Glass Making Apparatus TRIZ Cases

See how controlled fiber diameter, strand weight, and ignition loss in glass roving improve the

See how telescopic half-drums with perforated bands prevent fibre clots and enable adjustable m

See how in situ polymerization coats fiber cores with thermoplastic during filament production,

See how boron-alkali glass fibers dissolve on demand to deliver wood preservatives and enable b

See how phase-shifted projection separation creates fiber bundles with uniform width distributi

See how optimized filament diameter, bundle count, and ignition loss balance spinning productiv

See how bi-component fibers with corrugated thermoplastic sheaths enable vacuum-bagged consolid

See how a cutter roll with reciprocating and traverse mechanisms achieves inclined cutting of h

See how a cutter roll with removable disk blades and traverse guide enables continuous inclined

See how controlled coolant and binder spray with real-time feedback reduces binder vaporization

See how stacked curved-fiber sheets without binders reduce solid heat conduction and manufactur

See how in situ polymerization of thermoplastic monomers onto glass fiber cores achieves unifor

See how a polyvinyl acetate and polyether-urethane coating maintains glass strand integrity dur

See how oscillating guide means restrict fiber bundle travel direction during high-speed cuttin

Random glass-fiber layouts and aluminum foil create heat paths; uniform fibers and foil-free wrapping reduce them.

See how tapered fiber bundle cross-sections with gradual transitions reduce stress concentratio

Curved chopped fibers and microfibers cut solid heat conduction in stacked vacuum insulation cores without added binder, preserving resilience.

Needling rotary glass fibers after binder coating creates thinner, denser insulation on existing lines while preserving thermal performance.

Particulate protuberances bonded to fiber surfaces increase matrix bonding and dispersion, improving composite strength with shorter fibers.

Precise control of fiber positioning, heating, and tension enables multi-pump side-pump combiners with low signal loss and high coupling efficiency.

Seven non-touching hollow tubes in a hollow core PCF suppress higher-order modes while maintaining low loss and bend-insensitive transmission.

Heated 2D plastic stock is shaped on a reusable 3D forming buck to deliver precise low-volume parts with less waste and re-tooling.

Layered Bi2O3 and PbS-doped silica fiber improves O+E band gain while shortening fiber length to cut ASE noise and noise figure.

Aluminum phosphate around erbium suppresses excited-state absorption, boosting L-band fiber amplifier gain with lower noise.

Seven non-touching hollow tubes use anti-resonant filtering to suppress higher-order modes while keeping hollow core fiber loss low and bend-insensitive.

Removing the pedestal in thulium-doped optical fiber cuts higher order modes and trapped pump light while supporting stable single-mode laser use.

Seven non-touching hollow tubes with d1/d2 ≥ 0.8 suppress higher-order modes while keeping fundamental-mode loss low across a broad wavelength range.

A barbell cladding and localized index steps let high-aspect-ratio optical fibers suppress higher-order modes while supporting large, high-power cores.

A D-shaped fluoride double-clad fiber cuts interface loss and boosts pump absorption through suction injection and core insertion casting.

Nested tubular elements create node-less anti-resonant barriers and Bragg-like layers to cut propagation loss while preserving wide bandwidth.

Asymmetric core doping drives mode mixing in optical fibers to deliver controlled BPP and flat-top beam profiles for laser material processing.

Seven non-touching hollow tubes in a hollow core PCF suppress higher-order modes while preserving low-loss, bend-insensitive transmission.

A higher inner-core and lower outer-core erbium profile cuts ASE and noise figure while preserving signal gain in optical amplifiers.

Measured angle and position corrections align welded fiber arrays on an optical element to cut clipping losses and improve beam combining.

Square flat-top beam shaping raises fill factor and cuts clipping losses in multi-fiber beam combining for faster phase control and steering.

A pre-twisted adhesive-stabilized cable bundle removes the spool, cutting robot weight and improving stability during helical powerline wrapping.

Combined sol-gel and MCVD processing with Yb-Al-P core doping suppresses photodarkening while keeping fiber loss low for high-power lasers.

Resilient annular dampers create a soft rotor suspension that absorbs vibration and unbalance, extending bearing life in fiberising.

