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Coherent Launches Singlemode Fiber for Miniaturized Optical Components
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Coherent Launches Singlemode Fiber for Miniaturized Optical Components

2026-11-01
Latest company blogs about Coherent Launches Singlemode Fiber for Miniaturized Optical Components

Coherent has introduced a family of single-mode fibers for the 1310–1620 nm telecom band, aimed at miniaturized optical components. The company said the fibers are designed to address optical transmission in compact packages through tight geometric consistency, controlled cutoff wavelengths and disciplined manufacturing processes.

Core technical advantages and application value

Coherent designed the single-mode fiber series around production concerns for component manufacturers. High core-to-clad concentricity and uniform geometry are intended to reduce splice loss and support consistent optical connections across assemblies.

Tight tolerances for second-mode cutoff wavelength and optimized bend-radius specifications make the fibers suited to miniature optical device packaging, the company said. Those characteristics are intended to translate into higher component reliability, improved production yields and lower overall manufacturing costs in couplers, optical switches and related devices.

Model specifications

The product family includes three listed models, all specified for the 1310–1620 nm operating range. Two models use an 80.0 ± 1.0 μm cladding diameter, while one uses a 125.0 ± 1.0 μm cladding.

Model Operating wavelength range Cladding diameter
1310-HP-80 1310 – 1620 nm 80.0 ± 1.0 μm
1310M-HP 1310 – 1620 nm 125.0 ± 1.0 μm
1310M-HP-80 1310 – 1620 nm 80.0 ± 1.0 μm

Key geometric and mechanical performance

The fibers are available in 80 μm and 125 μm cladding diameter options to accommodate different packaging limits. Their operating temperature range spans -55 to 85 °C, according to the specifications, covering a variety of demanding industrial environments.

The products carry a prooftest level of at least 200 kpsi (1.4 GN/m²), a mechanical screening measure intended to support long-term reliability. Coherent said the combination of optical performance and mechanical robustness is intended for harsh industrial applications.

Frequently Asked Questions

What are the packaging advantages of the 80 μm cladding diameter?
The thinner 80 μm diameter reduces bending stress and is suited to packages with severe space constraints. Combined with the high prooftest level, it is intended to maintain long-term mechanical reliability at tight bend radii.
How should an application choose between 80 μm and 125 μm cladding diameters?
The choice depends on packaging space and compatibility. The 80 μm version is intended for designs with strict size limits, while the 1310M-HP with 125 μm cladding is intended for processes and fixtures standardized around that diameter.
Does the fiber family perform consistently across different wavelengths?
The fibers are optimized for the 1310–1620 nm telecom band and offer broadband optical performance. Specific cutoff wavelength tolerances should still be reviewed for each model to confirm single-mode operation in the intended band.
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Coherent Launches Singlemode Fiber for Miniaturized Optical Components
2026-11-01
Latest company news about Coherent Launches Singlemode Fiber for Miniaturized Optical Components

Coherent has introduced a family of single-mode fibers for the 1310–1620 nm telecom band, aimed at miniaturized optical components. The company said the fibers are designed to address optical transmission in compact packages through tight geometric consistency, controlled cutoff wavelengths and disciplined manufacturing processes.

Core technical advantages and application value

Coherent designed the single-mode fiber series around production concerns for component manufacturers. High core-to-clad concentricity and uniform geometry are intended to reduce splice loss and support consistent optical connections across assemblies.

Tight tolerances for second-mode cutoff wavelength and optimized bend-radius specifications make the fibers suited to miniature optical device packaging, the company said. Those characteristics are intended to translate into higher component reliability, improved production yields and lower overall manufacturing costs in couplers, optical switches and related devices.

Model specifications

The product family includes three listed models, all specified for the 1310–1620 nm operating range. Two models use an 80.0 ± 1.0 μm cladding diameter, while one uses a 125.0 ± 1.0 μm cladding.

Model Operating wavelength range Cladding diameter
1310-HP-80 1310 – 1620 nm 80.0 ± 1.0 μm
1310M-HP 1310 – 1620 nm 125.0 ± 1.0 μm
1310M-HP-80 1310 – 1620 nm 80.0 ± 1.0 μm

Key geometric and mechanical performance

The fibers are available in 80 μm and 125 μm cladding diameter options to accommodate different packaging limits. Their operating temperature range spans -55 to 85 °C, according to the specifications, covering a variety of demanding industrial environments.

The products carry a prooftest level of at least 200 kpsi (1.4 GN/m²), a mechanical screening measure intended to support long-term reliability. Coherent said the combination of optical performance and mechanical robustness is intended for harsh industrial applications.

Frequently Asked Questions

What are the packaging advantages of the 80 μm cladding diameter?
The thinner 80 μm diameter reduces bending stress and is suited to packages with severe space constraints. Combined with the high prooftest level, it is intended to maintain long-term mechanical reliability at tight bend radii.
How should an application choose between 80 μm and 125 μm cladding diameters?
The choice depends on packaging space and compatibility. The 80 μm version is intended for designs with strict size limits, while the 1310M-HP with 125 μm cladding is intended for processes and fixtures standardized around that diameter.
Does the fiber family perform consistently across different wavelengths?
The fibers are optimized for the 1310–1620 nm telecom band and offer broadband optical performance. Specific cutoff wavelength tolerances should still be reviewed for each model to confirm single-mode operation in the intended band.