminal block 2 through a 20-pin standard cable; S733: Use an 8-bit junction box to aggregate the signals of the film tearing top plate assembly and the film tearing top assembly respectively; S734: The second film tearing terminal block at station 2 is connected to the film tearing top plate assembly junction box and the film tearing top assembly junction box through two 10-pin cables.

[0011] Further, step S740 includes: S741: Connect from the PLC controller to the fourth film terminal block of the workstation through two 10-pin standard cables; S742: Station four film terminal block one is connected to station four film terminal block two through a 20-pin standard cable; S743: Use an 8-bit junction box to aggregate the signals of the film top plate assembly and the film top assembly respectively; S744: The second terminal block of the four-film-sticking station is connected to the junction box of the top plate component of the four-film-sticking station and the junction box of the top component of the four-film-sticking station through two 10-pin cables.

[0012] Further, step S750 includes: S751: Connect from the PLC controller end to the photoelectric terminal station 1 of the four-film-mounting module through two 10-pin standard cables; S752: The photoelectric terminal block 1 of the four-film-mounting module at the workstation is connected to the photoelectric terminal block 2 of the four-film-mounting module at the workstation via a 20-pin standard cable; S753: Use an 8-bit junction box to aggregate the signals of the photoelectric components of the XY module of the fourth station and the photoelectric components of the ZR module of the fourth station respectively; S754: The optoelectronic terminal block 2 of the film-mounting module at station 4 is connected to the optoelectronic component junction box of the XY module at station 4 and the optoelectronic component junction box of the ZR module at station 4 through two 10-pin cables.

[0013] Further, step S760 includes: S761: Connect from the PLC controller to the first blanking terminal block at station six through two 10-pin standard cables; S762: The first blanking terminal block of station six is ​​connected to the second blanking terminal block of station six through a standard 20-pin cable; S763: Use an 8-bit junction box to aggregate the signals of the blanking photoelectric component and the blanking magnetic opening component respectively; S764: The second terminal block of the sixth blanking station is connected to the optoelectronic component junction box of the sixth blanking station and the magnetic open component junction box of the sixth blanking station through two 10-pin cables.

[0014] The beneficial effects of the present invention are: The present invention adopts the DFX (Design for X) design concept, which provides a new idea for the design of electronic equipment. In the design stage, the requirements of product manufacturing, testing, maintenance, etc. are fully considered, and the system is optimized and improved to improve the overall performance of the product and reduce costs. And through a systematic design process, the manufacturability requirements are fully considered, the internal wiring of the equipment is optimized and standardized, and the wiring efficiency, reliability and maintainability are improved. BRIEF DESCRIPTION OF THE DRAWINGS

[0015] The present invention will be further described in detail below in conjunction with the accompanying drawings and specific embodiments.

[0016] Figure 1 This is a framework diagram of electronic production equipment, which is used to show the top plate part, station module and carrier board part; Figure 2 This is the distribution diagram of the six workstation modules; Figure 3 This is a partial terminal block distribution diagram of the top electric control panel; Figure 4 This is the appearance of the terminal block model MTG060; Figure 5 This is the appearance of the terminal block model MTG063; Figure 6 This is a schematic diagram of the junction box structure; Figure 7 Provide wiring diagram for the ceiling bracket circuit; Figure 8 Wire the top circuit on the carrier board; Fig. 9 This is the partial wiring diagram of the film tearing assembly at the second station; Fig.10 Partial wiring for the four-film assembly at the workstation Figure 1 ; Fig.11 Partial wiring for the four-film assembly at the workstation Figure 2 ; Fig.12 Partial wiring for the four-film assembly at the workstation Figure 3 ; Fig.13 Partial wiring for the four-film assembly at the workstation Figure 4 ; Fig.14 This is the wiring diagram for the cutting part of station six.

