Liquid Surface Applicators TRIZ Cases

Movable guard height adapts the liquid inlet to thin or large substrates, improving treatment liquid collection despite wafer bending.

A sublimable solidified film dries substrates after solvent evaporation, helping prevent fine pattern collapse during drying.

A movable slot die and timed pump cycles enable intermittent MEA electrode coating with cleaner edges, less ink waste, and higher throughput.

A carrier film pre-coats adhesive before transfer to electrode sheets, enabling uniform two-sided coating at high line speed without metal exposure.

Variable nozzle speed matched to substrate edge shape suppresses capillary coating thickness buildup and keeps films uniform.

Alternating organic and inorganic layers add photovoltaic function while improving isotropic strength, lowering weight, and reducing delamination.

Real-time viscosity, flow, and bead-shape feedback stabilizes slot-die battery coating and reduces slurry loss from manual variation.

Backside etching on intact wafers forms alignment features and stress-relief regions, improving planar photonics yield and packaging accuracy.

Simultaneous drying of a mixed-solvent polymer coating and particle slurry suppresses skin layers while preserving porous fluid infiltration.

Pressurized water vapor mixed with sulfuric acid in a guided nozzle raises SPM temperature for efficient resist removal with less fuming.

Edge imaging and feedback control improve wafer edge bead removal, protecting coating uniformity and semiconductor yield.

A two-temperature substrate process lifts the wafer off the stage to pyrolyze backside organic residue, reducing particles and stabilizing positioning.

Closed-loop dual-side glue coating improves electrode bonding while maintaining uniform thickness, pattern quality, and high line speed.

Optical profiling of substrate edge film removal pinpoints width error factors, enabling faster process adjustment and steadier film formation.

Adjustable gaskets reshape the coating flow channel to stabilize slurry extrusion speed across viscosities and maintain consistent battery coating quality.

A moving guide film between the die and substrate suppresses balcony regions and drag lines for more uniform battery electrode coating.

Bubble-assisted heated phosphoric acid circulation prevents silica deposition while preserving etching selectivity on silicon substrates.

Localized light heating forms and expands a gas phase opening to remove processing liquid, shorten surface tension exposure, and prevent pattern collapse.

A single-pump branched circulation loop supplies multiple liquid processors while maintaining temperature control and lowering component count.

Opposed suction and air discharge units redirect electrode strips without roller contact, preventing wrinkling and scrap in battery production.

A transparent insulating window reveals the electrode mixture layer edge, helping align positive and negative electrodes during battery winding.

A symmetric vacuum chamber with planetary rotation and perimeter discharge improves plasma species distribution for more uniform batch coating.

A barrier layer isolates vinyl chloride from the reflective stack, preserving wide-angle reflectivity, weather resistance, and printability.

Nitrogen backside purge removes photoresist residue and bubbles during wafer coating, helping prevent shorts and keep the wafer clean and dry.

Gas phase polymer support replaces liquid graphene transfer, cutting contamination and oxidation while preserving conductivity for medical contact.

A reciprocating glue receiving member moves aside during coating, then captures residual glue to prevent box body contamination.

A moving irradiation region forms and maintains a gas phase layer that removes IPA liquid faster, limiting pattern collapse and particle generation.

A detachable rectifying mechanism with branching channels equalizes slurry pressure to keep battery electrode coating thickness consistent.

An identification layer marks asymmetrically coated electrode plate surfaces, enabling correct automated alignment and preventing battery assembly errors.

Hydroxyl-bearing inorganic particles and a high-temperature epoxy cure shorten laminated core bonding time while preserving adhesion and insulation.

A liquid-liquid interface self-assembles semiconductor flakes into continuous thin films, enabling ambient coating with less aggregation.

An acid-modified polypropylene coating film improves interlayer adhesion on heat-resistant films while resisting peeling in hot, humid flexible flat cables.

Sequential MLD precursors form carbon films on metal surfaces while limiting voids, shrinkage, and plasma damage in high-aspect-ratio features.

Virtual 3D coater scenarios train battery workers to diagnose defects and adjust process parameters without interrupting production.

Folding and reopening the film spreads liquid resin quickly over large areas, avoiding spreader adhesion, resin loss, and cleaning.

Independently movable support parts stabilize stepped substrates and reduce shadowing to improve deposition uniformity and process reliability.

Equal-length supply pipes and lower header pressure loss keep insulating liquid flow and discharge pressure uniform across multi-row slot dies.

An elastic member between the piston and barrel restores sealing under wear and regulates pressure to reduce leakage in material feeding.

A pH-above-pKa phosphonate treatment improves aluminum coating adhesion and corrosion resistance while preserving surface appearance.

A pH-controlled phosphonate layer on aluminum improves adhesion and corrosion resistance while preserving surface appearance.

A porous solvent-loaded tool lets a robot shape fastener sealant quickly, reducing adhesion, rework, and surface protrusions.

A mixed good/poor solvent coating and simultaneous slurry drying create porous water-insoluble polymer bodies while suppressing skin layers.

Fixing pins and bolts align segmented shims in multi-lane slot dies to keep coating widths uniform and cut adjustment loss.

A yttrium aluminum oxide coating helps semiconductor chamber components resist halogen and oxygen plasma erosion, reducing wear and extending life.

Vacuum melting with reducing gas suppresses silicon oxidation, improving film adhesion and enabling thick, clean semiconductor films.

Continuous wheel rotation and pivoting let a pressure roller print the full rim flange evenly, removing visible color rings and manual rework.

Perpendicular guide members shape slurry during double-sided current collector coating to prevent layer imbalance, boundary gaps, and ignition risk.

Sensor-guided brushes contour different tire sizes to coat sidewalls precisely while reducing rim contact, overspray, and manual touch-ups.

Rapid braking during high-speed spin coating creates wave-like photoresist flow, improving coverage on patterned wafers without extra resist.

Opposed suction and air discharge guide electrode strips without roller contact, preventing wrinkling, scrap, and yield loss.

Granulated and sintered yttria thermal spray powder with controlled primary particle sizes enhances coating density via atmospheric-pressure plasma spraying.

A piston thermal management layer uses a polysiloxane matrix embedded with hollow spheres to control heat flow.

A thermal protection glove uses a thin polymer coating and distributed studs to enhance grip and tactile sensitivity.

Superhydrophobic coatings on the roller guard prevent paint adhesion, enabling edge painting without taping.

Digital inkjet print heads deposit adhesive glue via aerosol droplets to bond elements without mechanical contact.

Slanting side walls support elevated robot guide rails to create wider control areas, resolving airflow obstruction and construction complexity constraints.

A roller microcontact printing device transfers thin films via adhesion work on flexible substrates.

Cooling flowable thermoplastic material near its solidification point prevents turbulence and density variations during high-speed injection.

Segmented guide cups manage air currents to stop mist adhesion and reduce particle generation on substrates.

A transparent hydrophobic coating binds fatty acids to glass substrates for durable water repellency.