Drawing method of layer-stranded optical cable core structure diagram based on codes
A schematic diagram and layer-twisted technology, applied in the direction of fiber mechanical structure, electrical digital data processing, special data processing applications, etc., can solve the problems of complex distribution of optical fibers and casings, difficult unification of pictures, and a lot of time spent, to achieve Drawing time saving, map specification consistency, and cost saving effects
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Embodiment 1
[0026] see figure 1 , figure 2 and image 3 , according to the drawing method of the schematic diagram of the layer-twisted optical cable core structure of the code, it is characterized in that it includes the following steps:
[0027] 10. Define the code of the optical cable: pre-code the definition of the optical cable, so that each type of optical cable has a unique code;
[0028] 20. Enter the cable code;
[0029] 30. Code analysis: for the optical cable code input in step 20, the code is analyzed into a computer-recognizable language by the analysis unit;
[0030] 40. Call the drawing module;
[0031] 50. Output the required structure diagram.
[0032] The code described in step 10 above is a serial code combining numbers and letters, please refer to figure 2 , the code consists of 12 digits, which are specified as follows:
[0033] A: The first digit indicates the type of optical cable, S indicates the GYTA type twisted optical cable, W indicates the GYTA53 type...
Embodiment 2
[0042] see figure 1 , figure 2 and Figure 4 , according to the drawing method of the schematic diagram of the layer-twisted optical cable core structure of the code, it is basically the same as the implementation example 1, the difference is that the code input in step 20 is S02410020060, and the code is parsed into: GYTA-type layer-twisted by the analysis unit computer Type 24-core optical cable, loose tube diameter is 2.00mm, 6-unit structure, national standard full spectrum of optical fiber, national standard full spectrum of loose tube, single-mode optical fiber, four 6-core loose tubes, blue tube, orange tube, Green and brown tubes, 2 filling ropes. Then the computer draws in EXCEL according to the drawing module originally written by VB. Figure 4 The schematic diagram of the cable core structure is shown. Implementation example 3
Embodiment 3
[0043] see figure 1 , figure 2 and Figure 5 , according to the drawing method of the schematic diagram of the layer-twisted optical cable core structure of the code, it is basically the same as the implementation example 1, the difference is that the code input in step 20 is S03210020060, and the code is parsed by the analysis unit computer into: GYTA-type layer-twisted Type 32-core optical cable, loose tube diameter is 2.00mm, 6-unit structure, national standard full color spectrum of optical fiber, national standard full color spectrum of loose tube, single-mode optical fiber, five 6-core loose tubes, blue tube, orange tube, Green tube, brown tube and gray tube, there is a 2-core white loose tube. Then the computer draws in EXCEL according to the drawing module originally written by VB. Figure 5 The schematic diagram of the cable core structure is shown. Implementation example 4
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