[0017] In the figure: 1. Station 1 module; 2. Station 2 module; 21. Station 2 board top component junction box; 22. Film tearing top board component junction box; 23. Film tearing top component junction box; 3. Station 3 module; 31. Station 3 three board bracket component junction box; 32. Station 3 board top component junction box; 4. Station 4 module; 41. Station 4 top board bracket component junction box; 42. Station 4 film top board component junction box; 43. Station 4 film top component junction box; 44. Station 4 XY module optoelectronic component junction box; 45. Station 4 ZR module optoelectronic component junction box; 5. Station 5 module; 51. Station 5 board bracket component junction box; 52. Station 5 board top component junction box; 6. Station 6 module; 61. Station 6 The top component junction box of the carrier; 62, the optoelectronic component junction box of the sixth station; 63, the magnetic opening component junction box of the sixth station; 71, the top plate part; 72, the module part of the station; 73, the carrier part; 8, the top electric control board; 911, the top plate bracket terminal block one; 912, the top plate bracket terminal block two; 921, the top sub-station one on the carrier; 922, the top sub-station two on the carrier; 931, the film-tearing terminal block one at the second station; 932, the film-tearing terminal block two at the second station; 941, the film-sticking terminal block one at the fourth station; 942, the film-sticking terminal block two at the fourth station; 951, the optoelectronic terminal block one for the film-sticking module at the fourth station; 952, the optoelectronic terminal block two for the film-sticking module at the fourth station; 961, the first terminal block for the sixth station; 962, the second terminal block for the sixth station. DETAILED DESCRIPTION

[0018] The following will be combined with the embodiments of the present invention to clearly and completely describe the technical solutions in the embodiments of the present invention. Obviously, the described embodiments are only part of the embodiments of the present invention, not all of the embodiments. Based on the embodiments of the present invention, all other embodiments obtained by ordinary technicians in this field without creative work are within the scope of protection of the present invention.

[0019] Embodiment 1 A wiring method for electronic production equipment comprises the following steps: S100: Divide the internal components into several modules according to the overall architecture and functional requirements of the device; S200: Determine the connection relationship between modules; S300: Analyze the signal transmission requirements between modules and determine the starting point and end point of the wiring and the components that need to be connected; S400: Select wires of appropriate specifications and fully consider manufacturability requirements during the selection process, such as selecting appropriate wire diameters, wire spacing and other parameters to ensure smooth production; S500: Design test points to facilitate subsequent inspection and maintenance work; S600: Use wiring software to simulate and generate a preliminary wiring plan. According to the simulation results, adjust and optimize the wiring path to ensure smooth signal transmission and minimize interference. At the same time, the aesthetics and neatness of the wiring must also be considered, and the wiring plan must be further optimized and adjusted; S700: Carry out wiring in an optimized manner and ensure that all connection points are firm and reliable; S800: After completing the wiring, the equipment is tested, including the signal transmission quality, anti-interference ability and other aspects to ensure that the performance of the equipment meets the design requirements.

[0020] Embodiment 2 like Figure 1-6 As shown, this embodiment is based on the functional requirements of electronic production equipment (film pasting, testing) with MIC, and adopts the above wiring design and wiring method for routing. In the overall scheme of the equipment, it is roughly divided into three sections from top to bottom, namely the top plate, several production stations and the lower carrier plate. The top plate is mainly used to install electronic control equipment and the top plate bracket corresponding to each station. The production station is used for product processing such as loading, film pasting, testing, film tearing, and unloading. The lower carrier plate is mainly used to carry products, including the upper components of the carrier plate corresponding to and cooperating with each production station. Specific hardware includes but is not limited to a plate placing machine, a display, a test turntable body, a control input device, a tray table, a power supply external module, a loading tray clip, a unloading tray clip, etc.

[0021] The specific wiring scheme is as follows: S110: Figure 2 As shown, the equipment is divided into station one module 1, station two module 2, station three module 3, station four module 4, station five module 5 and station six module 6.

[0022] Among them, according to the equipment and process requirements, module 1 of the workstation is used for loading and scanning. After the operator locates the product, it automatically scans the code and positions the material, and manually completes the cover plate to ensure the MIC position. At the same time, the corresponding carrier board is equipped with a vacuum suction function.

[0023] Station 2 module 2 is used for film tearing. The film tearing principle is: using the mutual force between the upper film tearing rod and the lower film tearing rod to overcome the adhesive force between the film and the Flex, tearing off the film, and at the same time sticking the film, click and rotate. The tape is detected in real time by the photoelectric sensor. When the film tape is used up, the system will automatically alarm. The station 2 top plate bracket assembly includes a film tearing top plate assembly and a film tearing top assembly; Station 3 module 3 is used for testing, such as sensitivity testing. During the test, the VPP top module is lifted, and the test begins after the carrier is in place. Then the electric cylinder drives the sound source component to be lifted up again. The sound mouth fits the bottom of the product, and then the sensitivity is tested.

