Oil & Gas Fiber Optic Solutions2026-02-21T18:16:29+00:00
oil and gas

Our Approach Is Built on Precision, Stability & Absolute Process Control.

Optical Fibers Engineered for Extreme Oil & Gas Environments

Oil & gas operations demand materials that remain mechanically stable, chemically resistant, and optically reliable under extreme temperature, pressure, and vibration. Our specialty optical fibers are engineered specifically for environments where standard polymer-coated fibers rapidly degrade.

We manufacture metal-coated, spun, and custom optical fibers designed to withstand high downhole temperatures, corrosive fluids, mechanical stress, and long-term deployment. These fibers are trusted in distributed temperature sensing (DTS), distributed acoustic sensing (DAS), reservoir monitoring, pipeline integrity systems, and structural health monitoring.

By replacing polymer coatings with precisely applied metal layers, we eliminate thermal softening, chemical attack, and coating breakdown. This ensures stable signal transmission and extended service life in mission-critical oil & gas applications.

Oil & Gas Fiber Manufacturing – Reliability Without Compromise

Modern oil & gas sensing systems require components that integrate seamlessly with automated, real-time monitoring platforms. Our manufacturing processes use continuous inspection, digital process control, and statistical quality assurance to guarantee repeatability and long-term performance.

Each fiber is produced with strict control of coating adhesion, thickness uniformity, and mechanical integrity, ensuring predictable behavior under extreme operational stress.

  • High-temperature resistance up to 400 °C / 752 °F and beyond (metal coatings)

  • Chemical resistance to hydrocarbons, drilling fluids, and corrosive agents

  • Superior mechanical durability under vibration and pressure

  • Long-term signal stability for continuous monitoring

  • Full dimensional, optical, and material traceability

Oil & Gas-Optimized
Fiber Engineering

Our fibers are engineered using predictive modeling of thermal expansion, mechanical fatigue, and coating adhesion to ensure stable performance in downhole tools, pipelines, surface facilities.

Certified Energy-Grade Production

All oil & gas fiber products are manufactured under controlled conditions with documented materials, process validation, and optional high-temperature and chemical compatibility testing.

Solve Your Application Challenge

Typical Oil & Gas Applications

  • Downhole temperature and pressure monitoring (DTS / DAS systems)

  • Reservoir performance and production optimization

  • Pipeline integrity and leak detection systems

  • Wellbore seismic and acoustic sensing

  • High-temperature process control in refineries

  • Structural monitoring of offshore platforms

Available Fiber Types

  • Metal-coated fiber (gold, nickel, aluminum, copper) for extreme temperature and chemical resistance
  • Spun fiber for high-precision distributed sensing applications
  • Multi-core fiber for compact multi-channel signal routing
  • Fully customized fiber designs with tailored coatings, diameters, and mechanical reinforcement

Technical Performance Summary

Parameter Fiber Sepcification
Coating Type Metal coatings optimized for oil & gas (Gold, Nickel, Aluminum, Copper, Alloy blends)
Maximum Operating Temperature Up to 450 °C continuous, up to 600 °C for short-duration exposure
Pressure Resistance Stable performance in high-pressure downhole and subsea environments
Chemical Compatibility Resistant to hydrocarbons, drilling fluids, H₂S, CO₂, acids, and solvents
Coating Thickness 10 – 60 µm, application-specific customization available
Fiber Diameter Tolerance ±0.3 µm standard, tighter tolerances on request
Tensile Strength > 550 MPa after coating and thermal conditioning
Bend Radius Down to 18× fiber diameter for robust field deployment
Thermal Shock Resistance Stable under rapid temperature transitions from –40 °C to +450 °C
Optical Signal Stability No measurable attenuation drift under thermal and pressure cycling
Hydrogen Darkening Protection Coating acts as diffusion barrier against hydrogen ingress
Abrasion Resistance Enhanced surface hardness for downhole and pipeline installation
Surface Cleanliness Low-contamination surface suitable for sealed oilfield systems
Long-Term Aging Stability Tested for multi-year stability in harsh energy environments
Custom Geometry Support Single-core, spun, multi-core, reinforced constructions
Compliance Options ISO manufacturing, oil & gas qualification protocols available

Q&A

Can oil & gas fibers be customized for specific sensing systems?2026-01-13T19:17:01+00:00

Yes. We customize coating materials, coating thickness, fiber diameter, mechanical reinforcement, and fiber structure (single-core, spun, or multi-core) to match the exact requirements of DAS, DTS, reservoir monitoring, and pipeline integrity systems.

What testing is available for oil & gas fiber qualification?2026-01-13T19:14:38+00:00

We provide optional high-temperature endurance testing, pressure resistance evaluation, chemical exposure testing, tensile strength measurement, and thermal cycling verification. These tests confirm long-term performance in downhole tools, pipelines, and surface monitoring systems.

How do metal-coated fibers resist chemicals and drilling fluids?2026-01-13T19:15:51+00:00

Metal layers such as gold, nickel, or aluminum create a physical barrier that protects the glass fiber from exposure to corrosive fluids, solvents, hydrocarbons, and cleaning agents commonly found in oil & gas environments.

Why are metal-coated fibers preferred over polymer-coated fibers in oil & gas systems?2026-01-13T19:15:30+00:00

Metal coatings do not soften, crack, or chemically degrade like polymers. They provide superior resistance to heat, pressure, vibration, and hydrocarbons, ensuring stable signal transmission and longer operational life in harsh field conditions.

What temperature ranges can metal coated fiber withstand in oil & gas environments?2026-01-13T19:15:04+00:00

Metal coated fibers operate continuously up to 400 °C (752 °F) and can tolerate higher temperatures for short exposure periods. This makes them suitable for deep wells, geothermal reservoirs, and high-temperature process monitoring.

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