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Outdoor Optical Cable manufacturer - Fcjoptic

FCJ OPTO TECH, a prominent division of the FCJ Group, has been a cornerstone in the Communication Industry since its inception in 1985. With the distinction of developing the first communication optical fiber cable in Zhejiang Province, FCJ OPTO TECH boasts over 30 years of expertise in manufacturing optical fiber cables and components. As a leading Outdoor Optical Cable manufacturer, the company offers a comprehensive range of products including Preform, optical fibers, outdoor optical fiber cables, and all related components.

Our impressive annual production capacity includes 600 tons of optical preforms, 30 million kilometers of optical fibers, 20 million kilometers of communication optical fiber cables, 1 million kilometers of FTTH cables, and 10 million sets of various passive devices. FCJ OPTO TECH serves a diverse clientele, including major telecom operators such as China Mobile, China Telecom, China Unicom, Malaysia Telecom, Nepal Telecom, Egypt Telecom, Sri Lanka Telecom, and Telefónica. Our Outdoor Fiber Drop Cable products have a global footprint, extending to North and South America, Europe, Southeast Asia, the Middle East, and Africa.

FCJ OPTO TECH is dedicated to providing high-quality optical communication solutions with products like the Singlemode 12 core Fiber Optic MPO/MTP Pigtail and the Micro duct GCYFY air-blown fiber optic cable. Partner with us, and let us become your most trustworthy ally in advancing global communication networks. For future cooperation, please feel free to contact us.

Outdoor Optical Cable

  • FCJ factory Outdoor Optical Fiber Cable lan cable cat6
  • FCJ factory Outdoor Optical Fiber Cable lan cable cat5
  • Singlemode 12 core Fiber Optic MPO/MTP Pigtail 2.0mm LC SC UPC Fast Connector Pacth Cord

    Singlemode 12 core Fiber Optic MPO/MTP Pigtail 2.0mm LC SC UPC Fast Connector Pacth Cord

    Optical fiber active connector is a plug-in connector based on a single-core plug and adapter.According to the connector, it can be divided into FC, SC, LC, ST, MU, etc.PC, UPC, APC, etc.Suitable for optical fiber transceiver, router, switch, optical terminal machine and other equipment with optical ports.Fiber connectors are widely used and play an important role in optical fiber links.


  • Outdoor fiber optic cable Self Supported Mini Fig8 cable drop GYXTC8Y GYXTC8S 12Core 24core cable de fibra ptica

    Outdoor fiber optic cable Self Supported Mini Fig8 cable drop GYXTC8Y GYXTC8S 12Core 24core cable de fibra ptica

    Description

    Mini F-SST contains mini F-SST as optical fiber unit, which promotes maximum core to 24. According to different applications, it is jacketed by LSZH, PE or PA. Mini F-SST cable has small size and low weight. With perfect mechanical performance and wide temperature and wide temperature range, it can withstand the strong pressure. And is suitable for indoor cabling, pipelines and ground slot laying.

    Construction

    Single mode, multimode optical fiber, maximum of 24 cores F-SST LSZH, PE, or PA jacketing, anti-ultraviolet radiation

    Small size and low weight
    Good mechanical performance, withstanding the tensile force and force and super pressure
    Waterproof, moisture-proof, anti-rodents,no rusty
    Resistance to acid, alkali, salt corrsion
    Non-toxic, flame retardant, fire and explosion proof
    Outstanding high and low temperature performances

    Characteristics

    Small size and low weight
    Good mechanical performance, withstanding the tensile force and force and super pressure
    Waterproof, moisture-proof, anti-rodents,no rusty
    Resistance to acid, alkali, salt corrsion
    Non-toxic, flame retardant, fire and explosion proof
    Outstanding high and low temperature performances
    With excellent fire resistance, it can keep communication in the fire(800℃) more than 2 hours with normal optical fiber

    Application

    Indoor cabling
    Pipe laying
    Ground slot laying
    Temperature sensing cable
    Fire monitoring

    Temperature Range

    Operating temperature: -60~+80℃
    Storage temperature: -60~+80℃

    Min.Bending Radius

    Static=10D

    Dynamic=20D

    Replacement

    GYTA, GYTS, GYXTW, GYXTC8S, GYTC8S

    Fiber core number

    structure size

    Cable weight

    Allowable tensile force (N)

    Allowing crush force (N)

    Pipe diameter

    Wire diameter

    Cable diameter

    kg / km

    Long-term / short-term

    Long-term / short-term

    4

    1.35

    0.3

    3.95

    18.4

    500/1000

    2000/4000

    6

    1.5

    0.45

    4.6

    26.3

    1000/2000

    2000/4000

    8

    1.8

    0.45

    4.9

    29.2

    1000/2000

    2000/4000

    12

    2

    0.45

    5.1

    31.2

    1000/2000

    2000/4000

    24

    2.4

    0.5

    6

    41.1

    1000/2000

    2000/4000


  • Micro duct GCYFY single mode 4 8 12 24 48 96 144 core ABF jet air blown fiber optic cable

    Micro duct GCYFY single mode 4 8 12 24 48 96 144 core ABF jet air blown fiber optic cable

    Description

    The fibers,250μm, either of single-mode or multimode type, are positioned in a loose tube made of a high modulus plastic. The tubes are filled with a water-resistant filling compound. A layer of aramid yarn or high strength glass is applied around the cable core as additional strength member. Then, the cable is completed with a black or color HDPE sheath.

    Characteristics

    ·Non-mental design can prevent the cable from radio interference and magnetic wave interference
    ·Specially designed compact structure is good at preventing loose tubes from shrinking
    ·Aramid yarn ensures good performance of tensile strength
    ·Loose tube filling compound ensure good moisture resistance performance
    ·Good flexibility
    ·High dense fiber packed, small diameter and light weight; it’s the better option for blowing installation process

    Application

    Adopted to backbone network, access network and fiber to the home.

