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Custom Fiber Optic Patch Cables from FiberStore

If the demand for more bandwidth is putting a constant strain on your local area network, fiber optics is the answer. Fiber optic patch cable offers the best mix of capacity, security and reliability, without the worry of electrical interface. Optical fiber patch cable is used in a number of applications both in the network place and the home for transferring data from point to point.

In some cases, you may have to use a special cord that may not be in stock in a company. The company may have to order it for you, which may take up to a few weeks to get, or not be able to get it for you at all. Here at FiberStore, we have the capacities of producing high quality fiber optic cords, without the extreme wait. In most cases, we can have your products out of the door in 2-3 days. If you either looking for a particular length of cord that we or someone else does not stock, a certain core or jacking size or even a different connector configuration we can built it.

The optical fiber patch cord is used at cross-connections to connect optical fiber links. They are also used as equipment or work area cords to connect telecommunication equipment to horizontal or backbone cabling. A patch cord can be regarded as a length of optical fiber cable with connectors on both ends. It uses the same connector type and optical fiber type as the optical fiber cabling that it is connected to. FiberStore offers a variety of fiber patch cable types, which is used for either cross-connection of interconnection to equipment shall have a termination configuration defined in clause 6.4 of ANSI/TIA-568-C.3 Clause 6.4 describes configurations for simplex, duplex, and array patch cords. The patch cord comply with the cable transmission performance requirements and physical cable specifications of clause 4.2 and 4.3.1 of ANSI/TIA-568-C.3 and the connectors and adapter requirements of clause 5.2 of ANSI/TIA-568-C.3.

A simplex patch cord is a single fiber cable with simplex connection terminations. A duplex patch cord is a two-fiber cable with duplex connectors. An array patch cord is a multifiber cable with array connectors on each end. FiberStore offer single mode patch cord and multimode fiber patch cable with a variety of connector types such as LC, FC, SC, ST, MU, MTRJ and E2000 Duplex fiber cable consist of two fiber cores and can be either multimode or single mode. Single mode fiber patch cord is primary used for application involving extensive distances, while multimode fiber is ideal for most common local fiber systems as the devices for multimode are far cheaper. The common core sizes of multimode fiber are OM1 62.5 micron and 50 micron in OM2 or 10 Gigabit Laser Optimized OM3.Duplex fiber cables consist of two fiber cores and can be either multimode or single mode. This due core system allows for the bi-directional transfer of data, as opposed to simplex fiber cables. Which typically only propagate data in one direction.

FiberStore designs, develops and manufactures high quality components and systems for the photonics industry at competitive prices. Whether you’re doing new installations or upgrading your existing infrastructure, FiberStore has the right fiber patch cables and assemblies you need, at an affordable price. Most of our products are available for immediate delivery.

The Most Opted Solution For Fiber Optic Networks

Fiber patch cables could be the most opted solution nowadays for the networking and broadcasting industry, mainly in the fiber optic networks. They are strands of optically pure glass as thin as real hair, carrying information via mode of transmission of sunshine. Short patch leads those usually created using stranded wires are flexible patch cables, sometimes might be called patch cords (or patchcords). The fiber optic patchcord is used to plug one device into another.

The fiber patch cables have various uses in most kinds of industries. They are used in medical imaging, mechanical engineering, LAN applications, cable television networks, telephone lines, etc. They’ve revolutionized the entire network industry of telephones, cable, internet, audio applications, etc. The fiber patch cables offer accurate signal transfer that is totally distortion free. Thus because of these cables the audio or video transmission is totally distortion free and crystal clear. Because the fiber patch cables use light like a mode of transmission, there isn’t any hazard of electric interferences or any tampering.

Fiber patch cables are utilized to two nearby components using the fiber connectors on their ends. Different fiber patch cables include their respective connectors. They can be a perfect and easy replacing copper cables because a number of them make use of the same RJ45 connector as copper patch cables.

various parameters fiber patch cables can be found in simplex and duplex, multimode and single mode with ST-ST, ST-SC, SC-SC connectors. The 2 prominent types are single mode and multimode.

Single mode fiber patch cables are used in long-distance high capacity voice applications like telephone transmission or long distance gigabit networking. These fiber patch cables may use 9/125 micron bulk fiber cables and connectors at both ends.

Multimode fiber patch cables are used in computer industry which is standard for data applications like local area network, wide area network, etc. Fiber patch cables in multimode are available in 50 and 62.5 micron. SC, ST, LC, FC, MT-RJ, E2000 and MU connectors have polished ceramic ferrules for precision and durability. The SC and LC duplex fiber patch cables come equipped with a clip to keep polarity. LC to LC fiber patch cable gives unlimited bandwidth at high speeds over long distances. They are ideal for connections between fiber patch panels, hubs, switches, media converters and routers, etc.

