How Transceiver Chips Work

Optical transceivers are integrated circuit chips that route and receive information. These optical transceivers use fiber circuits to route and receive information rather than basic electrical wire. The term for sending data through cable wire and fiber interfaces is fiber optic circuits.  Extremely quick speeds are routed through these transceiver chips connecting central hubs to end users.  An easy way to understand their function: these transceivers can join your home and office networks as well as things like television and phone services at record speeds.

This new technology in transceiver chips is creating high speeds of information transfer rates.  Tests have shown that these transceivers can transfer information up to 160 Gbps. In comparison, these transceivers can link you to the internet at a transmission of 1,600 times higher than Ethernet.  These small transceiver chips are created from semi-conductor materials. They are tiny in size but big in power.  This advancement is useful for a number of reasons besides internet connection.  They can reduce the download time for motion pictures, and are useful for residence and business, local and wide range networks.

These physical form factors are transceiver fibers   created with industry standards.  Under the Multi-Source Agreement, all professional developers are held to the same design rules.  These transceivers are grouped into support transfer speeds. These rates range from 1 Gbps to 10 Gbps, with each fiber designed to support specific speeds. 1 Gbps transceiver form factors are normally known as SFP modules and SFP modules. Supported speeds for this exact module range from 100 Mbps to 4 Gbps.  Form factors with other names are X2, XFP and Xenpak. These transceivers support a speed range of up to 10 Gbps.

As an example, a GBIC module is utilized with one end plugged into an Ethernet port and another end that links a fiber optic patch cord with a fiber optic network.  This optic functions as a transformation for information between a fiber optic network and Ethernet.  This transceiver is classified by its optical wavelength, transmission rate, power and working distance.  Hot pluggable modules make switching interfaces from one type of external device to another easy.

Another detailed example of transceiver chips are Xenpak modules.  These pluggable modules were designed by the MSA agreement and pushed by Agilent Technologies and Agere Systems.  There is a wide range of these that work with copper line, multimode optical fiber line, and single mode optical fiber line.  They are the largest in size of 10G transceiver fiber modules, and contain a dual SC fiber interface.  The working distance of multimode fiber lines is 300 meters, while copper lines span 15 meters.

You will continuously see further developments of fiber optic interfaces that will continue to improve their rates and power abilities, joining you to networks and entertainment sources faster.  This technology will remain at the head of the industry with the development standards held by the Multi-Source Agreement.

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