    Optical Characteristics

    G.652

    G.655

    50/125μm OM2

    62.5/125μm

    Attenuation

    (+20℃)

    @850nm

    ≤3.0 dB/km

    ≤3.0 dB/km

    @1300nm

    ≤1.0 dB/km

    ≤1.0 dB/km

    @1310nm

    ≤0.36 dB/km

    ≤0.40 dB/km

    @1550nm

    ≤0.22 dB/km

    ≤0.23dB/km

    Bandwidth (Class A)

    @850nm

    ≥500 MHz·km

    ≥200 MHz·km

    @1300nm

    ≥1000 MHz·km

    ≥600 MHz·km

    Numerical Aperture

    0.200±0.015NA

    0.275±0.015NA

    Cable Cut-off Wavelength

    ≤1260nm

    ≤1480nm

    Technical Parameters

    Cable Type Fiber Count Cable Diameter

    (mm)

    Cable Weight kg/km Tensile Strength

     

    Long/Short Term N

    Crush Resistance

     

    Long/Short Term N/100mm

    Bending Radius

     

    Static/Dynamic

    mm

    JET 2~12 6.0+0.2 30 150/300 200/500 15D/30D

    Storage/Operating Temperature : -40℃ to + 70℃


  • Self Supported GYXY factory Price Non armored Unitube G652D 2 4 6 12 core outdoor optical Fiber Cable

    Self Supported GYXY factory Price Non armored Unitube G652D 2 4 6 12 core outdoor optical Fiber Cable

    Description

    The fibers, 250μm, are positioned in a loose tube made of a high modulus plastic. The tubes are filled with a water-resistant filling compound. Over the tube, water-blocking material is applied to keep the cable watertight. Two parallel steel wires are placed at the two sides. The cable is completed with a polyethylene (PE) sheath.

    Characteristics

    · Good mechanical and temperature performance

    · High strength loose tube that is hydrolysis resistant

    · Special tube filling compound ensure a critical protection of fiber

    · Two parallel steel wires ensure tensile strength

    · PE sheath protects cable from ultraviolet radiation

    · Small diameter, light weight and friendly installation

    · Long delivery length

    Standards

    GYXY cable complies with Standard YD/T 769-2003.

    Optical Characteristics

    G.652

    G.655

    50/125μm

    62.5/125μm

    Attenuation

    (+20℃)

    @850nm

    ≤3.0 dB/km

    ≤3.0 dB/km

    @1300nm

    ≤1.0 dB/km

    ≤1.0 dB/km

    @1310nm

    ≤0.36 dB/km

    ≤0.40 dB/km

    @1550nm

    ≤0.22 dB/km

    ≤0.23dB/km

    Bandwidth

    (Class A)

    @850nm

    ≥500 MHz·km

    ≥200 MHz·km

    @1300nm

    ≥1000 MHz·km

    ≥600 MHz·km

    Numerical Aperture

    0.200±0.015NA

    0.275±0.015NA

    Cable Cut-off Wavelength

    ≤1260nm

    ≤1480nm

    Technical Parameters

    Cable Type Fiber Count Cable Diameter

    mm

    Cable Weight kg/km Tensile Strength

     

    Long/Short Term N

    Crush Resistance

     

    Long/Short Term N/100mm

    Bending Radius

     

    Static /Dynamic

    mm

    GYXY 2~12 9.5 90 600/1500 300/1000 10D/20D
    GYXY 2~12 10.2 100 1000/3000 1000/3000 10D/20D

    Storage/Operating Temperature : -40℃ to + 70℃


  • GYXTW 4 core single mode multi mode outdoor cable optic fiber cable duct gyxtw 2core drop galavized steel wire

    GYXTW 4 core single mode multi mode outdoor cable optic fiber cable duct gyxtw 2core drop galavized steel wire

    Description

    The fibers, 250μm, are positioned in a loose tube made of a high modulus plastic. The tubes are filled with a water-resistant filling compound. The tube is wrapped with a layer of PSP longitudinally. Between the PSP and the loose tube water-blocking material is applied to keep the cable compact and watertight. Two parallel steel wires are placed at the two sides of the steel tape. The cable is completed with a polyethylene (PE) sheath.

    Characteristics

    · Good mechanical and temperature performance

    · High strength loose tube that is hydrolysis resistant

    · Special tube filling compound ensure a critical protection of fiber

    · Crush resistance and flexibility

    · PSP enhancing moisture-proof

    · Two parallel steel wires ensure tensile strength

    · Small diameter, light weight and friendly installation

    · Long delivery length

    Standards

    GYXTW cable complies with Standard YD/T 769-2003.

    Optical Characteristics

        G.652 G.655 50/125μm 62.5/125μm
    Attenuation

    (+20℃)

    @850nm     ≤3.0 dB/km ≤3.0 dB/km
    @1300nm     ≤1.0 dB/km ≤1.0 dB/km
    @1310nm ≤0.36 dB/km ≤0.40 dB/km    
    @1550nm ≤0.22 dB/km ≤0.23dB/km    
    Bandwidth

    (Class A)

    @850nm     ≥500 MHz·km ≥200 MHz·km
    @1300nm     ≥1000 MHz·km ≥600 MHz·km
    Numerical Aperture     0.200±0.015NA 0.275±0.015NA
    Cable Cut-off Wavelength ≤1260nm ≤1480nm    

    Technical Parameters

    Cable Type Fiber Count Cable Diameter

    (mm)

    Cable Weight kg/km Tensile Strength

     

    Long/Short Term N

    Crush Resistance

     

    Long/Short Term N/100mm

    Bending Radius

     

    Static/Dynamic

    mm

    GYXTW-2~12 2~12 10.0 105 600/1500 300/1000 10D/20D
    GY XTW-2~12 2~12 10.6 124 1000/3000 1000/3000 10D/20D

    Storage/Operating Temperature : -40℃ to + 70℃


  • self supporting optical fibre cable outdoor GYXTC8S with G652D optic fiber cable tower laying 4 core aerial cable

    self supporting optical fibre cable outdoor GYXTC8S with G652D optic fiber cable tower laying 4 core aerial cable

    The fibers, 250μm,are positioned in a loose tube made of a high modulus plastic, the tubes are filled with a water-resistant filling compound. The two sides PSP are longitudinally applied over the outer loose tube. Steel wires and loose tubes filled with water proof compound to ensure compact and longitudinally water blocking ,this part of cable accompanied with the stranded wires as the supporting part are completed with a polyethylene(PE) sheath to be figure 8 structure.


