Photonic crystal fibers

Endlessly single-mode fibers

Designed for exceptional mode stability across a broad wavelength range of 400 nm to 1700 nm, these endlessly single-mode fibers do not exhibit a high-order mode cutoff. With options featuring visible-grade silica that enhance resistance to solarization and radiation, they are ideal for high-power visible light applications and precise single-mode light delivery.

Photonic Bandgap Hollow core fibers

Guiding optical signals through an air core, these fibers feature a microstructured region with a high air filling factor (>90%). With low bend sensitivity and minimal material nonlinearities, as over 95% of the optical power propagates in air, they provide excellent temperature immunity, making them ideal for high-performance sensing and metrology applications.

Anti-Resonant Hollow Core Fibers

Optical signals are guided through an air core surrounded by anti-resonant tube elements, minimizing power overlap in the silica. This design offers low material non-linearity, high damage thresholds, and ultra-low dispersion, making it ideal for low-latency data transmission, gas detection, and high-power pulse delivery.

Supercontinuum Photonic Crystal Fibers

Designed for efficient supercontinuum generation, these fibers combine low dispersion at pump wavelengths with a high numerical aperture, making them ideal for use with Ti-sapphire and YAG pulsed pump sources. Featuring a pure silica core and a small effective area, they provide high nonlinear coefficients and are optimized for pumping near 780 nm and 1060 nm, enabling a range of advanced applications from frequency comb generation to fiber gyroscopes.

Airclad fibers

Airclad fibers feature a pure silica core with a large diameter and ultra-high numerical aperture, making them ideal for power delivery and light collection in spectroscopy applications. Suitable for use across the visible to near-infrared range, they are engineered for enhanced performance in the most challenging environments.