Taking PON Architecture Beyond the Cabinet

May 15, 2018

Share this Flipbook
Facebook
Twitter
Email
LinkedIn

Passive Optical Network (PON) by definition uses fiber optic splitter technology to create a point-to-multipoint architecture. In today’s market service providers have the option to deploy either a splice in splitter or a connectorized splitter module within their network. While both technologies are suited to build a reliable network, there are fundamental differences in the installation, troubleshooting, and economic implications for each which should be considered. This paper will review the application based differences between a splice in splitter and a connectorized splitter module while also outlining the advantages to selecting a product designed to facilitate the expanding needs of the PON architecture.

Previous Flipbook

Benefits of Aerial Splicing

A weather-tight splice closure is the most beneficial fiber installation and it creates the optimum environ...

Next Flipbook

288 Fiber Ultra-High Fiber Density Micro-Duct Cable with Extreme Operating Performance

The micro-duct cable is designed to protect the fibers during installation and operation, withstanding over...

Most Recent Flipbooks

500°C-Rated Optical Fibers for High Temperature Applications

Taking PON Architecture Beyond the Cabinet

Previous Flipbook

Next Flipbook

Most Recent Flipbooks

White paper will show how a metal-coated fiber is capable of withstanding temperatures up to 500°C.

A white paper discusses using Anti-rotational devices (ARD) in optical ground wire (OPGW) installations.

The white paper explores the advantages and typical applications of single-jacket and double-jacket ADSS cable designs.

Increasing the fiber count in each individual buffer tube to 24 fibers reduces the size, weight, and cost of the ADSS cable.

AFL investigates and documents each aspect of the cable joining and the ribbon fiber splicing process of ultra-high density fiber optic cable in data center applications and new access networks.

This white paper aims to educate the industry on the different splicer technologies, using technical and data differentiators as opposed to marketing verbiage.

En el mundo de las empalmadoras, Fujikura fue el primero en utilizar tecnología de Bluetooth en una manera que se traduce en verdaderos ahorros monetarios.

Selecting the best bonding assembly configuration is dependent on proximity from the termination or suspension hardware to the support structure, terrain and wind conditions and tower hardware.

This white paper will introduce the larger categories of splice loss estimation methods and applications to better explain in context how the Fujikura's 41S splicer estimation technique performs.

This white paper explores the options electric utilities have to bring fiber deeper into their networks and AFL's FOLLOW THE POWER® approach.

Cost study: Compared to a traditional splicer-cleaver combination, a Bluetooth-enabled splicer/cleaver combination produce a 76% cost of ownership reduction and weeks of time reclaimed.

Demonstration of low attenuation metal-coated optical fiber and cable capable of withstanding temperatures up to 500°C. Performance will be validated by using a DTS instrument to measure temperature.

This paper will further explore some of the advantages of using ADSS cable as opposed to a strand and lash fiber cable for aerial electric utility applications.

This paper presents results obtained by using the high thermal expansion coefficient of the ZBLAN fiber to encapsulate a smaller SiO2 fiber.

In this paper we present an all fiber end pumped 7x1 pump combiner fabricated by CO2 laser splicing system.

Presented and characterized are an optimized cladding mode stripper design that increases the cladding light loss with a minimal device length and manufacturing time.

In this paper, general ball shaped end-caps are studied and illustrated. Different ball shaped end-caps were tested and measured for a variety of applications.

By offsetting the light structure, precise localized zone heating and annealing of specific areas at a fiber’s surface can be achieved as well.

DWDM allows you to add additional capacity without replacing your existing CWDM infrastructure and with minimal—if any—service interruption.

The new ultra-density fiber optic cable technology, called Wrapping Tube Cable (WTC), utilizes a new optical fiber ribbon arrangement technology called SpiderWeb Ribbon (SWR®).