  • Telecommunication GYTY53 SM g652d underground armored optical cable for outdoor

    Telecommunication GYTY53 SM g652d underground armored optical cable for outdoor

    The fibers, 250μm, are positioned in a loose tube made of a high modulus plastic. The tubes are filled with a water-resistant filling compound. A steel wire, sometimes sheathed with polyethylene (PE) for cable with high fiber count, locates in the center of core as a metallic strength member. Tubes (and fillers) are stranded around the strength member into a compact and circular cable core. The cable core is filled with the filling compound to protect it from water ingress, over which a thin PE inner sheath is applied. After the PSP is longitudinally applied over the inner sheath, the cable is completed with a PE outer sheath.


  • 4~96 Core Outdoor Underground GYTS Optic Cables Supplier SM MM Stranded Loose Tube Fibre Optical Cable PE

    4~96 Core Outdoor Underground GYTS Optic Cables Supplier SM MM Stranded Loose Tube Fibre Optical Cable PE

    Description

    The fibers, 250μm, are positioned in a loose tube made of a high modulus plastic. The tubes are filled with a water-resistant filling compound. A steel wire, sometimes sheathed with polyethylene (PE) for cable with high fiber count, locates in the center of core as a metallic strength member. Tubes (and fillers) are stranded around the strength member into a compact and circular cable core. The PSP is longitudinally applied over the cable core, which is filled with the filling compound to protect it from water ingress. The cable is completed with a PE sheath.

    Characteristics

    · Good mechanical and temperature performance

    · High strength looes tube that is hydrolysis resistant

    · Special tube filling compound ensure a critical protection of fiber

    · Specially designed compact structure is good at preventing loose tubes from shrinking

    · Crush resistance and flexibility

    · PE sheath protects cable from ultraviolet radiation

    · The following measures are taken to ensure the cable watertight:

    · Steel wire used as the central strength member

    · Loose tube filling compound

    · 100% cable core filling

    · PSP enhancing moisture-proof

    Standards

    GYTS cable complies with Standard YD/T 901-2001as well as IEC 60794-1.

    Optical Characteristics

     

     

    G.652

    G.655

    50/125μm

    62.5/125μm

    Attenuation

    (+20℃)

    @850nm

     

     

    ≤3.0 dB/km

    ≤3.0 dB/km

    @1300nm

     

     

    ≤1.0 dB/km

    ≤1.0 dB/km

    @1310nm

    ≤0.36 dB/km

    ≤0.40 dB/km

     

     

    @1550nm

    ≤0.22 dB/km

    ≤0.23dB/km

     

     

    Bandwidth

    (Class A)

    @850nm

     

     

    ≥500 MHz·km

    ≥200 MHz·km

    @1300nm

     

     

    ≥1000 MHz·km

    ≥600 MHz·km

    Numerical Aperture

     

     

    0.200±0.015NA

    0.275±0.015NA

    Cable Cut-off Wavelength

    ≤1260nm

    ≤1480nm

     

     

    Technical Parameters

    Cable Type

    Fiber Count

    Tubes

    Fillers

    Cable Diameter

    mm

    Cable Weight kg/km

    Tensile Strength

    Long/Short Term N

    Crush Resistance

    Long/Short Term

    N/100mm

    Bending Radius

     

    Static/Dynamic

    mm

    GYTS-2~6

    2~6

    1

    4

    10.2

    116

    600/1500

    300/1000

    10D/20D

    GYTS-8~12

    8~12

    2

    3

    10.2

    116

    600/1500

    300/1000

    10D/20D

    GYTS-14~18

    14~18

    3

    2

    10.2

    116

    600/1500

    300/1000

    10D/20D

    GYTS-20~24

    20~24

    4

    1

    10.2

    116

    600/1500

    300/1000

    10D/20D

    GYTS-26~30

    26~30

    5

    0

    10.2

    116

    600/1500

    300/1000

    10D/20D

    GYTS-32~36

    32~36

    6

    0

    10.6

    129

    1000/3000

    300/1000

    10D/20D

    GYTS-38~48

    38~48

    4

    1

    11.2

    141

    1000/3000

    300/1000

    10D/20D

    GYTS-50~60

    50~60

    5

    0

    11.2

    141

    1000/3000

    300/1000

    10D/20D

    GYTS-62~72

    62~72

    6

    0

    12.0

    159

    1000/3000

    300/1000

    10D/20D

    GYTS-74~84

    74~84

    7

    1

    13.6

    209

    1000/3000

    300/1000

    10D/20D

    GYTS-86~96

    86~96

    8

    0

    13.6

    209

    1000/3000

    300/1000

    10D/20D

    GYTS-98~108

    98~108

    9

    1

    15.4

    232

    1000/3000

    300/1000

    10D/20D

    GYTS-110~120

    110~120

    10

    0

    15.4

    232

    1000/3000

    300/1000

    10D/20D

    GYTS-122~132

    122~132

    11

    1

    17.2

    280

    1000/3000

    300/1000

    10D/20D

    GYTS-134~144

    134~144

    12

    0

    17.2

    280

    1000/3000

    300/1000

    10D/20D

    Storage/Operating Temperature : -40℃ to + 70℃

     

