Fiber Optic Cables

Image Part Number Description / PDF Quantity Rfq
N821-05M-MG-T

N821-05M-MG-T

Tripp Lite

10 GB DUPLEX MULTIMODE 50/125 OM

296

N820-20M-OM4

N820-20M-OM4

Tripp Lite

FIBER OPTIC CBL LC-LC DUPLEX 20M

411

N392-38M-3X8-AP

N392-38M-3X8-AP

Tripp Lite

MTP/MPO (APC) SINGLEMODE SLIM TR

11

N392-15M-3X8-AP

N392-15M-3X8-AP

Tripp Lite

MTP/MPO (APC) SINGLEMODE SLIM TR

0

N304-09M

N304-09M

Tripp Lite

DUPLEX MULTIMODE 62.5/125 FIBER

8

N845-10M-12-MG

N845-10M-12-MG

Tripp Lite

MTP/MPO MULTIMODE PATCH CABLE, 1

149

N356-30M

N356-30M

Tripp Lite

DUPLEX SINGLEMODE 8.3/125 FIBER

19

N845-03M-8L-MG

N845-03M-8L-MG

Tripp Lite

MTP/MPO TO 8XLC FAN-OUT PATCH CA

38

N845-05M-8L-MG

N845-05M-8L-MG

Tripp Lite

MTP/MPO TO 8XLC FAN-OUT PATCH CA

82

N306-12M

N306-12M

Tripp Lite

DUPLEX MULTIMODE 62.5/125 FIBER

5

N820-05M-OM5

N820-05M-OM5

Tripp Lite

LC TO LC MULTIMODE DUPLEX FIBER

18230

N392-45M-3X8-AP

N392-45M-3X8-AP

Tripp Lite

MTP/MPO (APC) SINGLEMODE SLIM TR

18

N821-02M-MG-T

N821-02M-MG-T

Tripp Lite

10 GB DUPLEX MULTIMODE 50/125 OM

122

N821-09M-MG-T

N821-09M-MG-T

Tripp Lite

10 GB DUPLEX MULTIMODE 50/125 OM

46

N858-61M-3X8-MG

N858-61M-3X8-MG

Tripp Lite

MTP/MPO MULTIMODE BASE-8 TRUNK C

3

N818-01M

N818-01M

Tripp Lite

FIBER OPTIC CBL LC-ST DUPLEX 1M

0

N424-05M

N424-05M

Tripp Lite

FIBER OPTIC CBL LC-SC DUPLEX 5M

0

A102-03M-THIN

A102-03M-THIN

Tripp Lite

TOSLINK CABLE PLUG-PLUG 3M

0

N304-23M

N304-23M

Tripp Lite

FIBER OPTIC CBL SC-ST DUPLEX 23M

0

A102-02M-THIN

A102-02M-THIN

Tripp Lite

TOSLINK CABLE PLUG-PLUG 2M

0

Fiber Optic Cables

1. Overview

Fiber optic cables are critical components in modern communication systems, utilizing glass or plastic fibers to transmit data via light pulses. Compared to traditional copper cables, they offer higher bandwidth, faster data rates, and immunity to electromagnetic interference (EMI). These cables form the backbone of global telecommunication networks, data centers, and high-speed internet infrastructure, enabling technologies like 5G, cloud computing, and IoT.

2. Major Types and Functional Classification

TypeFunctional CharacteristicsApplication Examples
Single-Mode Fiber (SMF)Transmits one light mode with minimal dispersion, ideal for long-distance transmissionTelecom backbone networks, transoceanic cables
Multi-Mode Fiber (MMF)Supports multiple light modes, lower cost for short-distance high-speed linksData center interconnects, enterprise LANs
Tight Buffered CableIndividual fiber protection with polymer coating, flexible for indoor useOffice networks, security camera systems
Loose Tube CableWaterproof gel-filled design for outdoor durabilityUnderground/metro deployment, aerial installations
Ribbon Fiber CableFlat ribbon structure for high-density parallel optical connectionsHigh-density data centers, 400G/800G networks

