Let’s start by defining what an MPO is. MPOs are an abbreviation for Multi-Fiber Push On, which is a type of fiber connector.This type of connector makes it easy to connect and disconnect from adapter panels, wall plates, and other fiber couplers.
What makes this connector MPO so special is that it is known as a “high-density” fiber, which means that it holds multiple fibers in one cable. Whereas an LC or SC connector is just one terminated ferrule, MPOs often have 12 to 24 ferrules at their end. This maximizes server rack space and cuts down cable management because one MPO cable is the equivalent of over 12 connectors. MPOs are also very versatile as they can be found in a variety of different cable styles. MPO Patch Cables are useful when working in a server setting because they can easily be connected from one part of a server rack to another. Similarly, MPO Trunk Cables do the same thing except they can carry more information because of their double ends. Some trunk cables can even have up to six ends on one side. Finally, MPO Harness Cables make it quick and easy to split off one MPO end into multiple different SC or LC connectors.
All MPOs are built with either a male or female connector end. Female connectors can be identified by the two cable pins on the end of the connector. Female connectors are designed very similar to male connectors with the only difference being the two pins being removed with two little holes.
Another important physical feature of MPO cables is the key that helps lock the connectors in place. It’s also an important factor in connector polarity which is a topic we’ll talk about in more detail down the line.
The most important thing you should know about MPO cables is that they are able to send a ton of information at extremely high speeds. Depending on the Multimode type, an MPO cable can send at least 40G and up to 100G of information over hundreds of meters. These cables are most commonly used in big tech company server rooms or companies that need to be constantly sending and receiving large portions of data. In other words, you would never see MPO cables utilized in a home setting, at least not anytime soon.
The biggest difference between MPO and MTP® connectors is that MTP® connectors have a small little clamp which makes attachment to server racks or other MPO cables a lot more secure. MTP® and MPO are the same thing, but let me explain. MTP® connectors are a type of MPO cable which is a registered trademark of US Conec. In other words, all MTP® connectors are MPO cables, but not all MPO cables are MTP®. Kind of like how all Kleenex are tissues, but not all tissues are Kleenex; MTP® connectors are simply a brand name. At Fiber Savvy, we carry MTP® cables from US Conec but we also carry other brands of MPO cable. However, for the sake of your understanding, we will refer to MPO cables and MTP® cables interchangeably for the rest of this blog.
Another important thing to address is the polarity of the cables. Because LC and SC connectors are just one ferrule, it’s not difficult to figure out where one of the connectors needs to go. However, since connector MPOs are 12 fibers wide, you need to keep track of each light signal and where it’s going to be delivered. For this reason, there are some common polarity types that are used with MTP® MPO connectors. Use the image below as a visual reference as fiber polarity may be hard to understand. The first type of polarity is type A, or the straight type, which is where the key of the connector is up on one side and underneath the other end. The key is located on the top side of one end of the cable and on the underside of the other end. However, the fibers run straight across to the other side. Type B, also known as the reversed type, is similar to the Type A polarity with the only difference being that the key is on the top side of both of the cables. Finally, the last polarity type is Type C, or the flipped pairs type. This type of polarity swaps the pairs of each bundle of two. The end of one side also has the key on the bottom side, similar to Type A. Below you will see examples of the MTP® MPO cable polarity types.
also referred to as straight through, connects fiber 1 in the first cassette to fiber 1 in the second cassette, following this pattern through each of the 12 fiber positions—see table 1.0 below. One end is key up and the other end is in the key down position.
also referred to as cross or flipped, connects fiber 1 in the first cassette to fiber 12 in the second cassette, following this pattern through each of the 12 fiber positions, with the last being 12-1—see table 1.1 below. Both ends are in the key up position.
also referred to as cross pair or rollover, connects fiber numbers in pairs, starting with 1-2 and 2-1 on one end, 11-12 and 12-11 on the other end—see table 1.2 below for all of the fiber pairings. One end is key up and the other end is in the key down position.
Now we know how MPO cables are structured, how fast they can transfer data, and which polarity types are most commonly used. Now we ask, what would be a practical application for these cables? The most important thing to note is that no matter how fast data transfer speeds of a cable might be, the speed of your internet is only as capable as your switch or converter. Most homeowners and even most offices wouldn’t benefit from having MTP® MPO cables as their network setups wouldn’t be able to handle the speeds. In fact, the only businesses who would benefit from MTP® cables at this time would be large scale corporations such as Google or Apple or companies that constantly need to be sending and receiving large portions of information, like a company with a large server room.
In review, MPO connectors are a type of fiber connector that deliver better, faster speeds. MTP® cables are a type of MPO cable created by US Conec, the company that popularized the cable. We also took a look at the polarity of the MPO cables. We hope this information is helpful.
Recently, some new terms have been gaining popularity in the cable community, which is probably why you’re here reading this. If you’ve looked for cables recently, you may have noticed These terms are MC cable and BX cable. What kind of cables are these? What can they be used for and why have they recently gotten more attention? We hope to clear up any sort of confusion you might have about these cables and more.
]]>Recently, some new terms have been gaining popularity in the cable community, which is probably why you’re here reading this. If you’ve looked for cables recently, you may have noticed These terms are MC cable and BX cable. What kind of cables are these? What can they be used for and why have they recently gotten more attention? We hope to clear up any sort of confusion you might have about these cables and more.
The first thing you need to know about these terms is that BX cable and MC cable are both referring to armored cable. BX cable is actually a branded name for AC or armored cable. The same way we refer to any medical adhesive strip as Band-Aids, BX cable is simply the name a company chose for their armored cable and it just stuck. MC cable is easier to remember because it’s an abbreviation for “metal clad” or “metallic-sheathed cable.”
So is there any significant difference between BX vs MC cable? They’re very similar in most regards, but there is one big difference between the two cables. In the electrical world, AC or BX cables do not come with a ground wire while MC cables do. So, if you’re looking to buy armored fiber then MC Armored Cable is not what you’re looking for. But since we’re here to sell fiber, not electrical cable, there is no significant difference. Both are essentially just names for armored cable. When fiber is armored, it has a conductive jacket because the material is made from metal, usually aluminum or steel. Because of this, the cable jacket will read OFCP or OFCR depending on your jacket’s fire rating. For more information, please read our Guide to Cable Jackets blog.