     

     


  • GYTC8S armored 12 24 48 cores singlemode outdoor Figure 8 self supporting fiber optic cable

    GYTC8S armored 12 24 48 cores singlemode outdoor Figure 8 self supporting fiber optic cable

    Description

    The fibers, 250μm , are positioned in a loose tube made of a high modulus plastic. The tubes are filled with a water-resistant filling compound. A steel wire locates in the center of core as a metallic strength member. The tubes (and fillers) are stranded around the strength member into a compact and circular cable core. After an Aluminum Polyethylene Laminate (APL) moisture barrier is applied around the cable core, this part of cable accompanied with the stranded wires as the supporting part are completed with a polyethylene (PE) sheath to be figure 8 structure.

    Characteristics

    High tensile strength of stranded wires meet the requirement of self-supporting and reduce the installation cost.

    Good mechanical and temperature performance.

    High strength loose tube that is hydrolysis resistant.

    Special tube filling compound ensure a critical protection of fiber.

    The following measures are taken to ensure the cable watertight:

    Steel wire used as the central strength member

    Loose tube filling compound.

    100% cable core filling.

    APL moisture barrier.

    Standards

    GYTC8S cable complies with Standard YD/T 1155-2001 as well as IEC 60794-1.

     

    Optical Characteristics

        G.652 G.655 50/125μm 62.5/125μm
    Attenuation

    (+20℃)

    @850nm     ≤3.0 dB/km ≤3.0 dB/km
    @1300nm     ≤1.0 dB/km ≤1.0 dB/km
    @1310nm ≤0.36 dB/km ≤0.40 dB/km    
    @1550nm ≤0.22 dB/km ≤0.23dB/km    
    Bandwidth

    (Class A)

    @850nm     ≥500 MHz·km ≥200 MHz·km
    @1300nm     ≥1000 MHz·km ≥600 MHz·km
    Numerical Aperture     0.200±0.015NA 0.275±0.015NA
    Cable Cut-off Wavelength ≤1260nm ≤1480nm    

     

    Technical Parameters

    Cable Type Fiber Count Tubes Fillers Cable Diameter

    mm

    Cable Weight kg/km Tensile Strength

    Long/Short

    Term N

    Crush Resistance

    Long/Short Term

    N/100mm

    Bending Radius

    Static/Dynamic

    mm

    GYTC8A-2~6 2~6 1 4 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A-8~12 8~12 2 3 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A-14~18 14~18 3 2 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A -20~24 20~24 4 1 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A-26~30 26~30 5 0 9.5×18.3 218 600/1500 300/1000 10D/20D

    Storage/Operating Temperature : -40℃ to + 70℃


  • outdoor optical fiber figure 8 cable Aerial Communications Standard 12 24 48core fiber optic cable GYTC8A

    outdoor optical fiber figure 8 cable Aerial Communications Standard 12 24 48core fiber optic cable GYTC8A

    Description

    The fibers, 250μm , are positioned in a loose tube made of a high modulus plastic. The tubes are filled with a water-resistant filling compound. A steel wire locates in the center of core as a metallic strength member. The tubes (and fillers) are stranded around the strength member into a compact and circular cable core. After an Aluminum Polyethylene Laminate (APL) moisture barrier is applied around the cable core, this part of cable accompanied with the stranded wires as the supporting part are completed with a polyethylene (PE) sheath to be figure 8 structure.

    Characteristics

    High tensile strength of stranded wires meet the requirement of self-supporting and reduce the installation cost.

    Good mechanical and temperature performance

    High strength loose tube that is hydrolysis resistant

    Special tube filling compound ensure a critical protection of fiber

    The following measures are taken to ensure the cable watertight:

    Steel wire used as the central strength member

    Loose tube filling compound

    100% cable core filling

    APL moisture barrier

    Standards

    GYTC8A cable complies with Standard YD/T 1155-2001 as well as IEC 60794-1.

     

     

    Optical Characteristics

    G.652

    G.655

    50/125μm

    62.5/125μm

    Attenuation

    (+20℃)

    @850nm

    ≤3.0 dB/km

    ≤3.0 dB/km

    @1300nm

    ≤1.0 dB/km

    ≤1.0 dB/km

    @1310nm

    ≤0.36 dB/km

    ≤0.40 dB/km

    @1550nm

    ≤0.22 dB/km

    ≤0.23dB/km

    Bandwidth

    (Class A)

    @850nm

    ≥500 MHz·km

    ≥200 MHz·km

    @1300nm

    ≥1000 MHz·km

    ≥600 MHz·km

    Numerical Aperture

    0.200±0.015NA

    0.275±0.015NA

    Cable Cut-off Wavelength

    ≤1260nm

    ≤1480nm

     

    Technical Parameters

    Cable Type Fiber Count Tubes Fillers Cable Diameter

    mm

    Cable Weight kg/km Tensile Strength

    Long/Short

    Term N

    Crush Resistance

    Long/Short Term

    N/100mm

    Bending Radius

    Static/Dynamic

    mm

    GYTC8A-2~6 2~6 1 4 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A-8~12 8~12 2 3 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A-14~18 14~18 3 2 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A -20~24 20~24 4 1 9.5×18.3 218 600/1500 300/1000 10D/20D
    GYTC8A-26~30 26~30 5 0 9.5×18.3 218 600/1500 300/1000 10D/20D

    Storage/Operating Temperature : -40℃ to + 70℃

     


  • FOB Price: US $0.5 - 9,999 / Piece
  • Min.Order Quantity: 100 Piece/Pieces
  • Supply Ability: 10000 Piece/Pieces per Month
21 Total

What Is Outdoor Optical Cable

Outdoor optical cables are specialized types of fiber optic cables designed for external environments, providing robust and reliable data transmission across long distances and harsh conditions. Unlike their indoor counterparts, outdoor optical cables are built to withstand a range of environmental challenges such as extreme temperatures, moisture, ultraviolet radiation, mechanical stress, and even rodent interference.