[0024] Station 4 module 4 is used for film pasting, and drives the film belt recovery wheel through the stepper motor and the round belt at the same time, and rotates with the film stripping electrode through the pulse signal. Station 4 module includes station 4 XY module photoelectric component and station 4 ZR module photoelectric component, and station 4 top plate bracket component includes film pasting top plate component and film pasting top assembly.

[0025] Station 5 Module 5 is reserved as an ICT test station; Station six module 6 unloads materials through the cooperation of servo motors of each axis and the manipulator, including unloading photoelectric components and unloading magnetic opening components.

[0026] S120: Designing a station one carrier top assembly corresponding to the station one module 1 and located at the bottom of the station one module 1; Design a station two carrier top assembly corresponding to the station two module 2 and located at the bottom of the station two module 2; Design a station three board top assembly corresponding to the station three module 3 and located at the bottom of the station three module 3; Design a station four board top assembly corresponding to the station four module 4 and located at the bottom of the station four module 4; Design a station five board top assembly corresponding to the station five module 5 and located at the bottom of the station five module 5; The top assembly of the workstation six carrier plate is designed to correspond to the workstation six module 6 and be located at the bottom of the workstation six module 6.

[0027] S130: Design a station one panel support assembly corresponding to the station one module 1 and located on the upper part of the station one module 1; Design a station two top plate bracket assembly corresponding to the station two module 2 and located on the upper part of the station two module 2; Design a station three-day floor support assembly corresponding to the station three module 3 and located on the upper part of the station three module 3; Design a station four top plate bracket assembly corresponding to the station four module 4 and located on the upper part of the station four module 4; Design a station five top plate bracket assembly corresponding to the station five module 5 and located on the upper part of the station five module 5; A station six ceiling bracket assembly is designed to correspond to the station six module 6 and be located on the upper part of the station six module 6.

[0028] S140: A top electric control board 8 and a PLC controller are arranged on the upper part of each workstation top plate, and a plurality of terminal blocks are installed on the top electric control board 8 to connect the circuits between each module (the sensors in each module) and the PLC controller.

[0029] By dividing the lines through each terminal block, a section of the line can be split into several nodes that can be quickly disassembled and assembled, which is convenient for wiring and can be disassembled and assembled for maintenance and repair at any time.

[0030] This embodiment sets terminal blocks of uniform specifications by classification and aggregation, which is convenient for procurement, design, and unified layout. Then, the lines of each component in each adjacent station are grouped, and each terminal block is fully utilized for wiring to avoid the situation where some terminal block ports are vacant or some terminal block ports are insufficient. Therefore, wiring is specifically performed through the following steps, and step S700 includes: S710: Connect the three-day workstation floor support assembly, the four-day workstation floor support assembly, and the five-day workstation floor support assembly to the PLC controller end; S720: Connect the top assembly of the carrier board at station two, the top assembly of the carrier board at station three, the top assembly of the carrier board at station five, and the top assembly of the carrier board at station six to the PLC controller end; S730: Connect the film tearing top plate assembly and the film tearing top assembly to the PLC controller end; S740: Connect the film top plate assembly and the film top assembly to the PLC controller end; S750: Connect the photoelectric components of the XY module of the fourth station and the photoelectric components of the ZR module of the fourth station to the PLC controller end; S760: Connect the blanking photoelectric component and the blanking magnetic opening component to the PLC controller end.

[0031] The above steps S710-S760 all adopt a unified wiring logic to facilitate unified management and maintenance of equipment wiring, as follows: like Figure 7 As shown, step S710 includes: S711: Connect to the top plate bracket terminal block 911 from the PLC controller through four 10-pin standard cables; S712: The top plate support terminal block 1 911 is connected to the top plate support terminal block 2 912 through a 40-pin standard cable; S713: Use an 8-bit junction box to aggregate the signals of the three-day board support assembly, the four-day board support assembly and the five-day board support assembly of the workstation respectively; S714: The second top plate support terminal block 912 is connected to the top plate support assembly junction box 31 of the third station, the top plate support assembly junction box 41 of the fourth station, and the top plate support assembly junction box 51 of the fifth station through three 10-pin cables.

