High-velocity gas spinning prevents shot formation, reducing thermal conductivity below 0.26 W/m·K without deshotting.
A modified E-glass composition with optimized oxide ratios lowers forming viscosity to enable non-precious metal bushing use.
Plugging outer bushing nozzles shields inner channels from air currents and volatilization damage, ensuring stable glass flow.
Asymmetric multicore fiber geometry maintains sharp corners to resolve core misalignment bottlenecks in space division multiplexing systems.
A chlorine-doped optical fiber cladding layer incorporates a gaseous reducing agent during sintering to lower non-bridging oxygen defect concentrations.
Amorphous glass flakes maintain base color while improving skin feel, resolving contradictions between filler behavior and optical properties.
An asymmetric rectangular quartz core with a resin cladding achieves uniform irradiation intensity by resolving mode scrambling without external scramblers.
A glass preform manufacturing method deposits alkali metal compound particles on a rough surface for diffusion into the substrate.
Uniformly coating filiform glass fibers with a fire-retarding solution prevents uneven coverage and ensures consistent heat resistance.
Intermediate preform grinding shapes the outer diameter to match measured refractive index profiles for consistent optical fiber production.
Inducing axial strain profiles in large-mode-area fibers mitigates stimulated Brillouin scattering and maintains single-mode operation.
A rotating chassis switches between two independent chopping assemblies to enable continuous strand processing.
Heating a large cross-section preform and controlling capillary contact length enables high-speed fiber drawing with reduced confinement losses.
Segmenting the tube into fluorine-doped and undoped layers resolves viscosity instability while enabling precise refractive index profiles.
Reverses conventional sintering by positioning the unsintered portion at the bottom, preventing gravitational diameter variation during extension.
Laser heating expands an asymmetric microsphere stem to tune coupling distance between a silica microresonator and waveguide.
Mineral wool panels in double-wall cabin structures reduce weight while maintaining acoustic isolation.