Anodisation TRIZ Cases

Alkaline anodic oxidation prevents acid corrosion damage while producing high specular reflection gloss.

Reducing particle size prevents bridging defects in anodized layers, ensuring corrosion protection without mechanical weakness.

Silicon alkoxide electrodeposition creates flexible, corrosion-resistant coatings that reduce operating temperatures and extend component lifespan.

Metal particles in porous alumina pores convert optical energy into heat, addressing low desalination efficiency.

A two-stage electrodeposition process nucleates and grows aluminum coatings on semiconductor substrates using non-aqueous solvents.

Sulfamate plating baths prevent barium elution and component adhesion while maintaining insulation resistance.

Segmenting the anodizing process into cosmetic and adhesion-promoting layers prevents delamination on high-strength alloys.

A nickel-cobalt plated steel sheet with a chromate coating layer enhances adhesion and weldability.

Composite cold and warm sealing layers enhance alkali resistance against high-pH cleaning agents.

Controlling oxide film thickness to 70-145 nm resolves the contradiction between tone retention and color variety in watch components.

Replacing laser drilling with a chemical self-assembly process, this atomizer produces nanometer-sized particles for direct lung absorption.

An electrochemical cell decomposes nitrogen ions to form a titanium nitride coating, avoiding high temperatures and toxic reagents used in conventional methods.

Vacuum evaporation creates multi-strata porous coatings that increase capacitance while maintaining mechanical strength and stability.

Anodic electrolyzation creates a stable oxide layer on stainless steel separators, preventing chromium dissolution in fuel cells.

Electroplating copper onto a metal carrier foil resolves grain coarsening and pinhole defects in high-density interconnection manufacturing.

A bilayer passive film structure combines chromium and manganese oxides to form a stable corrosion-resistant barrier on stainless steel substrates.

Plasma electrolytic oxidation coating on magnesium implants reduces hydrogen gas accumulation and tissue damage by slowing the initial degradation rate.

Anodizing metal substrates before applying colorless UV-cured ink masks enables durable colorful patterns on metal surfaces.

Wet coating deposits nano-dispersed Prussian blue onto transparent electrodes to form uniform ion storage layers.

Non-aqueous electroplating deposits dense aluminum oxide coatings into plenums, eliminating porosity that traps halides in semiconductor processing equipment.

An insert-molded cover integrates a plastic antenna lid onto an oxide-coated metallic body.

Segmented antenna grooves integrate non-conductive fillers within hard anodic oxidation layers on metal shells.

Alternating iron and gold layers form a barcode nanowire via pulsed electrodeposition, enabling adjustable magnetic intensity for biomedical applications.

High-frequency induction heating accelerates boron diffusion in electrochemical boriding, eliminating toxic fluorinated compounds and reducing process duration.

Mixed acid electrolyte controls current density during anodic oxidation to form uniform micropores on aluminum molds.

A multi-wafer processing architecture enables simultaneous porous silicon formation across multiple substrates using shared electrodes and optimized chemical flow paths.

A non-contact electroplating apparatus deposits metal layers on semiconductor wafers using electrolytic solutions and electron sources.

Laser texturing creates precise three-dimensional features on metal substrates for controlled light interaction.

Fluorozirconate and molybdate ions deposit a protective coating that eliminates hexavalent chromium toxicity while maintaining salt spray resistance.

Selective iron removal in the passive film improves conductivity and corrosion resistance while reducing metal ion elution.

Chemical substitution creates a protective coating that prevents crack exposure and outgassing in harsh alkaline environments.

A PDMS nanocoating on micro/nano structures releases hygroscopic fluid to minimize ice adhesion.

An anodizing apparatus uses electrode bars and spray nozzles to treat specific bores in hydraulic blocks.

A microelectrode array sensor detects gas phase chemicals using a microporous electrolyte interface.

Heating the anodized aluminum oxide film before applying the conductive resin coat layer prevents cracks and ensures uniform electrical conductivity.

An anodic aluminum oxide structure with segmented via conductors minimizes thermal expansion stress.

Cyclic voltage application during anodising creates porous oxide regions that solve inconsistent biocidal loading and reduce treatment time.

Segmented pore sealing with metal hydroxide and oxide prevents cracking while improving acid resistance.

An oxide layer on the metallic receiving portion provides electrical isolation while enabling Joule heating of consumable articles.

Anodic aluminum oxide powder replaces rare earth elements to resolve stability and cost contradictions while minimizing environmental impact.

A threading device aligns and pushes a thread into workpiece holes using rotating transmission subassemblies.

Hydration inhibitor controls film thickness ratio on aluminum electrodes, reducing leakage current during high voltage formation.

A method creates superhydrophobic surfaces on 5000 series aluminum alloy using anodic oxidation and PDMS coating.

A ferritic stainless steel sheet with a Cr-rich oxide film resolves sulfidation resistance and adhesion issues in sulfide-based solid-state batteries.

An alumina security mesh embeds a continuous undulating copper circuit to prevent precise cuts and adhesive damage from bypassing the detection system.

Electrophoretic deposition ensures uniform edge coverage on planar transformer components, preventing electrical breakdown from uneven insulation.

A porous support member in the electrode holder distributes growth force and prevents exfoliation of thick porous layers during chemical formation.

Selective decoloring removes portions of a first colorant layer during anodizing, eliminating masking steps that damage coatings.