[0032] like Figure 8 As shown, step S720 includes: S721: Connect to the top sub-station 921 on the carrier board through four 10-pin standard cables from the PLC controller; S722: The top sub-platform 1 921 on the carrier is connected to the top sub-platform 2 922 on the carrier via a 40-pin standard cable; S723: Use an 8-bit junction box to aggregate the signals of the upper assembly on the carrier board at station two, the upper assembly on the carrier board at station three, the upper assembly on the carrier board at station five, and the upper assembly on the carrier board at station six respectively; S724: The second top sub-platform 922 on the carrier is connected to the top component junction box 21 on the carrier at station two, the top component junction box 32 on the carrier at station three, the top component junction box 52 on the carrier at station five and the top component junction box 61 on the carrier at station six through four 10-pin cables.

[0033] like Fig. 9 As shown, step S730 includes: S731: Connect to the second film-tearing terminal block 931 from the PLC controller through four 10-pin standard cables; S732: Station 2 film tearing terminal block 1 931 is connected to station 2 film tearing terminal block 2 932 through a 20-pin standard cable; S733: Use an 8-bit junction box to aggregate the signals of the film tearing top plate assembly and the film tearing top assembly respectively; S734: The second film tearing terminal block 932 of the workstation 2 is connected to the film tearing top plate assembly junction box 22 and the film tearing top assembly junction box 23 through two 10-pin cables.

[0034] like Figure 10-11 As shown, step S740 includes: S741: Connect to the station four-film terminal block 941 through two 10-pin standard cables from the PLC controller end; S742: Station four film terminal block 1 941 is connected to station four film terminal block 2 942 through a 20-pin standard cable; S743: Use an 8-bit junction box to aggregate the signals of the film top plate assembly and the film top assembly respectively; S744: The second terminal block 942 of the fourth film-sticking station is connected to the junction box 42 of the top plate component of the fourth film-sticking station and the junction box 43 of the top component of the fourth film-sticking station through two 10-pin cables.

[0035] like Figure 12-13 As shown, step S750 includes: S751: Connect from the PLC controller end to the photoelectric terminal block 951 of the four-film-mounting module at the workstation through two 10-pin standard cables; S752: The photoelectric terminal block 1 951 of the station four film-mounting module is connected to the photoelectric terminal block 2 952 of the station four film-mounting module through a 20-pin standard cable; S753: Use an 8-bit junction box to aggregate the signals of the photoelectric components of the XY module of the fourth station and the photoelectric components of the ZR module of the fourth station respectively; S754: The optoelectronic terminal block 2 952 of the film-sticking module of station 4 is connected to the optoelectronic component junction box 44 of the XY module of station 4 and the optoelectronic component junction box 45 of the ZR module of station 4 through two 10-pin cables.

[0036] like Fig.14 As shown, step S760 includes: S761: Connect to the terminal block 961 of station 6 through two 10-pin standard cables from the PLC controller; S762: The first terminal block 961 of station six is ​​connected to the second terminal block 962 of station six through a standard 20-pin cable; S763: Use an 8-bit junction box to aggregate the signals of the blanking photoelectric component and the blanking magnetic opening component respectively; S764: The second terminal block 962 of the sixth unloading station is connected to the optoelectronic component junction box 62 of the sixth unloading station and the magnetic open component junction box 63 of the sixth unloading station through two 10-pin cables.

[0037] The 10-pin cables used in the above steps are preferably DX210-1; the 20-pin cables are preferably DX210-2; and the 40-pin cables are preferably DX210-4. Each cable is designed to be redundant and have a reserved length. The terminal blocks are preferably MTG060 or MTG063. The junction boxes are preferably T080-8.

[0038] Among them, the interface slots of the terminal block and the junction box are both equipped with bull horn structures to clamp the cable plugs and reinforce the connection points.

[0039] After each line of this embodiment is led out from the PLC controller end, due to the long distance from the sensor in each station module, the cables are connected to the sensors of each station component through at least two terminal blocks. The two terminal blocks can be used to cut the lines to avoid using a single-segment cable for long-distance wiring, which is convenient for inspection and maintenance, and convenient for staff to install and wire.