Construction and Design



The construction of outdoor optical cables involves several key components that ensure their durability and performance. At the core lies the optical fiber, typically made of glass or plastic, responsible for transmitting data as light signals with high speed and low attenuation. Surrounding the optical fiber is a buffer layer which provides protection against physical stress and prevents microbending that could potentially cause signal loss.

In addition to the buffer layer, outdoor optical cables often feature an inner jacket made of durable materials like polyvinyl chloride (PVC) or polyethylene. This inner jacket safeguards the fiber against moisture and chemical ingress. Moreover, a strength member, often composed of steel or aramid yarn, is included to provide additional tensile strength, allowing the cable to resist pulling forces during installation and operation.

The outermost layer, known as the outer jacket or sheath, is typically made of UV-resistant and water-blocking materials. This outer jacket is crucial for protecting the cable from environmental elements such as sunlight, rain, and physical impacts. Some outdoor cables are also armored with metal sheaths or corrugated steel tape to offer extra protection against mechanical damage and rodent attacks.

Types of Outdoor Optical Cable



There are several types of outdoor optical cables, each suited for specific applications and environments:

● Aerial Optical Cables



Aerial optical cables are designed to be strung between poles or towers, making them ideal for overhead installation in urban and rural areas. These cables often come with specialized features such as messenger wires for added support and strength, enabling them to withstand wind and ice loading.

● Direct Burial Optical Cables



Designed for installation directly into the ground, direct burial optical cables are robust and highly resistant to external pressures. They often feature thick sheaths and armor layers to protect against the soil, rocks, and potential rodent damage. These cables are typically used in long-haul telecommunications networks and other underground applications.

● Duct Optical Cables



Duct optical cables are designed to be laid within pre-installed ducts or conduits. These cables are generally more flexible and lighter than direct burial cables, allowing for easier installation within confined spaces. They are commonly used in urban areas where ducts are already in place, facilitating network expansion without the need for extensive digging.

● Armored Optical Cables



Armored optical cables come equipped with an additional layer of metal armor, providing enhanced protection against mechanical damage, rodent attacks, and other external threats. These cables are suitable for use in environments where there is a high risk of physical damage, such as industrial sites, construction areas, and regions prone to natural disasters.

Applications of Outdoor Optical Cable



Outdoor optical cables have a wide range of applications across various industries, including telecommunications, utilities, and military installations. They are commonly used in the following scenarios:

● Telecommunication Networks



Outdoor optical cables form the backbone of modern telecommunication networks, enabling high-speed data transmission over long distances. They are essential for connecting central offices, data centers, and distribution hubs to end-user locations, ensuring seamless communication and internet connectivity.

● Utility Networks



Utility companies use outdoor optical cables to connect various components of their infrastructure, such as power substations, control centers, and monitoring stations. These cables facilitate real-time data transmission for monitoring and controlling utility operations, improving efficiency and reliability.

● Military and Defense



Outdoor optical cables are critical in military and defense applications, where secure and reliable communication is paramount. These cables are used to establish communication links between command centers, field units, and surveillance systems, providing a robust and secure means of data transmission.

In summary, outdoor optical cables are essential components in modern communication and infrastructure networks. Their specialized construction, combined with their ability to withstand harsh environmental conditions, makes them indispensable for a wide range of applications. As technology continues to advance, the demand for high-performance outdoor optical cables will only grow, driving further innovations and improvements in their design and functionality.

FAQ about Outdoor Optical Cable

What type of fiber optic cable is used outdoors only?

户外光缆经过专门设计,可承受户外可能遇到的恶劣环境条件,例如极端温度、潮湿和物理压力。了解各种类型的户外光缆对于确保任何户外网络安装的使用寿命和效率至关重要。

●室外光缆类型



室外光缆有几种类型,每种类型都适用于不同的安装环境和要求。其中,GYTS、GYTA 和 GYXTW 光缆主要用于架空和管道应用。这些光缆采用松散缓冲设计,强度构件位于中心位置,松散管周围填充防水凝胶。这种设计可确保对潮湿和其他环境危害提供强有力的保护。GYTA53

和 GYTY53 光缆专为直埋应用而设计。这些光缆可承受与地下埋设相关的巨大机械应力,通常采用金属铠装屏蔽,以防止挖掘和其他土壤活动造成的潜在损坏。同样,GYTA33 专为水下或直埋使用而设计,强调耐用性和灵活性,以应对淹没和不同的地面条件。

● 专用室外光缆



某些型号提供满足特定需求的独特功能。GYTC8S 也称为 8 字形电缆,是主要用于空中安装的典型示例。这种电缆的设计结合了钢质承力索和光纤元件,提供了悬挂在电线杆或塔架之间所需的结构完整性。

另一方面,GYFTY 电缆是一种非金属选项,适用于必须避免电磁干扰 (EMI) 的安装。其全电介质结构确保其不含任何导电材料,使其成为电气干扰高或接地和接地不可行区域的绝佳选择。

● 室外光缆的主要特点



室外光缆的主要目标是保护光纤,同时确保在恶劣环境下的最佳性能。这些电缆通常采用几种保护措施:

- 防水:对于防止湿气侵入至关重要,湿气侵入可能会损坏光纤并影响性能。通常在松套管内和不同电缆组件之间使用防水凝胶。
- 强度构件:为电缆提供机械强度,确保它能够承受拉力,无论是在空中悬挂还是埋地条件下。
- 铠装:用于某些电缆类型(如 GYTA53 和 GYTY53)以提供额外的机械保护,特别是在直接埋地情况下。
- 抗紫外线:对于架空电缆而言,抵抗长时间暴露在阳光下导致的降解至关重要。

● 室外光缆选择的实际考虑



选择室外光缆时,考虑具体的环境条件和安装要求至关重要。对于架空安装,具有足够强度和防水性的 GYTS、GYTA 和 GYXTW 等光缆必不可少。相比之下,对于需要直接埋地的场景,铠装 GYTA53 或 GYTY53 更为合适。

选择正确类型的室外光缆可确保网络可靠、高性能,能够承受环境挑战。正确的选择和安装对于在户外环境中保持光纤网络的完整性和功能性至关重要。

What is the difference between indoor and outdoor fiber optic cable?

