Introduction of Fiber Splice Tray

Fiber splice tray is designed to provide a place to store the fiber cables and splices and prevent them from becoming damaged or being misplaced. It is also called as splice enclosure or splice organizer. This device does not contain any technical functions, and the design is simple. Also, it has a very low price for people to afford. However, the importance of fiber splice tray for protecting fibers is significant. And the skills needed for using fiber splice tray is not as simple as you think.

Function of Fiber Splice Tray

With such a simple structure, you may wonder how the fiber splice tray actually works. Here is the brief introduction of its working function: The incoming cable is brought into the splicing center where the outside jacket of the cable is stripped away. The fibers are then looped completely around the tray and into a splice holder. Different holders are available for different types of splices. The fibers are then spliced onto the outgoing cable if it is an intermediate point or on to pigtails if it is a termination point. These are also looped completely around the tray and then fed out of the tray.

Installation Procedures

The installation procedures can be divided into five steps:

Step one, route fibers into splice tray using spiral transportation or fiber furcation tubes and secure with cable ties.


Step two, splice fibers per local practice.


Step three, place spliced fibers into the sleeve holders arranged by color code.


Step four, carefully coil the outgoing fiber slack into the tray (coil 1).


Step five, carefully coil incoming fiber slack into the tray (coil 2).



Fiber splice trays are usually placed in the middle of a route where cables are required to be joined or at the termination and patch panel points at the end of the cable runs. Also, splices can be placed in a splice tray which is then placed inside a splice closure for OSP (outside plant) installations or a patch panel box for premises applications. As for indoor application, fiber splice trays are often integrated into patch panels to provide for connections to the fibers.


As a protection for fiber splices, fiber splice tray is no doubt the most cost-effective device. This simple design solves a lot of problems during fiber cables installation. Fiberstore provides different shaped splice trays with different fiber capacities in a competitive price. If you are interested, FS.COM is a good place to go.

How to Terminate Fiber Optic Cables?

Since the late 1970s, various connectors and termination methods have been brought to market. Now in the common case, cables are terminated in two ways: use connectors to make two fibers jointed or to connect the fiber to other network gears; use splices to make a permanent joint between two fibers. And for the former method, you may have little confusions to deal with it. So today this paper will teach you how to terminate by taking an example of fiber optic cable using epoxy.

First and foremost, use a proper fiber stripper to carefully slide the jacket off of the fiber to a bare fiber. When you are doing this, be careful that try to avoid breaking the fragile glass fiber. After that, mix the epoxy resin and hardener together and load it into a syringe (If you use the pre-loaded epoxy syringes that are premixed and kept frozen until use, then you don’t do that). And next you must inject the epoxy from the syringe directly into the connector ferrule.

Fiber Stripping Tool

Once you have well prepared the epoxy for your connector, you can insert the fiber cable gently into the terminus inside the connector wall and make the bare fiber core stick out about a half an inch from the front of the ferrule. In the case that your cable is jacketed, you may need a crimping tool, such as Sunkit Modular Crimping Tool, to secure the connector to the jacket and strength the cables. Usually two crimp tools would be perfect to this operation.

Next, you can just wait the epoxy to cure. During this process, in order to make sure the end of the fiber is not damaged while curing, you should place the connected end in a curing holder. And when this is done, just place the cable and curing holder into a curing oven. But you may worry about “wicking” while curing with a conventional oven. All you have to do to avoid that is to make the end face down, which can ensure the epoxy does not come out of the back side of the connector and compromise the strength member of the cable. Remember: your epoxy curing must in accurate times and temperatures.

After the epoxy cured sufficiently, fiber cleaver tools will be in use to cleave the excess protruding fiber core so that it could make the fiber close as much as possible to the ferrule tip in case of fiber twisting. Once cleaved, you have to dispose of the fiber clipping. There is a point you should think highly of that you must use a regular piece of tape to retain your fiber debris, or they will easily end up in your skin or even in your eyes or respiratory system.