3. Structure and Composition

A typical fiber optic cable consists of:

  1. Core: Glass (silica) or plastic center (50-62.5 m diameter) guiding light signals
  2. Cladding: Lower-refractive-index material surrounding core for total internal reflection
  3. Coating: UV-cured acrylate layer for mechanical protection and flexibility
  4. Strength Members: Aramid yarn or fiberglass for tensile load resistance
  5. Outer Jacket: Flame-retardant PVC/LSZH (Low Smoke Zero Halogen) for environmental protection

Advanced designs incorporate micro-bend-resistant coatings and bend-insensitive fibers (BIF) for complex routing scenarios.

4. Key Technical Parameters

ParameterTypical ValuesImportance
Attenuation0.18-0.35 dB/km @1310/1550nmDetermines maximum transmission distance
Bandwidth10-100 GHz km (MMF), unlimited (SMF)Limits data rate capacity
Operating Wavelength850/1300/1550 nmMatches optical transceiver specifications
Max Tensile Load100-500 N (short-term)Ensures mechanical reliability during installation
Bend Radius10-20 cable diameterPrevents signal loss from micro-bending
Temperature Range-40 C to +70 CGuarantees performance in extreme environments

5. Application Fields

Major industries and equipment utilizing fiber optic cables:

  • Telecommunications: 5G base stations, DWDM backbone systems
  • Data Centers: Switch interconnects (40G/100G/400G), MPO trunk cables
  • Medical: Endoscopy equipment, MRI machine connections
  • Industrial: Smart grid sensors, factory automation networks
  • Defense: Submarine sonar systems, secure communication networks

Case Study: Google's Equiano submarine cable (2021) uses space-division multiplexing with 12 fiber pairs, achieving 144Tbps capacity across the Atlantic.

6. Leading Manufacturers and Products

ManufacturerRepresentative ProductsFeatures
CommScopeClearCurve Ultra Low Bend Loss Fiber10x smaller bend radius than standard SMF
FujikuraSM-G.654.E Ultra Low-Loss Fiber0.15 dB/km attenuation for long-haul networks
Yangtze Optics172-fiber Ribbon CableSupports 800Gbps per cable in data centers
HuaweiOptiX OSN 9800 Multi-Service PlatformIntegrated with G.652/G.655 fiber modules
3MEncore Zirconia ConnectorsLow back reflection (<-60dB) for CATV networks

7. Selection Guidelines

Key considerations for optimal cable selection:

  • Transmission Requirements: Match fiber type (SMF/MMF) and wavelength with transceiver specifications
  • Environmental Conditions: Choose LSZH jackets for indoor fire safety, armored cables for direct burial
  • Installation Constraints: Use bend-insensitive fibers for tight spaces, pre-terminated cables for rapid deployment
  • Future-Proofing: Select WDM-compatible cables with extra buffer tubes
  • Cost-Benefit Analysis: Balance upfront costs vs. lifetime maintenance requirements

Example: For a 200m data center link, choose OM4 multi-mode fiber with MPO connectors for 100Gbps Ethernet compatibility.

8. Industry Trends

Key development trends shaping the fiber optic market:

  • Higher Speeds: Transition to 800Gbps and 1.6Tbps systems driving adoption of SX6/SX8 fibers
  • Network Virtualization: FlexGrid DWDM systems requiring bend-insensitive and polarization-maintaining fibers
  • IoT Expansion: Proliferation of fiber-to-the-home (FTTH) networks for smart city infrastructure
  • Material Innovation: Adoption of hollow-core fibers with 0.18 dB/km loss and ultra-low latency
  • Sustainability: Biodegradable jackets and reduced rare-earth dopant usage in cables

The global fiber optic market is projected to grow at 12% CAGR through 2030, driven by 5G deployment and hyperscale data center expansion.

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