[0040] In addition, this embodiment does not involve wiring stations or related components. Since there are fewer lines, conventional wiring methods can be used, and this embodiment will not be repeated.

[0041] The above are only preferred embodiments of the present invention and are not intended to limit the present invention. Any modifications, equivalent substitutions, improvements, etc. made within the spirit and principles of the present invention should be included in the protection scope of the present invention.

Claims

1. A wiring method for electronic production equipment, characterized in that: The steps include: S100: Divide the internal components into several modules according to the overall architecture and functional requirements of the device; S200: Determine the connection relationship between modules; S300: Analyze the signal transmission requirements between modules and determine the starting point and end point of the wiring and the components that need to be connected; S400: Choose the appropriate wire specification; S500: Design test points; S600: Simulation and optimization through wiring software; S700: Carry out wiring in an optimized manner and ensure that all connection points are firm and reliable; S800: After completing the wiring, test the equipment.

2. The method for wiring electronic production equipment according to claim 1, characterized in that: Step S100 includes: S110: Divide the equipment into a workstation one module (1), a workstation two module (2), a workstation three module (3), a workstation four module (4), a workstation five module (5) and a workstation six module; The station four modules include station four XY module photoelectric components and station four ZR module photoelectric components; The six-station module includes a blanking photoelectric component and a blanking magnetic opening component; S120: Designing a station one carrier top assembly corresponding to the station one module (1) and located at the bottom of the station one module (1); A station two carrier top assembly is designed to correspond to the station two module (2) and is located at the bottom of the station two module (2); A station three carrier top assembly is designed to correspond to the station three module (3) and is located at the bottom of the station three module (3); A station four carrier top assembly is designed to correspond to the station four module (4) and is located below the station four module (4); A station five carrier plate top assembly is designed to correspond to the station five module (5) and is located below the station five module (5); Design a station six carrier top assembly corresponding to the station six module and located at the bottom of the station six module; S130: Designing a station one panel support assembly corresponding to the station one module (1) and located above the station one module (1); A station two top plate support assembly is designed to correspond to the station two module (2) and is located on the upper part of the station two module (2); A three-station floor support assembly corresponding to the station three module (3) and located above the station three module (3); A station four top plate support assembly is designed to correspond to the station four module (4) and is located above the station four module (4); A station five top plate support assembly is designed to correspond to the station five module (5) and is located on the upper part of the station five module (5); Design a six-station ceiling bracket assembly corresponding to the six-station module and located on the upper part of the six-station module; S140: A top electric control panel (8) and a PLC controller are arranged on the upper part of the top plate of each workstation, and a plurality of terminal blocks are installed on the top electric control panel (8).

3. The wiring method for electronic production equipment according to claim 2, characterized in that: Station 1 module (1) is used for loading and scanning; The station two module (2) is used for film tearing, and the station two top plate support assembly includes a film tearing top plate assembly and a film tearing top assembly; Station three module (3) is used for testing; The station four module (4) is used for film pasting, including a station four XY module photoelectric component and a station four ZR module photoelectric component, and the station four top plate support component includes a film pasting top plate component and a film pasting top plate component; Station 5 module (5) is reserved as a station for ICT testing; The six modules of the workstation are used for unloading, including unloading of optoelectronic components and unloading of magnetic opening components.

4. The method for wiring electronic production equipment according to claim 3, characterized in that: Step S700 includes: S710: Connect the three-day workstation floor support assembly, the four-day workstation floor support assembly, and the five-day workstation floor support assembly to the PLC controller end; S720: Connect the top assembly of the carrier board at station two, the top assembly of the carrier board at station three, the top assembly of the carrier board at station five, and the top assembly of the carrier board at station six to the PLC controller end; S730: Connect the film tearing top plate assembly and the film tearing top assembly to the PLC controller end; S740: Connect the film top plate assembly and the film top assembly to the PLC controller end; S750: Connect the photoelectric components of the XY module of the fourth station and the photoelectric components of the ZR module of the fourth station to the PLC controller end; S760: Connect the blanking photoelectric component and the blanking magnetic opening component to the PLC controller end.

