Integrated fiber fusion module

Abstract

The invention relates to an integrated optical fiber melting module which comprises a melting base and a platform cover which are buckled mutually, wherein two fiber winding zones for winding fibers are arranged on the melting base, a welding zone for welding the optical fibers is arranged between the two fiber winding zones, and gaps are reserved among the welding zone and the two fiber winding zones. Upper fiber storing rails and lower fiber storing rails are arranged in the fiber winding zones and partitioned through a plurality of fiber blocking plates. An external optical fiber enters into a welding platform positioned in the middle directly through the upper fiber storing rails and is welded with a distribution tail fiber on the welding platform. The distribution tail fiber passes through coiled paths of the upper fiber storing rails and the lower fiber storing rails and an adapter clamping seat to be connected with users. Different from the conventional design that an optical fiber distribution plate and a welding plate are split, the integrated optical fiber melting module integrates the optical fiber distribution plate and the welding plate, coiled paths of the external optical fiber and the distribution tail fiber are independent to each other and are not overlapped, and therefore, convenience is brought to uses to perform on-site operation.

Description

technical field [0001] The invention belongs to the technical field of optical fiber fusion for wireless communication, and in particular relates to an integrated optical fiber fusion module. Background technique [0002] In the field of optical fiber communication, two types of modules are generally required to be configured at the junction point of the backbone layer optical cable and the distribution layer optical cable in order to facilitate the termination and jumper of the optical cable: a distribution panel and a fusion splicing panel. Generally, the splicing tray is stacked on the wiring tray, and the two are snap-fitted or connected by a rotating shaft. When in use, the distribution pigtails are stored around the distribution tray, and enter the fusion splice tray through the hole on the distribution tray, and are fused with the external optical cable on the fusion splice tray to realize the connection of optical fiber routing. However, there are many defects in th...

AI Technical Summary

Problems solved by technology

[0004] 2. The complexity of the structure leads to an increase in processing raw materials, which makes the cost higher;

[0005] 3. The optical fiber routing is single, and it is impossible to configure distribution pigtails and access optical cables with a wide range of lengths according to customer needs or cost requirements;

[0006] 4. The operation is cumbersome. The wiring pigtails need to be stored in the distribution panel first, and then enter the splicing panel, which brings a lot of inconvenience to users.

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