Shenzhen Xianquan Technology Co.,Ltd is the Branch of Shenzhen Yifanxing Technology, it since establish in 2022, the mainly products included fiber optical onu, fiber optical patch cord, fiber optical cable, fiber optical pigtail, fiber optical tool kits and fiber optical fast connector, etc. There are many long-terms business cooperated customer from South/North america, middle East and Southeast Asia, etc.
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Fiber optic jumpers (also known as fiber cable patch cord) refer to optical cables with connector plugs installed at both ends to achieve active connection of the optical path.
OM5 fiber, known as broadband multimode fiber patch cord (WBMMF), is a laser optimized multimode fiber (MMF) that specifies bandwidth characteristics specifically for wavelength division multiplexing (WDM).
LC Fiber Patch Cords are used as jumpers from equipment to fiber optic cabling links. It has a thick protective layer and is generally used for the connection between optical terminals and terminal boxes.
Fiber optic jumpers, also known as fiber optic connectors, refer to the installation of cables on the plugs at both ends of the connector to achieve active connection of the optical path;
Fiber optic jumpers (also known as fiber optic connectors), which are fiber optic connectors that connect to optical modules, are also available in various forms and cannot be used interchangeably.
OM1 refers to multimode optical fibers with a core diameter of 850/full injection bandwidth exceeding 200/. km for 5 Oum or 62.5um fibers;
Stainless steel protective sleeve - The armored jumper adds a layer of small diameter spiral stainless steel protective sleeve outside the optical fiber, enhancing compression resistance while also ensuring the same flexibility as standard optical fiber jumpers and the various superior optical properties of the optical fiber itself.
Fiber Optical Patch Cable are mainly used for connecting fiber optic distribution frames or fiber optic information sockets to switches, between switches, between switches and computers, and between fiber optic information sockets and computers.
Fiber optic jumpers are devices used to connect optical cables and fiber optic transceivers (couplers, jumpers, etc.), allowing optical signals to be transmitted between devices.
A Fiber Patch Cords, also known as a fiber optic patch cable or fiber jumper, is a length of fiber optic cable capped at both ends with connectors that allow it to be rapidly and conveniently connected to an optical switch, router, or other telecommunication/network equipment. Its primary purpose is to connect one device to another for signal routing.
The quick answer is that fiber patch cables are designed for relatively short-distance connections, usually less than 50 feet, within a network or between devices. They also come with connectors on both ends of the cable, for ease of installation.
Benefits of SC Fiber Patch Cords
Length and Use
Though single fiber optic cables come in lengths from about 18 inches to 328 feet (100 meters), fiber patch cables are typically on the short end of that spectrum, ranging from a few feet up to 50 feet. They are intended for patching (connecting) devices within a confined area, such as within a data center or between network equipment in an office building.
01
Connector Types
Patch cables often come with pre-terminated connectors on both ends for easy plug-and-play installation. Common connector types include LC, SC, ST, and MTP/MPO. Other types of fiber optic cables may come with connectors or pigtails on one end and require termination or splicing on the other end to plug in to network equipment.
02
Fiber Types
Patch cables are available in both single-mode and multimode fiber types, depending on the requirements of the network. Single-mode patch cables are used for long-distance transmissions with higher bandwidth and lower signal attenuation, while multimode patch cables are suitable for shorter distances with lower bandwidth requirements.
03
Jacketing and Durability
Fiber optic patch cables typically have a general-purpose outer jacket for protection against moisture, abrasion, and bending, and they can withstand the rigors of frequent handling and installation. Other types of fiber cables may have jacketing for specific applications, such as outdoor installations or harsh industrial environments.
04
Application Specificity
Patch cables are designed for general-purpose connectivity within a network infrastructure, providing flexible and interchangeable connections between network devices. Other types of fiber optic cables may be optimized for specific applications, such as submarine cables for undersea telecommunications, aerial cables for overhead installations, or armored cables for outdoor use.
05
SC Fiber Patch Cords Types
Single Mode or Multimode Fiber Patch Cord
Single mode fiber patch cable: Single mode fiber patch cable only supports one mode of a light signal. It is usually used to transfer high-speed data with low attenuation over a long distance. Single mode fiber can often be divided into two types: OS1 and OS2.
