Adapting to new advancements in fiber optics – like rollable ribbon – does not have to be complicated. In this blog, Mike Cooper explains how deploying rollable ribbon can be an effective method of saving space. In data centers where fiber optic cables are starting to fill pathways, deploying rollable ribbon can be an effective method of saving space. It is also flexible, like a distribution cable, making it more durable and less susceptible to breaks. Moreover, rollable ribbon splices just like matrix – 12 fibers at a time.
Fujikura Europe’s 90R mass fusion splicers can significantly reduce overall work time, improve network performance, increase capacity, and reduce network congestion. The splicers can significantly shorten overall work time compared with the company’s earlier 70R+ models.
AFL has introduced the RT-02, the first ribbonizing tool that features a glue-less process for ribbonizing and splicing 12-fiber ribbons. The new tool saves users time and money by eliminating inefficiencies such as glue cure time and contamination of splicing equipment.
Berk-Tek this month announced the release of two new cable products.The company’s new, comprehensive line of fiber-optic ribbon cables delivers significant space savings for high-density applications. Also introduced was Berk-Tek’s LANmark-SST, a high-performing, small-diameter Category 6A cable which offers better flexibility, optimized cable management, and improved tray-fill ratio than the average Category 6A cable, making it ideal for high-density installations.
The introduction of 200µm coated fibers in the market is causing a paradigm shift in cabling and splicing technology. These smaller fibers are found in loose fiber cables, and offer many benefits compared to standard 250µm loose fiber cables. The only real disadvantage is that currently most 200µm fiber applications can only be spliced one fiber at a time. If a technician wants to ribbonize these 200µm loose fibers for mass fusion splicing, the simplicity is lost.
This on-demand webinar looks at how optical ribbon is used to minimize deployment costs by supporting mass fusion splicing. Design constraints on traditional flat ribbon cable structures have limited the maximum cable capacity to 864 fibers in a 25 mm cable. Rollable ribbons were developed in Japan to address the design constraints imposed by traditional ribbon structures. The linear array of fibers is intermittently connected by matrix. The intermittent connection breaks the preferential bending of the ribbon structure and allows the use of design rules for a loose fiber or fiber bundle cable while supporting standard mass fusion splicing.