HFCL A1 Optical Fiber

Your Gateway to High-speed Data Transmission

HFCL A1 Optical Fiber
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About

HFCL A1 optical fiber, a single-mode fiber, guarantees seamless connectivity through its enhanced bend insensitivity. Featuring low water peak attenuation across the entire bandwidth range, this optical fiber ensures uninterrupted data transmission. Its minimized macro-bend loss, splice losses, and dispersion losses make it the preferred choice for network operators seeking optimal performance. Complying with ITU-T G.657.A1 standards, flexi arch stands at the forefront of reliable and efficient fiber optics technology. Moreover, this fiber optics solution is compatible with a legacy network built with ITU-T G.652D and G.657.A1 fiber.

Features

Reliable in Tight Bends, Consistent Signal Performance, Fully Compatible with Legacy Network, FTTx; Long Indoor Wiring and Moderate-density Deployments, Compatible with G.652D/G.657.A1

Benefits

Bend Insensitivity

HFCL A1 optical fiber ensures uninterrupted data flow, even in tight bends, providing a resilient and durable solution

Low Water Peak Attenuation

Experience consistent high-performance signal transmission across the entire bandwidth range through this fiber optics technology

Reduced Losses

HFCL A1 optical fiber uses fiber optics technology that minimizes macro-bend loss, splice losses, and dispersion losses, guaranteeing optimal transmission capabilities

Key Specifications

Attribute

Unit

Value

Transmission Properties

Attenuation @ 1310 nm

dB/km

≤ 0.34

Attenuation @ 1383 nm

dB/km

≤ Value at 1310 nm

Attenuation @ 1550 nm

dB/km

≤ 0.20

Attenuation @ 1625 nm

dB/km

≤ 0.23

PMD coefficient (Individual Fiber)

ps/√km

≤ 0.15

Macro-bend Loss

1 turn around 10 mm radius

dB

≤ 0.75 @ 1550 nm

≤ 1.50 @ 1625 nm

10 turn around 15 mm radius

dB

≤ 0.25 @ 1550 nm

≤ 1.00 @ 1625 nm

Geometrical Characteristics

Coating Diameter

µm

242 ± 5

Mode Field Diameter

µm

9.1 ± 0.3 @ 1310 nm

10.3 ± 0.5 @ 1550 nm

Applications

  • Long-haul transmission
  • Metro networks
  • Mobile backhaul networks
  • Access networks
  • FTTx networks
  • Microcables
  • Drop cables

Variants

FAQs

What material is used in manufacturing communication optical fibers?

Silica or multi-component glass forms the foundation for crafting communication optical fibers, ensuring optimal signal transmission and durability.

What are the advantages of fiber optics communication?

Fiber optics communication stands out with minimal signal degradation, thin and non-flammable construction, and economical, energy-efficient operation, meeting diverse communication needs effectively. To know more about fiber optics communication read- https://www.hfcl.com/blog/optical-fiber-communication.html

Why are plastic-clad silica fibers less user-friendly?

Plastic-clad silica fibers present challenges due to insolubility in solvents, complicating bonding and connector applications. Excessive plasticity in the cladding makes handling difficult.

Why is silica chosen for optical fiber fabrication?

Silica's exceptional elasticity, maintaining integrity until the breaking point, makes it the preferred material for crafting optical fibers. This property ensures durability and flexibility in various applications.

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