Capped core canes mitigate differential thermal expansion stresses in large core-clad ratio preforms, preventing cracks during fiber draw.
A cleaving apparatus deflects an optical fiber into an S-bend to induce internal stresses for precise scratch propagation.
Optimized rotor configuration and gas flow design reduce shot content below 51 wt% while maintaining tensile strength in melt-formed inorganic fibre blankets.
Unidirectionally graded refractive index profile optical fiber design counters bend-induced modal deformation to suppress stimulated Brillouin scattering.
Segmented metal-coated glass fibers resolve the trade-off between mixing ease and electroconductive characteristics in resin composites.
Amorphous SiO2 sealing compound fixes anti-resonance element preforms within cladding tubes for precise fiber fabrication.
Cylindrically-symmetrical heating prevents microcrystallite formation in mid-infrared glasses to achieve high Q-values.
A cylindrical plasma resonant cavity uses movable cutoff waveguides to match varying glass tube diameters.
Segmented cladding confines light in a large core area, enabling high-power single-mode operation without precision refractive index control.
Carbon monoxide sintering reduces non-bridging oxygen defects in the cladding, lowering attenuation losses near 1380 nm.
A two-stage plasma deposition process creates a fluorine-doped cladding glass layer with a uniform refractive index profile.
Intermediate elements reduce mode coupling and transmission losses, enabling smaller bend radii.