FIBERSTORE fiber patch cables provide higher speeds and increased bandwidth, when compared with conventional twisted-pair copper cable. They are suitable for all standard fiber optic equipment and connectors. Ceramic connectors of those fiber patch cables ensure low signal loss and high reliability together with total immunity to electrical and electromagnetic interference. Except normal patch cables, MPO fiber and MPO trunk cable can also be found.

How To Classify Fiber Optic Pigtails

Fiber optic pigtail can be considered as fiber optics patch cords. It comprises a fiber patch connector as well as an optical fiber cable. A fiber patch cable can be divided into two pigtails. Typical applications of fiber pigtail would be to link the fiber optic cable with fiber optic equipment. The connector side is used to link the gear, while the other part is melted together with the other fiber optic cable. By melting together the fiber glasses, it can reach the absolute minimum insertion loss.

Fiber optic pigtail has a number of different interfaces as well as different coupler. Common kinds of fiber optic pigtails are often with 0.9mm fiber cable diameter, and usually installed inside ODF unit. Based on the transfer mode, the fiber connector and the end face type, it can be classified to various kinds.

1) According to the transfer mode, fiber optic pigtails can be divied into Single-mode (sheath color is generally yellow) and Multi-mode (jacket color is usually orange). Single-mode fiber pigtail includes single mode fiber optic cable and terminated with single mode fiber optic connectors at the ends. Multimode fiber pigtail consists of multimode fiber optic cable and terminated with multimode fiber optic connectors at the ends. Obviously, there will be other colors, but many are of both of these colors.

2) According to the fiber connector, there are SC, LC, FC, ST, MTRJ, MU and so on.
The SC pigtail is compliant to IEC, TIA/EIA, NTT and JIS specifications. It is with one piece construction and pulls proof design. SC is inexpensive but high performance, which makes it one of the most popular cables.
The LC pigtail features the RJ-45 style interface with low insertion loss and occasional back reflection; it’s with high precision alignment and is widely used all over the world. It is with zirconia ceramic ferrule. The same time frame, the LC pigtail switch could be connected directly, without a coupler, When pigtail Connect one end from the cable, if you want to protect ought to be used in terminal box, and also the terminal box the best selection out pigtails box directly.
The FC fiber optic pigtail is compliant to IEC, TIA/EIA, NTT and JIS specifications. The FC connector is by using PC, UPC, APC versions. Both single mode and multimode versions have a zirconia ceramic ferrule.
The ST fiber optic pigtail is with metal outer body and with a long spring loaded ferrule contain the optical fiber. ST Cable could be 9/125 single mode or 50/125 multimode or 62.5/125 multimode. ST fiber pigtails connector ferrule interface could be PC, UPC or APC.
The MU fiber optic pigtail is NTT and JIS compliant. It is with tunable zirconia connector ferrule and features the little size, optical and mechanism performance is comparable because the SC. This pigtail has zirconia ceramic ferrule.
The MTRJ pigtail cable end is made of a duplex precision molded MT feruled connector. The MTRJ is by using duplex plastic ferrule and compliant to TIA/EIA 568-A. MTRJ is really a plastic ferrule connector pigtail.

3) Based on the end face type, fiber optic pigtails can be divided into UPC and APC versions. Most commonly used types are SC/APC pigtail, FC/APC pigtail and MU/UPC pigtail.

As the key of fiber optic products manufacturer, FIBERSTORE supplies just about all types of fiber optic pigtail and MPO fiber, not only the most popular versions, but the waterproof fiber pigtails and armored fiber pigtails. They are produced strictly based on IEC standards, and have low insertion loss, high return loss, good interchangeability and repeat push-pull performance, which will make them easy to use.

MEMS Based Variable Optical Attenuators

It is commonly known that fiber optic attenuators are used in fiber optic communications, as fiber optic tester tools to test power level margins by temporarily adding a calibrated amount of signal loss, or installed permanently to properly match transmitter and receiver levels. According to its stability, it divided into fixed fiber optic attenuators and variable optical attenuators. Variable fiber optic attenuators generally use a variable neutral density filter, with advantages of being stable, wavelength insensitive, mode insensitive, it offers a large dynamic range.

With the rapid increases in traffic on optical telecommunications systems, there is an active program for developing transmission devices for use in wavelength division multiplexing (WDM), which is becoming mainstream technology for providing higher transmission speeds and a larger number of signal channels. It has been suggested that in the WDM systems of the future, variation in power due to the wavelength could be reduced a the quality of transmission improved by adjusting the power after demultiplexing into individual signals wavelengths. It is envisaged that the current method, in which the power of all the multiplexed optical signals is adjusted by a single variable optical attenuators (VOA) would give way to a method in which one VOA is used for each wavelength. Given the number of multiplexed wavelengths, this change will require VOAs that are considerably more compact. Against this background, There have developed a VOA using micro-electromechanical system (MEMS) technology with loss characteristics that have low wavelength dependence.