High Precision Fiber Optic Cleaver

When you finished the fiber cleaved work, you could need fiber polishing tool to remove the excess epoxy from the ferrule tip and buff out any imperfections on the surface of the fiber. A smooth fiber surface can help to reduce the loss of the light. Last, if you have done all the above work, you may move on to the cleaning of the ferrule and fiber tip. After that, the whole termination procedure is done.

If you want to terminate your fiber optic cables by hands, you can follow the above steps. But before you get down to it, you must prepare the tools first that I have mentioned in this paper. All these tools can be found in Fiberstore with good quality and low price. In addition, Fiberstore also can provide the termination tool kits that may be helpful to you. For more details, you could visit

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Some Special Tools for Fiber Optics From Fiberstore

As we know, splicers will need much the same tools to open and set up a fiber splice as they want a copper splice. The usual cable knife, tabbing shears, etc, are required, along with a few specially tools used only for fiber splicing.

Once the sheath has been opened and the field bonded in the standard fashion, a buffer tube cutter is required to score the hard, gel-filled buffer tubes. Caution should be exercised when performing this operation, because the buffer tubes contain fibers that are protected only by their primary coating. Use this tool only to score the tube and not to cut it. After opening up an express run (straight through cable), the splicer will have to use a tube splitter tool to remove the buffer tube bu running it along the tube, which then splits. Other handy tools include ceramic scissors for cutting the Kevlar in many cables, a magnifier for close-up examination of the fiber end face, and masking tapes for scarp containment. Alcohol with lint-free pads and a Fiber Optic Stripper are also requirement.

Fiber Optic Stripper

Most critical of all, however, is the choice of splitter. With the exception of the AMP Optimal splice/workstation (the splitter is built in), every fiber optic splice requires the use of a separate splitter. This tool, carrying in price 150 dollars to 2,500 dollars, can make or break a splicer’s day. The Fiber splitter on the end of a fiber is the most critical part of a successful splice, so it is advised to purchase and use a high-quality splitter. In my experience, at least half of all failed fiber splices are a direct result of a bad cleave from a cheap splitter. This is not the place to save money.

Unlike testing copper cable, testing fiber cable is easy and fun, Only two tests are specified by the EIA/TIA and most firms don’t even require those. The four basic tests that can be performed on fiber are the continuity test, received power test, single-ended test, and double-ended test, the continuity test can be performed quickly and easily with as little equipment as a 10 dollars flashlight, while the received power test requires the use of a power meter, which can be purchased for as little as 500 dollars. The other two EIA/TIA test procedures require the use of a light source, power meter, and several good jumper cords. Kits containing this equipment are available for as little as 1,000 dollars.

The optical time domain reflectometer (OTDR) is an expensive instrument used primarily for acceptance testing and fault locating on long-haul single-mode fiber systems. This is called the “blind spot” or “dead zone.” However, once outside the dead zone, the OTDR is used primarily for reading insertion loss and back reflection at splice points. This instrument is not designed to give accurate end-to-end loss measurements on a fiber system. Use the standard for this test. OTDRs may be purchased for one or two wavelengths and may be single mode, multimode, or contain launch modules for both modes of operation. Prices vary from slightly less than 10000 dollars to as much as 45,000 dollars, depending on features desired.

Fiber optic cables are becoming the predominant medium of the ’90s and on into the 21st century. The necessary equipment, tools, and materials are more sophisticated than those used for copper splicing and trouble-shooting, but they are coming down in price as competition increase in this field. The wide bandwidth of fiber transmission will continue to drive improvements in fiber optics as voice, video, and data find their way into homes.