Understanding the differences between indoor and outdoor fiber optic cables is crucial for ensuring the optimal performance and durability of your communication networks. Both cable types are designed to serve distinct environments and applications, and recognizing their unique characteristics will help you choose the right cable for your needs.

● Composition and Design



Indoor fiber optic cables are primarily designed for use within buildings, such as in horizontal wiring subsystems and vertical backbone subsystems. These cables are composed of optical fibers, which are thin glass filaments surrounded by plastic protective sleeves and an outer plastic skin. Unlike outdoor cables, indoor cables generally lack robust tensile strength and feature a less durable protective layer. This makes them lighter, more portable, and more economical, but also less suited to withstand severe physical stress and environmental hazards.

Outdoor fiber optic cables, on the other hand, are engineered to endure harsher conditions. These cables possess higher tensile strength and a thicker protective layer, often incorporating armored packages with metal skins. The robust construction of outdoor fiber optic cables makes them suitable for a variety of challenging environments, including outdoor burial, pipelines, overhead installations, and even underwater settings. The armoring protects the cable from physical damage, moisture, and other environmental stresses.

● Applications and Usage



Indoor fiber optic cables are predominantly used within buildings to connect network devices and facilitate internal communication. Their smaller tensile strength is sufficient for indoor applications where the cables are not exposed to extreme physical stress. Therefore, indoor cables are ideal for short-distance transmissions and environments where portability and economy are paramount.

Conversely, outdoor fiber optic cables play a crucial role in interconnecting buildings and linking remote networks. Given their enhanced durability, these cables are employed in a wide array of outdoor applications, such as outdoor burial, aerial installations, and undersea deployments. Whether laid overhead, buried underground, or submerged, outdoor cables ensure consistent and reliable performance regardless of environmental conditions. For instance, an Outdoor Fiber Drop Cable is specifically designed to provide a reliable connection from the mainline to individual residences or buildings, demonstrating the versatility and robustness required for outdoor use.

● Durability and Performance



The key distinction between indoor and outdoor fiber optic cables lies in their durability and performance under different conditions. Indoor fiber optic cables, while more economical and easier to handle, do not offer the same level of protection against environmental factors as their outdoor counterparts. Their susceptibility to physical damage, moisture, and other hazards makes them unsuitable for outdoor applications.

Outdoor fiber optic cables excel in environments where high durability is required. Their reinforced structure with higher tensile strength and thicker protective layers ensures that they can withstand significant physical stresses and environmental hazards. This robustness ensures long-term performance and reliability, making outdoor cables the preferred choice for challenging outdoor installations.

● Conclusion



In summary, the selection between indoor and outdoor fiber optic cables depends on the specific requirements of your project. Indoor fiber optic cables are ideal for internal applications within buildings, offering a cost-effective and lightweight solution for connecting network devices. In contrast, outdoor fiber optic cables are designed to endure harsh conditions and provide reliable performance in a wide range of environments, from underground installations to aerial deployments. Understanding these differences will help you make an informed decision, ensuring the longevity and efficiency of your communication network.

How to protect fiber optic cable outside?

Ensuring the proper protection of fiber optic cables, especially when installed outdoors, is crucial to maintaining uninterrupted network access. Given the potential challenges posed by extreme weather, animals, and human activities, taking proactive measures is essential. Here are some best practices for safeguarding outdoor optical fiber cables effectively.

● Use the Right Equipment



The first step in protecting outdoor optical fiber cables is selecting equipment specifically designed for harsh environments. Opt for ruggedized cables that can withstand extreme conditions. Direct burial cables are an excellent choice for underground installations, while aerial cables should have robust protective layers to endure considerable tension and weight from elements like ice and snow.

In addition to the right type of cable, ensure that all enclosures and connectors are sealed adequately to prevent water ingress. Water can seep into poorly sealed connectors, leading to signal disruptions and potential cable damage, particularly in freezing conditions where water expansion can cause cracking.

● Look for Certifications and Ratings



When choosing equipment, it's imperative to verify that it meets specific certifications and ratings that guarantee durability and reliability. Look for products rated for ultraviolet (UV) protection and water ingress, such as IP68-rated equipment. Adherence to international standards, such as those from the International Organization for Standardization (ISO), can also offer reassurance regarding the product's quality and performance. These certifications help ensure that the equipment can withstand outdoor conditions, reducing the likelihood of costly repairs and replacements.

● Handle Cables Properly



Careful handling of outdoor optical fiber cables during installation and maintenance is vital to avoid damage. Abide by the manufacturer's guidelines on the cable's bend radius and avoid twisting or pulling the cable excessively. Exceeding the bend radius can cause physical damage to the cable, potentially disrupting signal transmission.

Particular attention should be given to connectors, which are sensitive components. Avoid rubbing connectors against any surfaces to prevent scratching the glass fibers, which could cause breakage or signal interruption. In cold weather, cables may become stiffer and more brittle, making gentle handling even more critical.

