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Created with Pixso. High-Temperature Resistance Sapphire Optical Fiber with Low Transmission Loss for Infrared Transmission in Extreme Environments

High-Temperature Resistance Sapphire Optical Fiber with Low Transmission Loss for Infrared Transmission in Extreme Environments

Nazwa marki: ZMSH
MOQ: 10
Czas dostawy: 2-4 tygodnie
Warunki płatności: T/T
Szczegółowe informacje
Miejsce pochodzenia:
Szanghaj, Chiny
Średnica rdzenia:
5–20 μm (±1 μm)
Średnica okładziny:
100–250 μm (±1 μm)
Średnica powłoki:
200–350 μm (±1 μm)
Utrata transmisji:
≤ 2 dB/m przy 1550 nm
Przysłona numeryczna (NA):
0,3 – 0,5
Tryb transmisji:
Pojedynczy / Kilka / Wiele trybów
Długość fali operacyjnej:
1300 – 2000 nm
Podkreślić:

High-Temperature Resistance Sapphire Optical Fiber

,

Low Transmission Loss Sapphire Optical Fiber

,

Infrared Transmission Sapphire Optical Fiber

Opis produktu

High-Temperature Resistance Sapphire Optical Fiber with Low Transmission Loss for Infrared Transmission in Extreme Environments 0Sapphire-Derived Fiber (SDF) is an advanced high-performance optical fiber fabricated using the rod-in-tube method with single-crystal sapphire (Al₂O₃) as the core material.


Compared with conventional silica optical fibers, SDF offers exceptional thermal stability, mechanical strength, and resistance to corrosion, radiation, and high-pressure environments. It is specifically engineered for optical sensing and signal transmission in extreme conditions where traditional fibers cannot operate reliably.


With tunable optical parameters and flexible structural design, sapphire-derived fiber is widely applied in high-temperature sensing, infrared transmission, and harsh industrial monitoring systems.


Key Features


High-Temperature Resistance Sapphire Optical Fiber with Low Transmission Loss for Infrared Transmission in Extreme Environments 1Ultra-High Temperature Resistance
Operates up to ≤1400°C (short-term) and ≤1000°C (long-term), ensuring stable performance in extreme thermal environments.


Outstanding Mechanical Strength
Single-crystal sapphire structure provides superior hardness, wear resistance, and long service life.


Excellent Infrared Transmission Capability
Supports wide wavelength transmission (typically 1300–2000 nm), ideal for infrared sensing and spectroscopy.


Low Transmission Loss
Optimized structure ensures attenuation ≤2 dB/m @1550 nm, enabling efficient signal transmission in harsh environments.


Flexible Transmission Modes
Supports single-mode, few-mode, and multi-mode configurations to meet diverse application requirements.


Customizable Optical Design
Core diameter, cladding size, coating, numerical aperture (NA), and refractive index modulation can be tailored.


Technical Specifications


Geometric Properties

Parameter Value
Core Diameter 5–20 μm (±1 μm)
Cladding Diameter 100–250 μm (±1 μm)
Coating Diameter 200–350 μm (±1 μm)

Optical Properties

Parameter Value
Transmission Loss ≤ 2 dB/m @1550 nm
Numerical Aperture (NA) 0.3 – 0.5
Transmission Mode Single / Few / Multi-mode
Operating Wavelength 1300 – 2000 nm

Special Properties

Parameter Value
Refractive Index Modulation ≤ 0.015 (tunable)
Temperature Resistance ≤1400°C (short-term), ≤1000°C (long-term)


Manufacturing Process


Sapphire-derived optical fibers are produced using advanced crystal growth and precision fabrication technologies, including:

  • Rod-in-Tube Method (core structure formation)
  • Laser Heated Pedestal Growth (LHPG)
  • Edge-Defined Film-Fed Growth (EFG)

These processes ensure high crystal purity, uniform optical properties, and precise dimensional control. Post-processing such as polishing, coating, and precision cutting further enhances performance and durability.


High-Temperature Resistance Sapphire Optical Fiber with Low Transmission Loss for Infrared Transmission in Extreme Environments 2


Applications


  • High-temperature sensing (gas turbines, furnaces, aerospace engines)
  • Harsh environment monitoring (nuclear, petrochemical, oil & gas)
  • Infrared optical transmission and spectroscopy
  • Combustion diagnostics and flame detection
  • Aerospace and defense sensing systems
  • Industrial process monitoring under extreme conditions


Advantages Over Conventional Silica Fiber


Feature Sapphire Fiber (SDF) Silica Fiber
Temperature Resistance Up to 1400°C ~1000°C (max)
Mechanical Strength Very High Moderate
Infrared Transmission Excellent Limited
Chemical Stability Strong Moderate


Why Choose Sapphire-Derived Fiber (SDF)


SDF provides a reliable optical solution for environments where conventional fibers fail due to temperature limits, mechanical degradation, or chemical exposure.

With advanced manufacturing technology and strict quality control, this fiber ensures stable optical performance, long service life, and adaptability to customized application requirements.


FAQ


Q1: What is Sapphire-Derived Fiber (SDF)?
SDF is a special optical fiber made from single-crystal sapphire, designed for high-temperature and harsh-environment optical transmission.


Q2: Can SDF be customized?
Yes, parameters such as core diameter, NA, coating, and transmission mode are customizable.


Q3: Is sapphire fiber suitable for long-distance communication?
It is mainly used for sensing and harsh environments rather than long-distance telecom transmission due to higher attenuation.


Q4: What industries use sapphire optical fibers?
Aerospace, energy, petrochemical, defense, and scientific research industries.


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