Now we can talk about the application for armored fiber cable. Let’s start with outdoor armored fiber optic cable. Outdoor cable consists of a black PVC jacket which contains the loose strands of fiber along with a ripcord. However, because this cable is an MC cable, surrounding the loose tube fiber is a steel tape. Because this cable is meant for direct burial, the steel tape is meant to add a layer of extra protection. This steel tape is meant to deter outdoor rodents such as moles and gophers from chewing on the cable jackets and ruining the fiber cores inside. Underneath the tape is a water blocking strip that absorbs water and keeps moisture from getting to the fiber cores within. This combination is specifically designed to protect from the harsh outdoor elements. The cable within the water blocking strip is typically a loose tube rather than a tight buffer because it’s cheaper to manufacture for long runs. Outdoor cable is usually OS2 or Single Mode fiber, which simply means that it’s meant to send one signal for significantly longer distances. If you’re looking for outdoor armored fiber cable, our best selling option is Taihan OSP Outdoor Armored Fiber. However, because the outdoor bx armored cable isn’t fire rated, you’re not allowed to run this cable more than 50 FT indoors. For that, you will need some indoor/outdoor fiber optic cable.
A reason why you might typically use outdoor armored cable are for building to building runs on a school campus or facilities with larger distances between buildings. Outdoor armored fiber will ensure that your fiber is protected from most elements with little to no damage or latency to your signal.
The body of the indoor armored fiber cable is obviously meant for indoor use. It’s designed with a more flexible PVC jacket and is colored depending on the type of fiber mode you purchase. Indoor fiber is usually OM1, OM3, or OM4 fiber, also known as Multimode. Multimode sends multiple light signals for shorter distances. The jacket for indoor fiber also comes in plenum and riser varieties. Riser cables are most commonly used and found in areas where cable travels up a building and can be used as the main form of cabling in smaller buildings. Plenum on the other hand, is cabling that is used in plenum air spaces or areas of a building where unseen fires might occur. This cable is also reserved for taller multi-story buildings. These are required in building codes. For more information on Jacket varieties, check out our blog on Fiber Cable Jackets. The indoor fiber mc cable is made up of the aluminum casing which spirals around the fibers. Underneath the aluminum casing, you will find some water blocking tape which expands if moisture makes it through the jacket. Within the water blocking tape, you will find the fiber cores which are tight-buffered. Unlike the outdoor armored cable, the indoor cable’s tight-buffering makes fiber organization easier. Just like with the outdoor fiber, the indoor armored fiber is meant to deter creatures such as rodents from chewing on the fiber cores. Because indoor cable is meant to be shifted and moved constantly, the PVC jacket and cores inside are meant to be a lot more flexible than the outdoor armored fiber cable. If you’re interested in a solid choice for indoor armored fiber optic cable, then we carry a variety of great options from Corning. Our recommendation would be the Plenum OM4 Armored Cable varieties.
One of the common complaints that most people have with using armored cable is that they can’t figure out how to cut it open, or strip it once it’s cut. While you may be able to get away with cutting a copper wire cable with a hacksaw, fiber cable requires a little more care. Cutting fiber with the wrong tools could crack the glass and ruin it’s usability. The jacket and armor itself can be cut off with a cable stripping tool but for the fiber itself, it’s recommended that you use a special cutter called a cleaver. Fiber cleavers ensure that the fibers are cut to the desired length without the fear of broken or damaged glass cores. These may be a bit on the pricier side, but will save you time and money trying to find an alternative.
So you’ve read this far and still aren’t convinced about the benefits of armored cable? Well, maybe this type of cable isn’t actually the best choice for you. There are plenty of benefits to other cables as well. Just remember that every cable will have it’s benefits and downsides. While regular outdoor fiber cable might be cheaper than armored, you also need to think about the conduit that your cable will be running through as it can’t be directly buried like armored cable can. For indoor cable, if rodents begin chewing on the cable jackets, you won’t have the benefit of the aluminum shielding of armored cable. Besides being a little more expensive, there is really no downside to purchasing armored cable over regular fiber cable. Here is a more robust pros and cons list.
Pros
Cons
At the very least we hope this has helped you out a bit. Whether you are planning on purchasing some of our armored cable or you were just curious about what mc cable or bx cable is, We hope that you were able to find what you needed. For more blogs or products just visit our website at FiberSavvy.com.
]]>For starters, let’s break down the acronym to its most basic level and define each part so that we can look at any cable jacket and be able to tell what kind of application it can be used for. We’ve also included this helpful infographic.
Let’s start with the OF, which stands for optical fiber or optic fiber. This may seem pretty self explanatory but this part of the acronym simply lets us know that we’re dealing with a fiber cable and not a category cable or coax cable. Whenever the acronym begins with OF it will always be a fiber optic cable. The next part of the acronym is NC which stands for either Non-Conductive or Conductive. This lets us know whether the cable we’re working with is going to contain a conductive material. This might be helpful to know if your project requires your fiber cable to be in close proximity with materials that might give off some electromagnetic signal such as category cable. Finally, the GRP of the acronym stands for General-Purpose, Riser, or Plenum. Arguably the most important part of the acronym, this part lets us know what the cable’s jacket fire rating is. General-Purpose is the cheapest of the cable jacket lineup, but it’s also the least practical. This cable can catch fire and produce a ton of smoke if used in an area where fires can be common. The next cable rating is Riser, which is a bit more flame resistant than general-purpose but can still catch fire and produce smoke. The most flame resistant cable jacket by far is the Plenum rated cable. Plenum is the most versatile of the bunch and can resist flame and smoke for the longest.
Depending on your network, a few parts you might want to check out FB15-3738-S2P for OS2 Single Mode fiber or KQ006C641801-BIF OM4 Multimode fiber.
So now that we’ve seen what each of the letters in the acronym mean, when we put them together, we can tell a lot about a cable just by reading it’s jacket. If it’s labeled as OFNR we know that it’s a non-conductive, riser-rated fiber optic cable. If the label says OFCP, we know that it’s a conductive, plenum-rated fiber cable.
Now that we can properly identify which cable is which, we need to know where our cables can be used. We’ve also included another infographic to help clarify this for our visual learners.
Starting from the bottom, General-Purpose cable has the lowest fire rated jacket, and thus can’t be used in the same ways that riser or plenum rated cables can be. General-Purpose cable can still be used in areas that don’t have a strict fire code or areas where the cable can be visibly inspected. If you look at the graphic above, the general-purpose cable is in the same room as the workers and visible to ensure that it’s safe and protected from fire. The next cable application is Riser cable, which is mainly used in the walls of a building. Because riser jackets are more fire resistant, they can be tucked away and used in more areas than general-purpose. As stated in the previous section, Plenum is the most versatile because it has the highest resistance to flame and smoke. Because of this, plenum cable is used in the plenum areas of ceilings, air ducts, and areas where the risk of an unseen fire is more common.