Multimode fiber patch cable: Multimode fiber patch cable allows multiple modes of light to travel through the fiber core and it is more suitable for short-distance transmission within the building or office. Multimode fiber patch cables can be classified into OM1, OM2, OM3, OM4, and OM5. You can choose the correct one according to your need.
The biggest difference between single mode and multimode fiber patch cords is the core diameter. Single mode fiber patch cord features a core of about 9 microns and multimode fiber patch cord has a core of 50 microns or 62.5 microns. The fiber core of OM1 is 62.5 microns and that of OM2, OM3, OM4, and OM5 is 50 microns, which can be distinguished by the jacket color. Learn more from Single Mode vs. Multimode Fiber.
Applications Of SC Fiber Patch Cords




Fiber optic patch cables have become an essential element across a wide array of sectors. It is underpinning the very structure of our digital world. Within data centers and the broader telecommunications industry, these cables form the backbone of our internet and network services. Their unparalleled ability to facilitate rapid data exchange is what keeps the digital world spinning. It is ensuring that vast amounts of information can be transmitted across the globe in the blink of an eye. This is not just about speed; it's about the seamless connectivity that forms the bedrock of our modern communications infrastructure.
Their role extends beyond the realms of data transmission and telecommunication, reaching into the critical areas of broadband networks. Here, they are the lifelines that ensure robust and uninterrupted internet connectivity, an essential service in today's increasingly connected world. The reliance on these cables stretches further into fields that demand the highest standards of reliability and speed. In medical imaging, they enable the quick and efficient transfer of high-resolution images crucial for diagnosis and treatment. It is showcasing their pivotal role in healthcare innovation. Similarly, in the aerospace sector, their ability to handle high-speed data transfers supports critical communications and operational functionalities. It is highlighting the versatility and indispensability of fiber optic technology.
The Process In Choosing SC Fiber Patch Cords
Fiber optic patch cord, also known as fiber optic patch cable or fiber patchcord, is one of the most fundamental components in optical communication. Fiber optic patch cords are available in OM1, OM2, OM3, OM4 multi-mode and G.652, G.655,G.657, OS1, OS2 single-mode types. And each end of the cable is terminated with a high performance hybrid or single type connector comprising of SC, ST, FC, LC, MTRJ, E2000 connector in simplex and duplex. Usually the fiber optic patch cords are classified by the fiber optic connector types, such as SC, ST, FC, LC fiber optic patch cord etc. With so many types of fiber optic patch cords, how to choose the right one for your network? Just follow these process.
1st Process : Choosing the Right Connector Type (LC/SC/ST/FC/MPO/MTP)
On both ends of the fiber optic patch cord are terminated with a fiber optic connector (LC/SC/ST/FC/MPO/MTP). Different connector is used to plug into different device. If ports in the both ends devices are the same, we can use such as SC to SC patch cord, LC to LC patch cord. If you want to connect different ports type devices, LC-SC / LC-FC /LC-ST patch cords may suit you.
2nd Process: Choosing Single-mode or multi-mode Cable ?
Single-mode fiber patch cord uses 9/125um fiber, while multi-mode fiber patch cord uses 50/125um or 62.5/125um fiber. Single-mode fiber optic patch cord is used in long distance data transmission. multi-mode fiber optic patch cord is use in short distance transmission. Typical single-mode fiber optic patch cord used yellow fiber cable and multi-mode fiber optic patch cord used orange or aqua fiber cable.
3rd Process: Choosing Simplex or Duplex Cable Type?
Simplex is this fiber optic patch cord is with one cord, at each end is only one fiber connector, which is usually used for fiber optic transceivers. Duplex means two fiber optic patch cords put side by side with for connectors, which is used for common transceivers.
4th Process: Choosing the Cable Length (0.5m/1m/5m/10m/20m/30m/50m)
There are different lengths of fiber optic patch cords, usually from 0.5m to 50m. Choosing the appropriate cable length is according to the distance between the devices which you want to connect.
5th Process: Choosing the Right Connector Polish Type (UPC/APC)
Since the loss of the APC connector is lower than UPC connectors, usually, the optical performance of APC connectors is better than UPC connectors. In the current market, the APC connectors are widely used in applications such as FTTx, PON and WDM, which are more sensitive to return loss. But APC connector is usually expensive than UPC connector, so you need to weigh the pros and cons. With those applications that call for high precision optical fiber signaling, APC should be taken as the first consideration, but less sensitive digital systems will perform equally well using UPC.