A movable chuck jaw absorbs axial thermal expansion in optical preform lathes, preventing warping, whirling, and core decentering.

Annular resilient dampers create a soft rotor suspension that absorbs vibration and unbalance, extending bearing life in fiberising apparatus.

An on-machine optical measurement system locates the waveguide core while clamped, avoiding deformation-driven alignment errors during machining.

A pulsed laser focus moves axially along the fiber-hole interface to form a precise gas-tight glass weld while protecting hollow-core beam quality.

Glass-coated metal microwires are drawn and laser-cut to mass-produce asymmetric fine particles with controlled shape for bioassay and security.

Thermal drawing forms ultralong, uniform metallic glass fibers while suppressing crystallization and enabling complex nanoscale geometries.

A helical inner blade uses cylinder rotation to drive condensate axially, cutting blow-through steam use and improving heat transfer uniformity.

Annular resilient dampers isolate vibration and unbalance in a fiberising rotor, cutting bearing wear and extending service intervals.

An inner spiral blade uses cylinder rotation to drive axial fluid flow, reducing blow-through steam and improving condensate evacuation.

A tuned glass composition cuts moisture absorption in glass wool, preserving vacuum insulation performance while remaining practical to manufacture.

Laser cutting glass-coated fine wires forms non-spherical microparticles at scale, avoiding complex chemical routes and low-output batch production.

Outer diameter measurements along the fiber are converted into standard deviation data to detect thin-coating eccentricity and guide coating-unit adjustment.

Ultrashort pulsed laser welding forms narrow gas-tight seams between optical fibers and perforated elements while preserving beam quality.

A movable chuck jaw and elastic support relieve axial thermal expansion in optical preform lathes, limiting whirling, warping, and core decentering.

Matched jaw and chuck plate expansion keeps scroll chuck gripping force stable under temperature changes and helps prevent workpiece drop.

A tuned glass composition cuts moisture uptake in vacuum insulation wool while preserving thermal performance and industrial manufacturability.

A tuned SiO2-CaO-MgO-B2O3 fiber composition improves hydrocarbon fire resistance and biosolubility while staying fiberizable.

Non-uniform support thickness in anti-resonant hollow-core fibers improves structural stability while limiting mode coupling and broadband loss.

Specific oxide ratios with Y2O3 and CeO2 enable glass fibers that balance high modulus, low density, and lower forming temperature.

Specific SiO2-B2O3-Al2O3-SrO-TiO2 ratios cut dielectric loss, lower melt viscosity, and suppress striae during glass fiber spinning.

A gas cleaning step removes metal contaminants from porous glass preforms, cutting OVD optical fiber attenuation at 1310 and 1550 nm.

Non-silica glass and asymmetric stressor structures let infrared fibers preserve polarization beyond silica’s 2 μm limit.

A large primary preform and controlled hot forming improve antiresonance element placement, reducing geometric errors and optical attenuation.

Controlling fiber end-face deviation to 0.9° or less keeps multi-core optical connector cores aligned and reduces splicing loss.

Balancing UV reactor count, output, and exposure time cures the primary resin layer to suppress micro-bending loss without harming coating removability.

Two parallel contact lines between arcuate inner and outer elements improve preform removal, shape stability, and low-loss hollow-core fiber production.

Second-derivative analysis of the spinner temperature profile finds stable control points despite wear and vibration, preserving fiber quality.

Two parallel contact lines lock nested antiresonance elements in place during large preform drawing, improving symmetry and lowering attenuation.

Rolling glass sheets into cladding structures simplifies hollow-core fiber preform assembly while improving placement precision and light confinement.

Fine adjustment of antiresonant element preforms closes gaps in the sheath tube and prevents asymmetric deformation during fiber drawing.

Extruding a polyolefin copolymer onto glass fibers eliminates VOC emissions from solvent-based systems while maintaining drapability around cement board edges.

Dual-stage drying of alkali metal salts controls vapor pressure to reduce Rayleigh scattering and OH loss in optical fiber preforms.

A glass fiber applies a second glass coating layer to resolve the contradiction between environmental durability and optical transparency.

Thin film layers absorb laser energy to bond optical fibers while reducing residual stress and preventing crack formation.