Another important thing to note is that higher rated cable jackets can be used in lower rated settings but lower rated cable jackets can’t be used in higher rated areas. For example, plenum cable can be used for general-purpose cable application but general-purpose cannot be used for riser or plenum applications. For this reason, in most modern buildings installers will even use plenum rated cable for riser or general-purpose application.
At this point you probably have a good idea about what each cable can be used for but maybe you’re still not sure what kind of cable you need for your project. Well the short answer is it depends. Don’t just think about what you’re going to be using the cable for, think about where you’re going to keep it. If you’re going to be using the cable for indoor application, what part of the building will it be in? Is it a high risk area for fire? Not only that, but maybe you might also have other types of cabling near the fiber. Consider the non-conductive varieties for those types of applications. In general, your safest bet for any job is always going to be plenum. Its high resistance to fire makes it the ideal candidate for any job. For a great selection of Plenum Rated Micro-Distribution or Plenum Rated Distribution Fiber, check out what we have in stock. What if you’re going to be using the cable outside? Well now we have a few things to consider. Nature has a way of messing up certain material by way of corrosion, animals, insects, etc. In that case you might want to go with an armored fiber which is usually a type of OFC. That was a test. Did you pass? OFC would be a conductive fiber cable. Our armored fiber cables are protected by an aluminum shell that hides under the jacket. Armored fiber cables are great for the outdoors or indoors where rats might try to chew through wires. This extra layer of protection will ensure that your fiber network will last a good few years. Top that off with a plenum rated jacket and now you have twice the protection from the elements. Check out our collection of Plenum Armored Fiber to see which cable is right for you.
If you're looking to start up your fiber network on a budget, you could always settle for the riser variety as it's a cheaper alternative and can still be used in a variety of different settings. If you're interested in those, check out our riser cable options in Distribution Fiber and Armored Fiber as well.
If you still have more questions about the practical application of any of these cable jacket ratings, here’s a helpful video.
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Fiber patch panels are a critical piece of the networking puzzle. Fiber patch panels, also known as fiber distribution units (FDU or Fiber FDU), offer organization and security to the cables inside. Rackmount Fiber Patch Panels are a specific type of patch panel that typically go in a server rack or on a rack in an office or data center. Patch panel termination is made possible in a centralized location with all the cables in your network with Rackmount Fiber Patch Panels.
Rackmount Patch Panels are typically stored horizontally, though they can be stored vertically, and are designed in different size variations called "Rack Units." A rack unit is 1.75 vertical inches, so a 1 RU fiber patch panel takes up 1.75" while a 2U fiber patch panel takes up 3" of server space. Check out our selection of Rackmount Patch Panels from 1U to 8.5U.
In addition to Rack Units, rackmount patch panels also vary in their number of adapter panels. We carry a variety of LGX Style Adapter Panels to fit with your fiber patch panels. A 1U unit can have 2 to 3 adapter panels, a 2U rack can have up to 6 adapter panels, a 4U unit can have up to 12 panels, and an 8U can have up to 24 adapter panels. LGX Adapter panels have a specific number of strands they can accommodate depending on their design, but as long as the adapter panel can fit the strands, the network patch panel will not impede the strand count. In addition, fiber rack mount patch panels have the ability to come blank or pre loaded with the adapters needed for a given project.
Because Patch Panels may need to be changed or updated, we carry slide out and swing out versions of our Rack Mount Patch Panel. Both designs offer accessibility and convenience in operating and servicing your network. Since the connections are made via the patch panels, it eliminates the need to unplug cables from the devices and diminishes the wear and tear of ports on important networking devices.
Rackmount Patch Panels are a great option for FTTx, data center, and telecommunication networks. They can accommodate various adapter panels and strand counts depending on the size of the patch panel. If a rackmount patch panel does not fit your needs, check out our blog posts on Wall Mount Fiber Patch Panels and Outdoor Patch Panels to see which fiber patch panel types can complete your network! If you have any questions about building a network from end to end, call our knowledgable team today!
]]>When you are setting up a new or existing network in your home or business one of the questions you might be asking yourself is "What type of Fiber Optic Distribution Unit should I use?" and that is a great question. There are a few types of Fiber Distribution Units, each with their own advantages over the other, and in this blog we are going to break down the different types of Fiber Distribution Units, also known as FDU's, Fiber Distribution Boxes, Fiber Patch Panel and Fiber Termination Units. Check out our other blogs if you are interested in Rackmount Patch Panels or Outdoor Patch Panels.
Wall Mount fiber patch panels are designed to be affixed onto a wall or can be adapted to be secured onto a pole. Like other patch panels, they are meant to be a network termination point while maintaining organization and security. The fiber wall mount patch panel is a convenient means of terminating connections because it can be used with fiber pigtails for splicing, or it can accommodate pre-terminated fibers with connectors by coming loaded with adapter panels.
A fiber patch panel has an entrance point for incoming cables, a splice tray, and an exit point for split cables. The splice tray joins incoming cable with either a pigtail or a connector to continue the transmission of signal. The best connection comes from splicing the cable with a Fiber Pigtail. The other option is to use a connector and field termination.
One advantage of wall mount fiber patch panels is the space saving aspect. Because it can be mounted on a wall, it saves space in your office or networking closet by eliminating the need for a rack or desk. All that is needed is enough space for the unit to be mounted onto the wall and for the doors to open. Some wall mount patch panels will be designed with multiple layers so installers and servicers can access specific components with ease.
Wall Mount fiber patch panels can come either loaded with pigtails or connectors, or blank so the servicer can install the necessary components individually. We also offer wall mount distribution boxes that can accommodate from 2 to 576 splices, and 2 to 144 ports. Depending on your project these patch panels can utilize LC, SC, and ST connectors in order to terminate the different fiber types.
If desk or rack space is a concern, a Wall Mount Fiber Patch Panel may be just what you need to terminate your cables and safeguard your network. Each patch panel is given a rating, either for indoor or outdoor, and that can give more insight into which wall mount patch panel is right for you. With dust tight and lockable options, wall mount patch panels can protect your network from interference and the environment. Check out our extensive selection today and call our team at Fiber Savvy if you have any questions!
]]>The fiber optic connector terminates the end of a fiber optic cable and offers quicker connection and disconnection compared to splicing. Connectors match up the fibers from the cables so they are aligned and allow light to pass through and continue signal transmission. High quality connectors prevent misalignment and air gaps between fibers, minimizing the reflection or loss of signal. Of the many different fiber connector types, connectors for both glass fiber cable and plastic fiber optic cable are available. Some manufacturers will assemble the connectors onto the fiber cable before distributing the cable, making it a quicker and easier install. But depending on the project field assembly may be preferred.