5. The method for wiring electronic production equipment according to claim 4, characterized in that: Step S710 includes: S711: Connect from the PLC controller to the top plate bracket terminal block 1 (911) through four 10-pin standard cables; S712: The top plate support terminal block 1 (911) is connected to the top plate support terminal block 2 (912) via a 40-pin standard cable; S713: Use an 8-bit junction box to aggregate the signals of the three-day board support assembly, the four-day board support assembly and the five-day board support assembly of the workstation respectively; S714: The second top plate support terminal block (912) is connected to the top plate support assembly junction box (31) of the third station, the top plate support assembly junction box (41) of the fourth station, and the top plate support assembly junction box (51) of the fifth station through three 10-pin cables.

6. The method for wiring electronic production equipment according to claim 4, characterized in that: Step S720 includes: S721: Connect to the top sub-station 1 (921) on the carrier board through four 10-pin standard cables from the PLC controller. S722: The top sub-station 1 (921) on the carrier board is connected to the top sub-station 2 (922) on the carrier board via a 40-pin standard cable; S723: Use an 8-bit junction box to aggregate the signals of the upper assembly on the carrier board at station two, the upper assembly on the carrier board at station three, the upper assembly on the carrier board at station five, and the upper assembly on the carrier board at station six respectively; S724: The second top sub-station (922) on the carrier is connected to the top component junction box (21) on the carrier at station two, the top component junction box (32) on the carrier at station three, the top component junction box (52) on the carrier at station five, and the top component junction box (61) on the carrier at station six through four 10-pin cables.

7. The method for wiring electronic production equipment according to claim 4, characterized in that: Step S730 includes: S731: Connect to the second film tearing terminal block (931) from the PLC controller through four 10-pin standard cables; S732: The first tear film terminal block of station 2 (931) is connected to the second tear film terminal block of station 2 (932) through a 20-pin standard cable; S733: Use an 8-bit junction box to aggregate the signals of the film tearing top plate assembly and the film tearing top assembly respectively; S734: The second film tearing terminal block (932) of the second station is connected to the film tearing top plate component junction box (22) and the film tearing top component junction box (23) respectively through two 10-pin cables.

8. The wiring method for electronic production equipment according to claim 4, characterized in that: Step S740 includes: S741: Connect from the PLC controller to the fourth film terminal block (941) of the workstation through two 10-pin standard cables; S742: The station four-film terminal block one (941) is connected to the station four-film terminal block two (942) through a 20-pin standard cable; S743: Use an 8-bit junction box to aggregate the signals of the film top plate assembly and the film top assembly respectively; S744: The second terminal block (942) of the fourth film-sticking station is connected to the junction box (42) of the top plate component of the fourth film-sticking station and the junction box (43) of the top plate component of the fourth film-sticking station respectively through two 10-pin cables.

9. The wiring method for electronic production equipment according to claim 4, characterized in that: Step S750 includes: S751: Connect from the PLC controller end to the photoelectric terminal block 1 (951) of the four-film-mounting module at the workstation through two 10-pin standard cables; S752: The photoelectric terminal block 1 (951) of the station four film-mounting module is connected to the photoelectric terminal block 2 (952) of the station four film-mounting module through a 20-pin standard cable; S753: Use an 8-bit junction box to aggregate the signals of the photoelectric components of the XY module of the fourth station and the photoelectric components of the ZR module of the fourth station respectively; S754: The photoelectric terminal block 2 (952) of the film-mounting module of station 4 is connected to the photoelectric component junction box (44) of the XY module of station 4 and the photoelectric component junction box (45) of the ZR module of station 4 respectively through two 10-pin cables.

10. The wiring method for electronic production equipment according to claim 4, characterized in that: Step S760 includes: S761: Connect to the first blanking terminal block (961) of station six through two 10-pin standard cables from the PLC controller. S762: The first terminal block of station six (961) is connected to the second terminal block of station six (962) through a standard 20-pin cable; S763: Use an 8-bit junction box to aggregate the signals of the blanking photoelectric component and the blanking magnetic opening component respectively; S764: The second terminal block (962) of the sixth unloading station is connected to the sixth unloading station photoelectric component junction box (62) and the sixth unloading station magnetic opening component junction box (63) through two 10-pin cables.

Images