SC Fiber Patch Cords Components and Construction
The structural design of a fiber optic patch cable is a marvel of engineering, composed of three primary layers: the core, cladding, and jacket. These components work in concert to facilitate the cable's performance and functionality, enabling the efficient transmission of light signals that carry data across vast distances with remarkable speed and reliability.
Glass or Plastic
At the heart of the cable lies the core, a thin strand typically fashioned from glass or plastic. This core acts as the conduit for light signals, guiding them along the length of the cable. Its material is chosen for its ability to transmit light with minimal loss. It is a critical property for maintaining the integrity of the data signal over distances. Encasing the core is the cladding, a layer of material with a lower refractive index. This ingenious design causes light that veers off course to be reflected back into the core. It is effectively keeping the light signal on its path and minimizing signal loss. This reflection principle is central to the cable's ability to transmit data efficiently. It is ensuring that light travels predominantly through the core.
Outermost Layer
The outermost layer, the jacket, serves as the cable's protective skin. It shields the sensitive inner layers from physical damage and environmental conditions, thus preserving the cable's functionality and longevity. The jacket's material is selected for its durability and flexibility. It is providing a robust barrier against the rigors of installation and use.
Integral to the cable's operation are the connectors-such as LC, SC, ST, and MTP/MPO-that secure the cable to devices and network components. These connectors are not mere physical attachments. They are precision-engineered interfaces that ensure the alignment of the core for optimal light signal transmission. They play a vital role in maintaining the continuity of the light path between different segments of a network. It is ensuring that devices communicate seamlessly. The compatibility and efficiency of these connectors are crucial for the reliable performance of fiber optic networks. It is making them key to the modern digital infrastructure's backbone.
How to Maintain SC Fiber Patch Cords
The daily maintenance for fiber patch cables matters a lot in the fiber optic system. There are two main aspects to which you should pay attention during routine maintenance.
It is often heard that special attention should be given to the fiber optic patch cable cleaning, but are you clear why it is so important? In brief, for reliable and robust fiber optic networks. According to an industry survey by a major telecom company, contamination is the number-one reason for troubleshooting optical networks. Fibers are so fragile that once they are covered by dust or other contaminations, the optical signal can be degraded. What's more, the metallic particles worn by the bodies and fiber housings of the fiber optic connectors will block a fiber, which will cause signal loss, thus eventually reducing the network performance and causing a great loss for businesses that rely on fiber-optic networks.
No matter a fiber cable is in use or out of use, there is one significant point to be considered: Do not bend or stretch your fiber cable too much. It is often the case when working with fiber optic cables, people stretch or bend them. For this reason, the worst case is the fiber may get damaged. Some breakage caused by bending can be visible, but some loss may not, such as microscopic fiber deformations caused by very low temperature, displacement of a few millimeters caused by buffer or jacket imperfections, poor installation practice or other factors. Tips for Management.
1. Pay attention to the bend radius of fiber patch cables. Generally, for 1.6mm and 3.0mm fiber patch cords the minimum un-loaded bend radius is 3.5cm. The minimum bend radius of MPO cable is ten times the cord diameter.
2. Never pull or stress fiber patch cords. During the patching process, excessive force can stress fiber patch cables and connectors attached to them, thus reducing their performance. There might be something wrong if you need to use force in pulling a cord.
3. Routing fiber patch cords through cable pathways, so as to ensure there are no tangles, kinks or strains in the cords. For efficient routing, find the best path between the ports to be connected, avoiding routing cords through troughs and guides that are already congested.
4. Bundling and tying fiber patch cords gives the panel a neat appearance but tight bundling increases the risk of pinching. Do not tighten cable ties beyond the point where individual cord can rotate freely.
5.Labeling is necessary. At any administration point in a cabling infrastructure, including patching panels, accurate labels are essential. These will identify pair modularity and tell technicians where the other end of the cable is terminated.
6. Inspect fiber patch cords for physical damage including stress marks from sharp bends on the sheath, or damage to connectors.
FAQ
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