There are a number of connector styles on the market including LC, FC, MTP/MPO, and SC Connectors, which are the most popular connectors. Manufacturers and distributors are more likely to have equipment to accommodate SC and ST style connectors than any other connector style.
Fiber Savvy stocks your fiber connector needs with, LC Connectors, SC Connectors, ST Connectors and MTP/MPO Connectors.
Here is a helpful fiber optic connector types chart for your reference. MTP/MPO type connector cables aren't listed here simply because they are a bit newer and have a different build than older fiber connector types. Single mode fiber is also known as OS2. You may notice that underneath single mode, there are two different acronyms, APC and UPC. These are fiber polish types. APC, or angled polish connectors, have an angled polish as the name suggests. This is the most optimum polish type for minimum signal loss. UPC, or ultra physical contact, is a dome shaped polish type that also has minimum fiber loss, second only to APC.
SC connectors are used with single-mode and multimode fiber-optic cables. They offer low cost, simplicity, and durability. SC connectors provide for accurate alignment via their ceramic ferrules. An SC connector is a push-on, pull-off connector with a locking tab. Typical matched SC connectors are rated for 1000 mating cycles and have an insertion loss of 0.25 dB. From a design perspective, it is recommended to use a loss margin of 0.5 dB or the vendor recommendation for SC connectors.
The ST Connector is a keyed bayonet connector and is used for both multimode and single-mode fiber-optic cables. It can be inserted into and removed from a fiber-optic cable both quickly and easily. Method of location is also easy. ST connectors come in two versions: ST and ST-II. These are keyed and spring-loaded. They are push-in and twist types. ST connectors are constructed with a metal housing and are nickel-plated. They have ceramic ferrules and are rated for 500 mating cycles. The typical insertion loss for matched ST connectors is 0.25 dB. From a design perspective, it is recommended to use a loss margin of 0.5 dB or the vendor recommendation for ST connectors.
LC connectors are used with single-mode and multimode fiber-optic cables. The LC connectors are constructed with a plastic housing and provide for accurate alignment via their ceramic ferrules. LC connectors have a locking tab. LC connectors are rated for 500 mating cycles. The typical insertion loss for matched LC connectors is 0.25 dB. From a design perspective, it is recommended to use a loss margin of 0.5 dB or the vendor recommendation for LC connectors.
MTP/MPO connectors are used with single-mode and multimode fiber-optic cables. The MTP/MPO is a connector manufactured specifically for a multifiber ribbon cable. The MTP/MPO single-mode connectors have an angled ferrule allowing for minimal back reflection, whereas the multimode connector ferrule is commonly flat. The ribbon cable is flat and appropriately named due to its flat ribbon-like structure, which houses fibers side by side in a jacket. The typical insertion loss for matched MTP/MPO connectors is 0.25 dB. From a design perspective, it is recommended to use a loss margin of 0.5 dB or the vendor recommendation for MTP/MPO connectors.
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Patch Cords, also known as fiber jumper cables, are used to connect patch panels, optical switches, and telecommunications services. These Patch cables can come with different connectors, fiber types, and polish types. Jumper cables are a key piece in completing indoor server rooms and data centers. Be sure to browse our selection of Patch Cables and other networking products to make sure you have everything you need for your next project!
]]>A fiber patch cable is a short distance Fiber Optic Cable that has connectors at both ends to create a connection between two devices. Patch Cords, also known as fiber jumper cables, are used to connect patch panels, optical switches, and telecommunications services. These Patch cables can come with different connectors, fiber types, and polish types. Jumper cables are a key piece in completing indoor server rooms and data centers.
Like a standard Fiber Cable, Patch cables can come in both single mode and multimode designs.
Single mode fiber has a significantly smaller fiber core, at 9micrometers, and is meant for long distances. This type of fiber allows a single ray of light to be transmitted through the fiber at a time which prevents the chance of interference of other signals.
Multimode fiber, on the other hand, is meant for short distances and has a larger fiber core at either 50 or 62.5 micrometers. Multimode has a larger diameter because it can accommodate multiple light sources traveling at a given time. This increases the amount of information that can be transmitted, but also increases the rate of attenuation that the signal will experience.
Another variation in cable type is whether the patch cable is simplex or duplex. Simplex Fiber Cable is built to either send or receive information through one way transmission and duplex fiber is designed to send and receive information through two-way transmission.
The connectors on a patch cable can either be the same on both ends or they can be different. A patch cable with two different connectors at the ends is considered a Hybrid Fiber Optic Patch Cable.
The connectors can also differ in their polishing type. Fiber connectors are polished to different shapes to minimize back reflection. Back reflection can cause down time and a decrease in the lifespan of a transceiver, ultimately hurting your network. There are three common polish types that are used to provide quality transmission, and limit the back reflection, in a network. The first one is PC (Physical Contact) which is polished with rounded corners to maximize signal transmission between two fibers. The next polish type is UPC (Ultra-Physical Contact) which is polished into a dome shape, making the connector end more suitable for contact that the PC connector. The APC (Angled Physical Contact) is polished at an angle which reduces the amount of light reflected at the connector interface. The UPC and APC connectors are only available for Single Mode Fibers.
Be sure to browse our selection of Patch Cables and other networking products to make sure you have everything you need for your next project!
]]>A Fiber Distribution box is designed with an entrance point for incoming cables, a splice tray, and an exit point for the split cables. The entrance and exit points are typically on the bottom of the unit to aide in waterproofing the box and protecting the cables. The splice tray is the piece that joins the incoming cable with either a pigtail or a connector to continue the transmission of signal. The best connection, in terms of quality, comes from splicing the cable with a Fiber Pigtail. The other option is to use a fiber optic connector and field termination. This method takes longer because a fiber optic connector is directly connected onto the individual fibers. When using the pigtails, a splice tray is required for optimal functioning, but if connectors are used then a splice tray is not required but you may lose quality of signal.
Outdoor Fiber Distribution Boxes come with a variety of characteristics that can be adapted to fit your needs. The first characteristic is whether you want to purchase your fiber distribution box loaded or unloaded. Loaded Distribution boxes come with fiber adapters and pigtails furthering the convenience by having everything you need ready to go in one place. A limitation of the loaded distribution unit is that the entire unit has to be replaced if one port gets damaged or if you want to make upgrades on the unit. The unloaded patch panels do not have these limitations, but do not come with the necessary products to terminate and distribute the bulk cable coming into the enclosure. Because you have to assemble the unit separately this option is more costly, but may still be the ideal option based on the demands of your project.
Distribution Units can also vary in the size and number of ports in the unit. Distribution Units are built to withstand certain capacities. Here at FiberSavvy we offer 2, 4, 16, and 24 splice units.