● Use Raceways and Conduit



Implementing raceways and conduits provides an additional layer of protection for outdoor optical fiber cables. These hard plastic materials can shield the cables from the weight of accumulated snow and ice and offer a barrier against moisture penetration. By adding this protective infrastructure, you can considerably enhance the durability and resilience of the fiber optic network against environmental challenges.

● Invest in High-quality Components



High-quality components are the backbone of a reliable fiber optic network. Opt for trusted manufacturers that offer durable materials and user-friendly designs. High-quality enclosures, for instance, can allow technicians to access and repair cables more efficiently, even under adverse conditions. Reducing the time technicians spend fixing issues not only minimizes network downtime but also enhances safety and reduces costs.

● Proactive Measures Against Animal and Human Interference



Animals, such as rodents, often chew on cables, causing significant damage. Utilizing protective sleeves and barriers can help deter these creatures from gnawing on the cables. Moreover, installing visible markers can alert humans to the presence of buried or aerial cables, reducing the risk of accidental damage through activities like digging or construction.

Protecting outdoor optical fiber cables requires a multi-faceted approach that combines the right equipment, careful handling, and additional protective measures like raceways and conduits. By taking these steps, network providers can ensure the longevity and reliability of their fiber optic infrastructure, ultimately avoiding costly repairs, minimizing disruptions, and providing stable network access to both residential and business users.

Can fiber optic cable get wet?

Fiber optic cables have become integral to our modern communication infrastructure, offering unparalleled speed and reliability. However, a common concern is whether these sophisticated cables can be adversely affected by water exposure, especially in outdoor settings. This is particularly pertinent for those involved in the installation and maintenance of outdoor optical cables.

● Structure and Waterproof Capabilities



Fiber optic cables are designed with multiple protective layers. Internally, the optical fibers themselves are embedded in an oil paste and encased within a robust waterproof layer. This construction ensures that minor amounts of water penetration typically do not disrupt normal operations. Despite this, long-term exposure to moisture can compromise the integrity of the cables. Prolonged contact with water makes the coating layer brittle, potentially causing fiber breakage. This degradation can be particularly concerning for outdoor optical cable manufacturers, as their products are more exposed to environmental elements.

● Dangers of Moisture and Water Entry



The entry of water into fiber optic cables can have several detrimental effects. Humidity and water exposure can lead to hydrolysis reactions on the glass surface, causing silicon-oxygen bonds to break and forming cracks in the fibers. As these cracks expand, the effectiveness of the cable diminishes, particularly at wavelengths of 1.55 µm, where fiber loss is more pronounced. Additionally, in cold conditions, any water ingress freezes and expands, further damaging the optical fibers. This underscores the importance of waterproofing measures, which are essential for maintaining the structural integrity of the cables.

● Impact on Signal Transmission



While fiber optics are non-conductive and basic water exposure does not inherently affect signal transmission, prolonged contact does weaken the optical transmission signal. In severe cases, this can lead to signal interruptions. Splices in the cables are particularly vulnerable; if water infiltrates these junctions, significant light intensity loss can occur, severely degrading signal quality. For outdoor optical cable manufacturers, ensuring the durability of spliced sections is crucial for maintaining signal integrity in all weather conditions.

● Preventative Measures for Water Ingress



To mitigate the risk of water damage, several preventative measures can be implemented. Applying a waterproofing layer to the installation areas before laying down the cables can prevent rain from seeping into the connections. Elastic waterproof rubber tapes offer another layer of protection, ensuring resilience against even the heaviest storms. Waterproof materials should also be used to seal cable splices, avoiding the ingress of water that can trigger equipment failures.

Moreover, regular inspections and maintenance checks are vital to preempt potential issues. Covering cables with additional waterproof materials or cloth can provide supplementary protection against rain. Utilizing high-quality cables with inherent water resistance guarantees offers another level of security against moisture damage.

● Specialized Waterproofing for Submarine Cables



Submarine fiber optic cables face more complex waterproofing challenges due to the harsh marine environment. These cables are subjected to saltwater corrosion and hydrogen diffusion, which can drastically reduce their longevity and effectiveness. The cables incorporate multiple layers, including polyethylene, steel wire, and waterproof aluminum, to combat these issues. Radial and longitudinal measurements are taken to block water diffusion channels and ensure the core of the cable remains dry. These sophisticated measures help maintain the reliability of submarine communication networks, which are critical for international data transmission.

● Conclusion



In conclusion, while fiber optic cables are designed to resist minor moisture intrusion, extended exposure to water can degrade their performance. Implementing robust waterproofing measures is essential, especially for outdoor optical cable manufacturers, to ensure the longevity and reliability of these cables. Regular inspections and quality materials further safeguard against potential water damage, maintaining the integrity of our communication infrastructure.

Which type of fiber is primarily used for Outside Plant installations?

Outside Plant (OSP) fiber optic installations are critical for modern telecommunications and data transmission networks. Given the demanding requirements of these installations, the choice of fiber optic cable becomes a pivotal decision. Among the various types of fiber optic cables available, singlemode fiber stands out as the primary choice for OSP installations. This preference arises due to several factors, including the need for longer transmission distances, higher bandwidth capabilities, and the specific environmental challenges that OSP cables must endure.

● Why Singlemode Fiber is Preferred for OSP Installations



○ Transmission Distance and Bandwidth



One of the primary reasons singlemode fiber is favored for OSP installations is its superior performance over long distances. Singlemode fiber has a smaller core diameter, which drastically reduces signal attenuation and allows for the transmission of data over much greater distances compared to multimode fiber. This characteristic is particularly crucial in OSP environments where the cabling needs to cover extensive geographic areas, often spanning several kilometers without the need for signal regeneration.