Fiberstore, as you know, it provides all kinds of fiber optical products include what you need, and it can supply custom service, we can according to your needs to make up it, I think it is the feature that many store can not do like this. Except this, the price is also exciting, almost products are doing 30% discount on the price, I really recommend you to have a try, it must bring you big surprise…

Fiber Optic Visual Light Testers from FiberStore

Visual fault locators can be part of OTDR, which is able to locate the breakpoint, bending or cracking of the fiber glass. It can also locate the fault of OTDR dead zone and make fiber identification from one end to the other end. Fiber optic visual fault locators include the pen type, the handheld type and portable visual fault locator. FiberStore also supply a new kind of fiber optic laser tester that can locates fault up to 30km in fiber optic cable.fiber testing red light

The new visual fault locator fiber optic laser tester 30km is especially designed for field personnel who need an efficient and economical tool for fiber tracking, fiber routing and continuity checking in an optical network during and after installation. It can send fiber testing red light through fiber optic cables, then the breaks or faults in the fiber will refract the light, creating a bright glow around the faulty area. Its pen shape made it very easy to carry, and its Cu-alloy material shell made it sturdy and durable, 2.5nm universal interface make it more attractive. The inspection distance various according to different mode.

Easy to check fiber faults with visual red laser light
FC, SC, ST General interface
Sturdy and durable shell
Constant output power
Long inspection distance
Operates in either CW (Continuous wave) or pulse (Both modes are available)
Pen pattern design, convenient for use and carry
Dust-proof design keeps fiber connectors clean

Compact in size, light in weight, red laser output, both SM and MM available

FiberStore provides enough stock of fiber optic visual light testers which usually be shipped out in a short time, and can be shipped out in 2-4 business days. We offer 1 years warranty for the quality of these products, so customers can place the order with 100% confidence!

CWDM System Testing Process

With the explosion of CWDM, it is very necessary to formulate a basic testing procedure to certifying and troubleshooting CWDM networks during installation and maintenance. Today, one of the most commonly available test methods is the use of an OTDR or power source and meter, which is capable of testing the most commonly wavelengths, 1310, 1490, 1550 and 1625nm.

This article here is based on the pre-connectorized plug and play CWDM systems that allow for connecting to test equipment in the field:

In the multiplexing module of a pre-connectorized CWDM system, wavelengths are added to the network through the filters and transmitted through the common port. The transmitted wavelengths enter the COM port in the de-multiplexing module and are dropped. All other wavelengths present at the MUX/DeMux module are went through the express port.

Most of today’s OTDRs have expanded capability for testing wavelengths in addition to 1310 and 1550 nm. The OTDR allows partial testing of such system offered in test equipment source. The OTDR allows partial testing of these systems by using the flexibility of pre-connectorized solutions. This is done by switching connections within the CWDM field terminal to allow for testing portions of the non-1310/1550 nm optical paths.

To test the 1310nm, the first step is to test the downstream portion of a system at 1310 nm by connecting the OTDR to the 1310 nm input on the CWDM MUX located at the headend. Then switch the test leads over the the upstream side and repeat. Test method is the same for both the downstream and upstream paths.

1550 nm testing is performed similarly by switching the test leads to the 1550nm ports. If additional wavelengths are present, you need to follow the procedures below:

Using the 1550 nm test wavelength, switch the OTDR connection to the 1550 nm input port on the headend MUX. Have a technician stationed at the field terminal connect the drop cable leg connectors for the 1570 nm customer to the 1550 nm port on the Mux/demux device. What should be noted is that in a play and plug solution this should not require repositioning where the drop cable passes through the OSP terminal. Test the downstream 1570 nm passive link at 1550 nm, and then repeat for the 1570 nm upstream side. When testing is complete, have the technician switch the connections for the 1570 nm drop back to the 1570 nm ports on the field MUX/DeMUX device as shown in Figure 6. Repeat this process for the 1590 nm, 1610 nm drop cables and other wavelengths present. Finally, test the 1550 nm path normally with the 1550 nm drop cable connected to the 1550nm MUX/DeMUX ports.

Since the OTDRs is able to test at 1490 or 1625 nm, the drop cables under test could be connected to the EXP port of the module and tested at 1490 or 1625 nm respective wavelength, without having to connect each to the 1550 nm port. Otherwise the procedure is the same.

As CWDM network become more and more common the data they carrying has also become critical. The procedure introduced here allows for testing modular pre-connectorized CWDM systems with standard optical test equipments. Relative channel power can be measured with a wide-band fiber optic power meter at the filter outputs or at other points in the network with the aid of a wavelength selective test device or with an optical spectrum analyzer.