Fiber distribution units come in a variety of materials, each with different benefits. The difference in the materials is the density and resistance to heat, compression, and abrasion. Of the most common materials, ABS+PC, meets most of the requirements at a budget friendly cost. Because these are designed to withstand outdoor conditions, the IP Level* must be at least IP65.
*A product that is IP65 rated means that it is dust tight and protected from streams of water in any direction. IP66 means that the unit is dust tight and can withstand high pressure water jets from any direction. The IP67 level means that the distribution unit is dust tight and can withstand short periods of immersion into water.
There is a lot to consider when building your Fiber Optic Network, from what cable and connectors you need to what you will use to protect your network. Fiber Savvy offers a variety of Outdoor Fiber Distribution Boxes that will fit the demands of your project. If you have any questions when making this purchase, call our team today!
]]>OSP Dry Loose Tube Fiber Optic Cable
OSP Fiber, or on-site plant fiber, is designed to withstand the harshest outdoor environments including, direct burial applications. This dry loose tube fiber cable is composed of one to six sub-units, water blocking yarn, dielectric strength material, an aramid ripcord, and a PVC outer jacket. Each sub-unit consists of 12 colored glass fibers and water swell-able yarn with a PVC jacket 3mm in diameter. All component materials meet the EU RoHS and REACH Directive standards. With a wide variety of strand counts ranging from 12 to 144 strands, Fiber Savvy can help you find the right OSP Fiber for any application.
The most proven fiber optic cable technology for long-term reliability outdoors is the loose tube. This type of cable protects the fiber from stresses caused by the environment, namely moisture and temperature. Loose-tube cables, whether flooded under the jacket or water-blocked with dry, swellable materials, protect the fibers from moisture and the long-term degradation moisture can cause.
Overall, OSP dry loose tube fiber optic cables offer the best protection in an outdoor environment, especially in the less-sheltered applications involving aerial or direct-buried installations. The loose-tube design isolates the fibers from outside environmental and mechanical stresses. The optical performance is virtually unchanged as the cable is exposed to the elements. Telcordia Technologies, BICSI, RUS (Rural Utility Service), and the telco and cable TV markets support this design.
Loose tube cores are best-suited for armored applications, double-jacketing for more severe environments, and in figure-eight and all-dielectric self-supporting designs. Tight buffered designs often do not have anti-buckling elements and do not decouple the fiber from extreme stresses, such as the material contractions that are experienced at extremely cold temperatures. This is why loose tube cables are so widely accepted for use in outdoor environments.
Fiber Savvy now offers OSP Dry Loose Tube Fiber Optic Cable in Armored or Non-Armored options.
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Fiber Optic cables come in numerous variations that are manufactured to achieve the unique goals of the application. Simplex and duplex fiber-optic cables are categories of Single Mode and Multimode fiber cable. When looking at the difference between Simplex and Duplex it should become clear what you will need for your networking demands.
Simplex fiber cable is designed to either send or receive information through one-way transmission, but not send AND receive. For example, a standard computer keyboard transmits information to the computer through a simplex design. It sends the information from the keyboard (the typing) to the computer, but the computer does not send information back to the keyboard. Simplex fiber allows this one way transmission through a single-strand fiber cable with a standard structure.
Duplex fiber cable is designed to send and receive information through two-way transmission. An example of a product that works off of duplex fibers is the modern telephone. In this case, persons talking on the phone are able to communicate with one another at the exact same time without signal loss because the channel is manufactured to run two-ways. Both sides are sending and receiving information at the same time.
Because Duplex has a more complex function it also has a more complex structure. Duplex cables is composed of two single strand fiber optic cables that share a jacket. Having two cables allows the signals to be sent and received simultaneously without signal loss.
The common example of half duplex fiber cable functioning is a two-way radio or a walkie-talkie. These products have a means of communication where the channel is only good one way at a time. If two people using walkie-talkies try to talk at the same time there will only be static.
Choosing between simplex, duplex, and half duplex should be easy when you understand the difference between them and when you know the application they will be used for. Although simplex, duplex, and half duplex are all available in both single mode and multimode, there are specs that pertain to each individually that make one or the other a better fit in certain circumstances. In order to create an efficient fiber network, one must know the desired goal and choose the correct fiber cable accordingly. Check out Fiber Savvy for all of your fiber needs!
]]>Fiber Optic Cable has multiple variations because there are so many characteristics in the cables that can be changed to meet the needs of a specific application. From armored to aerial, each type of fiber-optic cable is manufactured to function in particular areas and under projected environmental conditions. When employing a standard Fiber Cable type, such as indoor distribution fiber cable, an installer must consider the placement in order to meet the specific requirements.
When Fiber Cable is ran throughout a building it will often go through either Riser or Plenum areas, each of which has specific requirements as to what type of cables can be used. In case of a fire, damaged fiber jacket material could release toxic fumes and high amounts of smoke. Because of this, using products with the correct fire ratings is crucial upon installation in order to abide by safety stipulations put into place for the safety of all those occupying the building.
Outlining and understanding the proper protocol when it comes to fire ratings, which are specified to maintain the effectiveness and safety of fiber-optic cable, will ensure a well rounded fiber-optic network.
The jacketing material of a Fiber Optic Cable functions as a protective layer. The level of protection is determined through the specific material used on the cable. There are four types of jacket material available: Polyethylene (PE), Polyvinyl Chloride (PVC), Polyvinyl Difluoride (PVDF), and Low Smoke Zero Halogen (LS).
PE is ideal for outdoor applications because PE jacket material is resistant to abrasions as well as harsh weather, temperature, and moisture conditions.
PVC can be used for both indoor and outdoor applications because PVC jacket material is resistant to more minimal abrasions along with heat and flames.
PVDF is suitable for indoor applications because PVDF jacket material generates little smoke.
LSZH is the best option for indoor applications because LSZH jacket material is devoid of all highly toxic properties that could contaminate the air if the cable were to catch fire.
The National Electrical Code (NEC) has established eight levels of fire resistance: OFNP, OFCP, OFNR, OFCR, OFNG, OFCG, OFN, and OFC. The levels of fire resistance are prevalent to the three main installation categories of plenum, riser, and general-purpose.
Optical Fiber Non-conductive Plenum cable (OFNP) and Optical Fiber Conductive Plenum cable (OFCP) are to be applied in plenum spaces where air flows and/or is distributed throughout a building.
Optical Fiber Nonconductive Rise cable (OFNR) and Optical Fiber Conductive Rise cable (OFCR) correspond with riser areas which are vertical shafts or ducts that expand over multiple floors.