Single-mode fiber was used as the input and output of the VOA developed here, with a graded index fiber having the same diameter, 125um, as the SMF fusion spliced for a specified length, to form an optical coupling with a lens function. An anti-reflection coating is applied to the tip of the GIF (graded index fiber). GIF tip is polished at an angle so that the light beam emitted from the end of the GIF is not aligned with the optical axis of the fiber, but is at an angle to it. This angled optical beam is interrupted by means of a shutter that has been formed by inductively-coupled plasma deep reactive ion etching. The MEMS chip uses a silicon-on-insulator wafer, with the shutter, actuator and fiber grooves formed simultaneously on the chip by ICP-DRIE, followed by metal vapor deposition over the whole chip.

The actuator of the MEMS chip is of the comb type, and the GIF is held in the fiber grooves by means of adhesive. The MEMS chip with this GIF optical coupling system is fixed by adhesive within a casing, which is hermetically sealed.

MEMS variable optical attenuators are variable in three different configurations. The VA series works in transmission, whereas the VP series uses reflection to modulate the attenuation. The VX series is the VP or the VA series in mint plastic packing. In terms of performance, the VP series achieves lower insertion loss and better Polarization dependent loss characteristics. Whereas the VA series allows for an easier array integration and is the lower cost.

FiberStore offers a full line of optical attenuator variable testers, they are often combined with an active system component to maintain optical power on a network even if the power changes in the input signals. Our automatical variable optical attenuators are specifically designed for use in DWDM networks with individual channel source elements such as add/drop transmitters. The cost and performance characteristics of our automatically variable optical attenuators are specifically targeted to allow for the use of these devices in volume as principal DWDM channel stabilization components.

Media Converters Provide Cost-effective Soluton

Network complexity, demanding applications, and also the growing number of devices around the network are driving network speeds and bandwidth requirements higher and forcing longer distance requirements within the LANs. However, Media Converters provide solutions to these complaints, utilizing the optical fiber if it is needed, and integrating new equipment into existing cabling infrastructure.

What is the Media Converter? Media converter can be a device that functions like a transceiver, converting the electrical signal found in copper UTP network cabling into light waves used in fiber optic cabling. It gives you seamless integration of copper and fiber, and other fiber types in Enterprise LAN networks. Media converter supports numerous protocols, data rates and media types.

Fiber optic connectivity is important when the distance between two network devices exceeds the transmission distance of copper cabling. Copper-to-fiber conversion using media converters enables two network devices with copper ports to become connected over extended distances via fiber optic cabling. Media converters provide fiber-to-fiber conversion from multimode fiber to single-mode fiber or single-mode fiber to multimode fiber, and convert a dual fiber link to single fiber using Bi-directional (BIDI) data flow. They can also convert between wavelengths for WDM applications with devices such as WDM multiplexer. Media converters are typically protocol specific and are available to guide a wide variety of network types information rates.

For example, the Fiber-To-Fiber Media Converter can offer connectivity between multimode and single-mode fiber, between different power fiber sources and between dual fiber and single-fiber. It extends a multimode network across single-mode fiber with distances as much as 140km. Within this application, two Gigabit Ethernet switches equipped with multimode fiber ports are connected by using a couple of Gigabit Fiber-To-Fiber Media Converters, which convert the multimode fiber to single-mode and let the cross country connection between the switches. Furthermore, they support conversion from one wavelength to a new with all the single mode to multimode converter or multimode to singlemode media converter. These media converters are usually protocol independent and designed for Ethernet,and TDM applications.

Media converters do a lot more than convert copper-to-fiber and convert between different fiber types. Media converters for Ethernet networks can support integrated switch technology, and offer the opportunity to perform 10/100M and 10/100/1000M rate switching. Additionally, media converters can support advanced bridge features, including VLAN, QoS prioritization, Port Access Control and Bandwidth Control – that facilitate the deployment of recent data, voice and video to get rid of users. Media converters can offer all these sophisticated switch capabilities in a, cost-effective device.

Media converters save CAPEX by enabling interconnection between existing switches, servers, routers and hubs; preserving the investment in legacy equipment. They reduce CAPEX by avoiding the necessity to install new fiber links by enabling WDM technology through wavelength conversion. Media converters also reduce network OPEX by helping troubleshoot and remotely configure network equipment that is at distant locations, not waste time and funds when there is not just a network administrator on the distant location.

Media converters are necessary to produce a more reliable and cost-effective network nowadays. So, where are we able to get high quality Media Converters with reasonable price? Visit Fiber Media Converter Solution in FIBERSTORE now.