○ Environmental Durability



OSP installations are subjected to various environmental stresses, including temperature fluctuations, moisture, and physical impacts. Singlemode fiber optic cables, especially those designed as Outdoor Fiber Drop Cables, are built to withstand these challenges. These cables often come with additional protective layers, such as armoring to prevent damage from rodents and crushes, and moisture-blocking gels or tapes to protect against water ingress. These features ensure the long-term reliability and durability of the fiber optic network in harsh outdoor conditions.

● Installation Methods and Techniques



○ Versatile Installation Options



Another significant advantage of singlemode fiber for OSP installations is its versatility in installation methods. OSP cables can be installed through a variety of techniques, including pulling through underground conduits, direct burial, and aerial suspension. The robustness of Outdoor Fiber Drop Cables makes them suitable for all these installation methods, providing flexibility in deploying the network according to the specific requirements of the installation site.

○ Splicing and Joining



In OSP networks, it is often necessary to join two cables to extend the length of the fiber run. Fusion splicing is the preferred method for this task in OSP installations. It offers the lowest loss and reflectance, ensuring the highest quality of signal transmission. Fusion splicing also provides greater strength and reliability, which are critical in outdoor environments where cables can be exposed to various physical stresses.

● Advantages Over Multimode Fiber



While multimode fiber is commonly used in premises cabling due to its lower cost and ease of installation for short-distance applications, it falls short when compared to singlemode fiber in OSP scenarios. Multimode fiber's higher attenuation rates and limited bandwidth capabilities make it unsuitable for long-distance outdoor installations. The superior performance characteristics of singlemode fiber, therefore, make it the undisputed choice for OSP.

● Conclusion



In conclusion, singlemode fiber is the primary choice for Outside Plant installations due to its unparalleled capabilities in handling long-distance transmissions, high bandwidth, and resilience to environmental challenges. The versatility in installation methods and the reliability of fusion splicing further cement its position as the optimal solution for OSP networks. Outdoor Fiber Drop Cables, designed specifically to endure the rigors of outdoor environments, ensure that the infrastructure remains robust and efficient over time. As telecommunications and data demands continue to grow, the reliance on singlemode fiber for OSP installations is set to remain a cornerstone of modern network deployments.

What is outdoor fiber optic cable?

Outdoor fiber optic cables are specially designed to withstand the rigors and environmental challenges associated with outdoor installations. These cables are critical in ensuring reliable and high-speed data, voice, and video transmission over long distances in various settings, including telecommunications, data centers, and enterprise networks. Unlike their indoor counterparts, outdoor fiber optic cables are built to resist factors such as moisture, UV radiation, temperature fluctuations, and physical damage.

● Construction and Features



Durability and Protection

One of the main characteristics of outdoor fiber optic cables is their robust construction. These cables typically feature a rugged outer jacket made from materials such as polyethylene or other weather-resistant compounds. This outer layer protects the delicate internal fibers from harsh environmental conditions, including extreme temperatures, water ingress, and physical wear and tear.

Types of Jackets and Armoring

To enhance their durability, outdoor fiber optic cables may also come with additional layers of protection, such as steel armoring or a corrugated steel tape. These armored variants provide extra resistance against physical damage, making them suitable for direct burial or installation in areas where they might be exposed to potential hazards. Moreover, these cables often include water-blocking elements, such as water-swellable tapes or gels, to prevent moisture penetration and ensure long-term reliability.

● Performance and Applications



High-Speed and Long-Distance Transmission

Outdoor fiber optic cables are designed to maintain high performance over long distances while ensuring minimal signal degradation. They are available in both singlemode and multimode configurations, each suited to specific applications. Singlemode fiber optic cables are ideal for long-distance transmission, often required in telecommunications and wide-area networks. They offer excellent light pulse fidelity and high bandwidth capabilities, ensuring reliable data transmission over several kilometers.

Outdoor Fiber Drop Cable

A specific type of outdoor fiber optic cable known as the "Outdoor Fiber Drop Cable" is widely used in Fiber-to-the-Home (FTTH) and Fiber-to-the-Premises (FTTP) applications. This cable type is characterized by its small size and high flexibility, making it easy to install in residential and commercial environments. The Outdoor Fiber Drop Cable is designed to be rugged and durable, featuring UV-resistant and moisture-resistant properties to ensure longevity in outdoor settings.

● Installation Considerations



Ease of Installation

Outdoor fiber optic cables are engineered to facilitate easy installation in various environments. They can be deployed through different methods, including aerial installation on poles, underground conduits, and direct burial. The flexibility and strength of the cable jackets allow them to be pulled through ducts and conduits without significant risk of damage.

Connector Types and Compatibility

These cables can be terminated with various types of connectors, such as LC, SC, and ST, depending on the network requirements and equipment compatibility. Pre-terminated cables with factory-installed connectors are also available to simplify the installation process, ensuring high performance and reliability.

● Reliability and Maintenance



Longevity and Performance Assurance

The reliability of outdoor fiber optic cables is paramount, given the critical nature of the applications they support. To ensure long-term performance, these cables undergo rigorous testing for attributes such as tensile strength, crush resistance, and environmental stress cracking. High-quality outdoor fiber optic cables are also backed by significant warranties, guaranteeing their performance and durability over extended periods.

Maintenance and Upgrades

Maintenance of outdoor fiber optic cables involves regular inspections to check for any signs of physical damage or environmental wear. In the event of damage, these cables can be repaired or spliced without significant interruption to the network. Additionally, as network demands grow, outdoor fiber optic cables can be easily upgraded to support higher bandwidths and new technologies, ensuring future-proof network infrastructure.

In conclusion, outdoor fiber optic cables are integral components of modern communication networks, engineered to deliver high-performance, reliable, and long-distance data transmission in challenging environmental conditions. Their robust construction, coupled with advanced protective features, makes them indispensable for a wide range of applications, from telecommunications to enterprise networking. The versatility and durability of the Outdoor Fiber Drop Cable further enhance the adaptability and resilience of contemporary fiber optic networks.

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