Optical Fiber Nonconductive General-Purpose cable (OFNG), Optical Fiber Conductive General-Purpose cable (OFCG), Optical Fiber Nonconductive cable (OFN), and Optical Fiber Conductive cable (OFC) are associated with general purpose areas. The encompassing areas that are not considered to be plenum or riser are regarded as general purpose areas.
|| Through the explicit labels and codes, the most important aspect to recognize is that plenum and riser rated cables are going to be the ideal option when it comes to full building applications.
Fiber Savvy offers an array of products up to NEC code in order to ensure the optimization and longevity of network applications. Being aware of codes and innovative materials that make up Fiber Cable is the basis of an efficient system built to last and to remain sound under duress.
]]>There are multiple components required to construct an efficient and long-lasting Fiber Optic Network. Understanding the function of each part will allow an installer to know what is essential when purchasing, installing, and managing a custom system. Each part of a network has a specific operation that contributes to the success of the network as a whole. Fiber-optic pigtails are a means of joining one fiber to another fiber or operating device within a Fiber Distribution Box. The following sections will go into detail about the different characteristics and uses of Fiber Pigtails within a fiber network.
A fiber-optic pigtail is a fiber cable that has a connector on one end and a terminated opposite end. The purpose of a pigtail is to connect to a device on one end, through the connector, and establish a joint connection with another cable on the other end, using the terminated end of the pigtail. The connector attached at the end is specific to the device it will be attaching to and the terminated end will be specific to the cable it will be attaching to. For this reason, there are multiple variations of Pigtail fibers to accommodate the specific network set up they can be applied to.
Pigtails are recognized and categorized by fiber type, connector type, and fiber strand count.
Fiber-optic pigtails are available in both single mode and multimode. Single mode fiber-optic pigtails are associated with the color yellow. OM1 Multimode fiber-optic pigtails are coupled with the color orange, and OM3 and OM4 are fitted in an aqua-colored jacket.
As for Connector types, we offer LC, SC, and ST pigtail variations, in simplex and duplex. Additionally, connectors can vary in fiber strand counts from 1 to 48 strands, and can come either jacketed or unjacketed.
• There are divisions in regard to UPC and APC versions assigned to fiber-optic pigtails.
• Fiber-optic pigtails have female or male connectors specific to insertion.
Fusion and mechanical splicing are the standard ways of creating a connection between the terminated ends of the fiber. A fusion splicer allows one to splice the pigtail onto the cable with ease and in a short amount of time. Fusion splicing aligns the two cables and then melts them together creating a permanent junction between the terminated pigtail end and the incoming cable. With a mechanical splicer the connection could be permanent or temporary since the mechanism employed holds the fiber-optic cables into place rather than melting them together.
Other options for Pigtail Fibers are whether they are armored or waterproof. Check out our listings of Fiber Optic Pigtails to see the different variations you can purchase.
The fiber-optic pigtail is another part of expanding and maintaining a fiber-optic network. Manufactured to set up a precise connection through an innovative design the pigtail enables you to reduce termination costs through a user-friendly process.
Over the years, the fiber-optic pigtail has proven to be a worthwhile investment and Fiber Savvy provides a wide array of options to enhance networking projects. We are always here to offer assistance with your project so call us today!
]]>Fiber-optic cable connectors come in different styles to optimize the functionality of fiber cable and simplify application. While there are many types of connectors, their purpose remains relatively the same in comparison to one another. The main function being to link fiber-optic cables and creating a connect and disconnect capability in the process.
There are over 100 different types of connectors; the five most widely implemented types that will serve as the basis of this post are LC, SC, ST, FC, and MPO/MTP connectors.
The LC connector, also known as the "lucent connector" or "little connector," is suitable for single mode and multimode fiber cable applications. A notable aspect of the LC fiber connector is the “locking-tab,” securing a precise connection and ensuring proper alignment. This connector gets the moniker "little connector" because it has a ferrule of 1.25-millimeters, which also makes this connector great for high-density uses. This connector is the most commonly used connector type on the market today. Below is an image of the LC connector as well as some links to some of our best selling fiber patch cables and pigtails.
The SC fiber connector, or the "square connector," has an identifiable square shape built for either single mode or multimode fiber. This connector is equipped with a 2.5-millimeter ferrule and, like the LC connector, is also commonly used for high-density applications. This is the second most commonly used fiber connector on the market. Below is an image of the SC connector as well as some links to some of our best selling fiber patch cables and pigtails.
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The ST connector, or "straight tip" connector, has a 2.5-millimeter ferrule, similar to the SC connector. This fiber connector works for both long and short distance applications. This connector is one of the older fiber types and is rarely used, but can still be found in many older fiber networks. Below is an image of the ST connector as well as some links to some of our best selling fiber patch cables and pigtails.
The FC connector, or "ferrule connecter," is the oldest of the fiber connector types. FC fiber connectors are used for single mode fiber, though an alignment key is necessary upon installation in order to ensure the connector is inserted properly. This additional requirement makes the installation process more complex compared to the previously mentioned connectors. Because of this, the FC connector type is largely obsolete. Below is an image of the FC connector.
The MPO/MTP connector is built to hold multiple fibers, either single mode or multimode. The rectangular ferrule has the capacity to hold 12 to 24 fibers. The MPO/MTP connector is more complex than the other connectors because there is a “key-up, key-down” male and female adapter configuration required to establish the connection. Below is an image of the MPO/MTP cable options. Click on the image to be taken to the MPO/MTP Cables page.
There are numerous specifications that differentiate each connector from the other. Depending on the particular details and requirements of a project, the best connector to choose will be subjective. Although, there are many options available so you are guaranteed to find one that meets your needs.
Simplex and duplex connections refer to the ways in which the transmission travels in a cable. Simplex transmission signals are only able to travel in one direction meaning there is no way for a simplex connection to receive a signal through the same means in which the signal was sent. Duplex transmission signals, on the other hand, are engineered to send and receive signals through dual fibers.
When employing simplex and duplex fiber cables, it is important to note that each type requires specific connectors to function properly.
Polish type pertains to the “back reflection” of a signal transmission. When light travels down a fiber it should go straight through to the next one, but sometimes it reflects and bounces backwards and that is back reflection. This back reflection can shorten the life of a transceiver and cause down time, something that you want to avoid. The way the polishing type is cut has an impact on the back reflection and the light source traveling through the fiber.
With that in mind…
Angled Physical Contact (APC) and Ultra Physical Contact (UPC) polish types are only available in single mode 9/125 OS2 fiber. As insinuated in the name of each product, the APC connector is polished at an 8-degree angle, while the UPC has an extended face. The APC polish type will have a <-65db back reflection and the UPC will have a <-55db back reflection.
Flat PC and PC polish types are manufactured for multimode fiber. The Flat PC polish type has “zero domed-shaped geometry,” which differs from the PC polish type that does have a dome shape in order to maximize the transmission signal. The Flat PC has <-30db back reflection and the PC polish type has <-35db back reflection.
Fiber-optic cable connectors come in numerous variations with specially designed components manufactured to adhere to either single mode or multimode fiber. Knowing the different types of connectors is crucial in establishing a fiber-optic network that will remain optimal and last for years to come.
Having noted the specifics of the main types of connectors, simplex and duplex connections, and polishing types, it is safe to state that there is much to consider throughout the installation process. Nonetheless, we, here at Fiber Savvy, are delighted to help as well as further provide all of the information and supplies needed to establish a cost-effective fiber-optic networking system.
]]>Multimode and Single Mode are both forms of fiber-optic cables but they differ in substantial ways. They each offer unique advantages over the other, some of which are obvious, but each specification plays an important role in how the cable should be applied. This blog will focus on the details of Multimode fiber and will refer to Single Mode fiber as a comparison.
Due to the inner structure of the fiber cable, Multimode Fiber Optic Cable is ideal for short distance applications; this is a notable distinction between single mode fiber because single mode is constructed and intended to run long distances. Single Mode fiber has a narrow core diameter, averaging 9 micrometers, while multimode fiber has a core diameter of 50 to 62.5 micrometers. This variance poses the question: Why?
Multimode fiber has a wider diameter to accommodate for the multiple light sources that travel through the cable at a given time, compared to Single Mode fiber which allows for the transmission of a single light source at a time. The benefits of having multiple light sources is that an amplified amount of information is able to travel through the fiber at once. Consequently, the rate of attenuation becomes greater as the number of light sources rises and, therefore, the average attenuation of a single light source will remain significantly lower.
Another imperative aspect to grasp is that multimode fiber comes in 5 primary variations: OM1, OM2, OM3, OM4, and OM5. These classifications are vital in defining the overall purpose and performance of the multimode fiber.
OM1 Fiber has a core size of 62.5 micrometers that supports high speed Ethernet connections of up to 10 gigabits for 33 meters, which makes OM1 optimal for the shortest of distances. OM1 is identifiable by an orange outer jacket and utilizes both LED and laser light sources.
OM2 fiber has a core size of 50 micrometers, with the ability to sustain an Ethernet capacity of 10 gigabits for 82 meters. Similar to OM1, OM2 fiber is also recognizable in a fitted orange jacket, employing both LED and laser light sources.
OM3 Fiber has a fiber core diameter of 50 micrometers, the same as OM2 fiber, and comes in an aqua jacket. OM3 can carry up to 10 gigabit Ethernet for 300 meters. A notable detail to understand is that 40 to 100 gigabits is also obtainable, though only for a maximum length of 100 meters. OM3 functions best to achieve the previously mentioned specs through the use of a laser light source.
OM4 Fiber has an aqua-colored jacket and a diameter of 50 micrometers, similar to OM3. OM4 differs from OM3 fiber with a rate of up to but not exceeding 10 gigabit Ethernet for an expanse of 400 meters.
OM3 and OM4 are the current industry standard. In networks using OM3, OM4 can be substituted in when updating or growing the network. However, OM3 can not substitute in for OM4 because it has a lower clarity and does not have the specs needed to run a network at OM4 speeds.
OM5 fiber has a distinctive lime green jacket, differentiating this type of multimode from the ones listed previously. OM5 is backwards compatible with OM3 and OM4, utilizing a laser light source in order to reach spans measuring 500 meters at a capacity of 10 gigabit Ethernet.
The costs are subjective when comparing single mode to multimode fiber. Multimode often costs more for the fiber itself, but installation costs are much higher for single mode fiber. Both have specific traits which should help guide a user towards which one they should use for a project.
Multimode fiber has unique qualities that allow this cable to provide exceptional data speeds and transmission quality at a high capacity covering short distances. The variations of Multimode fiber offer a solution to any project that requires an influx of information to be transmitted over a short distance. We at Fiber Savvy provide all the essentials when installing Multimode fiber and would be thrilled to help make your project come together, so if you have any questions call us today!
]]>When discussing Fiber-Optic Cable there are two distinctions in the types of cable that are available and that is whether it is Single Mode or Multimode. Both Single Mode and Multimode fiber cable present unique advantages but we will mainly be talking about the specifics in Single Mode Fiber Optic Cables. The importance of understanding the distinctions between Single Mode and Multimode is critical, and this knowledge will allow the application of the chosen product to be more efficient.
The title of the product, “Single Mode” (also known as monomode), reflects the fact that a single ray of light is transferred through the cable at a given time. Single Mode fiber has an average core diameter of 9 micrometers, which is much smaller than Multimode fiber that measures either 50 or 62.5 micrometers. The single beam of light that travels through the narrow core of the Single Mode fiber has the advantage of not facing interference from other light rays because it only transmits a singular light ray at a time. On the other hand, Multimode carries multiple light rays at a time and is susceptible to interference between rays. Single Mode fiber is a great choice when the objective is sending a signal a greater distance with clear transmission.
Single mode fiber typically travels at wavelengths of 1310 and 1550 nanometers and has an average attenuation of 0.4 db/km. As a means of retaining high speeds with minimal loss of signal, a laser light source is frequently applied within the single mode fiber as opposed to an LED source. Lasers are a much stronger light source and inherently more accurate; lasers are faster and at far less risk of faltering in comparison to LEDs. Accordingly, with a precise diameter, a superior single light source and unlimited bandwidth because of this single mode fiber is ideal for applications spanning greater distances.
When comparing single mode fiber to multimode fiber, the costs are subjective. Though multimode fiber itself is often times more expensive than single mode fiber, the installation process and requirements necessary for single mode fiber substantially increase the total cost; this is a result of transceiver, interconnect, and alignment costs that are higher due to the intricate structure of single mode fiber. Nonetheless, single mode fiber is ideal for backbone applications where obtaining high speed transmission is crucial.
Single mode fiber is designed to enhance any workspace with efficient modes of broadcast and communication. This sophisticated device could be a worthwhile investment, contributing a viable means of transmitting and receiving information on a daily basis. Fiber Savvy provides all the essentials needed to begin installation of any single mode fiber networking project.
]]>Fiber-optic cable transfers information at a much faster rate than copper cable through the use of light as opposed to electricity; therefore, the extensive desire to predominantly utilize fiber cable as a mode of transmission has become quite evident. To broaden the appeal of this technological product, fiber cable can be installed virtually anywhere. In order to exemplify this point further, tight-buffered distribution fiber, which is perhaps the most widely used fiber cable for numerous reasons, will serve as the main focus and means of demonstration.
Tight-buffered distribution fiber cable is suitable for both indoor and outdoor use. However, when tight buffered cable is employed in places spanning beyond walls, i.e. places where water, excessive moisture, and/or drastic fluctuations of temperature are present, protecting the cable with an armored layer will be quintessential in order to guarantee optimization of the product.
Being compromised of either 2 to 72 fibers, this type of cable can be equipped with a plenum (level 4) or riser (level 3) flame resistance rating or manufactured as a general-purpose cable (level 2) or residential (level 1). Depending on the area in which the cable will be placed, the cable should abide by the required standard put into place by the National Electric Code (NEC).
Length should be highly considered as well because tight-buffered distribution fiber cable comes in single-mode 9/125, which has a smaller diameter and is commonly used for long distances, and multimode OM1 62.5/125, OM3 50/125, and OM4 50/125, which generally have a larger diameter and are used for shorter distances.
Upon the installation of fiber cable, there may be the need for termination and splicing; conversely, through the use of tight-buffered distribution cable, that burden is no longer an issue as a result of connectors. There are four basic types of connectors: Flat PC, PC, UPC, and APC. These connectors are manufactured for and specific to certain types of fiber cable. Through the use of connectors, the cable should inherently remain unfailing for an extended period of time. Furthermore, a portion of the tight buffered distribution fiber cable can remain dark and then applied in the future with the addition of a connector.
Tight-buffered distribution fiber cable has the power to enhance any workspace where quickly and efficiently transmitting information is vital. With indoor and outdoor installation as a viable and worthwhile possibly, along with numerous notable features previously mentioned above, tight-buffered distribution fiber cable could very well be the means of achieving the exceedingly sought-after goal of high-speed cable connection, all provided by Fiber Savvy.
]]>These details alone demonstrate a number of reasons why fiber-optic cable has become a standard within the market. But still there are many more details to consider when choosing a product.
There are several inner layers that make up the fiber-optic cable itself. Understanding the importance of each layer will allow you to consider how each detail may impact your networking demands. There are six essential layers found in fiber-optic patch cables.
The inner core of the fiber-optic cable is made of glass which allows the signal light to travel through. Surrounding the core is cladding which is either made of glass or plastic, and is added as a protective layer that keeps the light inside the core. The 250um coating incases both the fiber core as well as the cladding and is designated to protect each of the inner layers. The 900um buffer layer shields the fiber from outside stress. This layer comes in two types: tight and loose tube. Lastly, the strength members and cable jacket serve as the final two layers and are added to prevent the breakage of all inner layers as the cable is handled and once the cable is installed.
Fiber-optic cable is customizable; the aforementioned factors may alter slightly, depending on the fiber count, capacity, diameter, length, and jacket material required for a particular job.
Distribution fiber cable is a common type of fiber cable because it is designed to be placed within the internal structure of buildings as the “backbone” or for inter-building campus applications. Our distribution fiber cable comes in Single Mode 9/125 and multimode OM1 62.5/125, OM3 50/125, and OM4 50/125, with strand counts ranging from 2 to 72 strands.
There is Armored Fiber Optic Cable to prevent damage from moisture, rodents, and other environmental conditions both inside and outside. Micro distribution high density fiber cable has the option of being comprised of 2 to 144 strands in order to enhance performance and optimize the allotted space. Dry loose tube fiber is designed for rough terrain underground, harsh climates, and natural abrasions, while aerial fiber is idealized for suspended installation and almost any sort of weather exposure. Broadcast deployable fiber cables and military tactical cable are made for temporary installation; these fiber cables are lightweight, durable, and manufactured for reuse, guaranteeing the wide-reaching transmitting and receiving of signals.
Check out our selection of Bulk Fiber to find products to meet the needs of your next project!
In order to get the best function from fiber-optic cable, there must be a system that will sustain the cable. For instance, when networking is involved with distribution cable, we suggest the use of a patch panel to keep the cable organized and protected. Specialty cleaning kits are also sold on the Fiber Savvy website in order to ensure the productivity and longevity of the more delicate fiber-optic cables.
Fiber-optic patch cable has the ability to increase the speed of transmission and bandwidth range compared to other cable types. Creating faster transmission than standard copper cable, being protected from interference, and having the flexibility for use in a wide range of applications, Fiber Optic Cable has the potential of being a worthwhile investment for individuals and business owners looking to build a successful network. Call our team at FiberSavvy for more information!
]]>Fiber-Optic patch cable has become one of the fastest modes of transmission. Therefore, with the ever-increasing popularity of fiber cables, the need to retain an efficient and systemized enclosure has become quintessential. The Fiber Patch Panel allows the user, in workplace or home environments, to maintain an organized space to distribute fiber cable and maximize productivity of the network.
The Fiber Distribution Panel, commonly recognized as the Fiber Patch Panel, methodically feeds the fiber to the correct channel, all while remaining in a centralized area. Fiber Patch Panels vary in size depending on the particular demands of the individual and/or company. In order to further adhere and cater to specific requirements, we provide wall mount and rack mount variations of Patch Panels.
The Wall Mount Fiber Patch Panel provides a secure structure for housing fiber and has the ability to hold a large number of fiber cables. We offer various Patch Panels that accommodate different numbers of fibers depending on what your project demands. In order to protect your network, we also offer Added Security Wall Mount Patch Panels that are steel and lockable.
The Rack Mount Fiber Patch Panel has similar functions to the wall mount, with the ability to hold numerous fiber cables and provide an effortless means of distribution in an orderly way, but has a different look and layout. The Rack Mount Distribution Unit is typically smaller and intended to be detached from the wall, allowing the rack mount to be placed more strategically within an area.
Both the Wall Mount Patch Panels and the Rack Mount Patch Panels offer advantages over the other depending on the need of the user. There is more than just style and layout to consider when choosing a style of Patch Panel.
There are multiple variations of Patch Panels that can be utilized for the different needs of the installers who may be using them. But beyond choosing the specific type, there are other variations within the patch panel that need to be considered. For instance, loaded Patch Panels come with all the essentials needed to complete the installation, whereas unloaded Patch Panels are able to be customized and do not rely on the panel operating as a whole. Additionally, size is another important factor to consider to be sure that your chosen Patch Panel will accommodate all of the fibers in your network.
The Fiber Patch Panel enables seamless operation of fiber networks regardless of size or capacity through the array of options that we offer on the Fiber Savvy website. When implementing fiber-optic patch cables into a company and/or home, the fiber patch panel will optimize the space the fiber is being placed and will also allow one to manage the fiber cable with ease.
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