Vacuum Evaporation Coating TRIZ Cases

Decoupling ionization and acceleration via RF and DC sources expands the operating envelope while maintaining high ion flux density.

A DUV lens antireflection layer uses a varying mixing ratio of materials to maintain consistent optical performance.

Fluorine compounds reduce reflectance while maintaining impact resistance, resolving the trade-off between protection and optical quality in foldable displays.

Intermediary shields capture excess lithium from sputtering targets, eliminating over-concentrated deposits that cause visual defects in electrochromic devices.

Segmented shutters enable multi-type coating in a single batch, reducing processing time and costs.

Inert melting and forging of Al-Sc targets reduce oxygen and hardness variation, preventing cracking during sputtering.

Flash vaporization deposits organic layers via quantized units, preventing material degradation during high-temperature processing.

Stepped positioning markers allow automatic distance control, resolving manual alignment bottlenecks to ensure homogeneous film deposition.

Segmenting the brittle B-rich phase via hot and cold rolling suppresses arcing and particle generation during magnetic film deposition.

Vacuum metalizing aluminum onto vehicle emblems with a mask to define exposed surfaces for precise coating application.

Compressed gas transports nebulized coolant droplets to rapidly cool samples without damaging the apparatus from evaporation.

Non-aligned lid openings and thermal distributors stabilize evaporation rates across large substrates, preventing uniformity loss from thermal disturbances.

Tandem chamber design enables simultaneous substrate alignment and deposition, eliminating idle periods that increase tact time and cause organic material loss.

Segmented mask vapor deposition creates functional layers on OLED display panels with hollow regions, eliminating material residues from aperture avoidance.

A diamond-based multilayer antireflective coating system minimizes reflectance across specific infrared wavelengths through precise layer thicknesses.

A porous metal body with a three-dimensional mesh-like structure composed of nickel, tin, and chromium resists strong acid corrosion in fuel cell electrodes.

A segmented magnetron sputtering process deposits aluminum-copper metal layers using distinct temperature zones to control crystal grain growth.

A surface-coated cutting tool features a complex nitride layer of Al, Cr, Si, and Cu with specific atomic ratios to enhance wear resistance.

A processing data managing system calculates summary data from raw sputtering conditions to represent characteristic points for each cycle.

Hydrogenated iridium and tantalum atoms in the reflective layer prevent decomposition and short circuits while maintaining high transmittance.

A composite film switches wettability via UV light using a silicon and titanium oxide layer.

Adjustable regulating plates enable rapid material switching without chamber opening, preventing oxidation and reducing reconstruction time.

Replacing rotary magnets with linear motors eliminates bearing friction and degassing, allowing rapid vacuum pump exhaust.

A molybdenum distribution plate manages thermal exchange during sublimated material deposition.

Condensing toxic chalcogen waste gas recovers valuable materials, reducing hazardous emissions and lowering thin-film solar cell manufacturing costs.

Evaporation mask replaces laser welding with mechanical clamping and silicon carbide support frame to resolve wrinkling issues in Micro OLED manufacturing.

Continuous rotation eliminates acceleration periods that cause non-uniformity in reciprocating systems, enabling faster processing within a compact footprint.

Alternating titanium oxide and noble metal layers block pinholes to prevent iron elution from steel bipolar plates.

Controlled ion beam carbonization creates charge dissipative polymer surfaces with tunable resistivity.

Gradient Si content in an ion source enhanced AlCrSiN coating improves adhesion while avoiding high negative bias voltage requirements.

Toner lift-off forms metal images on curved substrates by eliminating costly etching steps.

Porous air tunnels in mask frames facilitate rapid cleaning liquid evaporation, reducing drying time and preventing vacuum variations during deposition.

A mask assembly uses thin shielding plates to selectively block openings and form non-rectangular deposition regions.

A filter insert with a conical opening and grid structure separates solid projections from vapor phase material during evaporation.

Controlled vacuum and bias voltage during multi-arc deposition prevent roughness from high temperatures, ensuring smooth corrosion-resistant surfaces.

A glass substrate coated with metal nanoparticles in an oxide matrix produces visible color through plasmon absorption.

Vacuum plating integrates reflective and diffusion layers via sputtering power control, resolving bonding failures and simplifying manufacturing complexity.

Atomic layer deposition creates photoactive transition metal thin films with embedded dielectric phases to prevent surface oxidation during air storage.

A golden rigid decorative member uses reactive sputtering with titanium alloy targets to form a multi-layer coating structure.

Metal triflate precursors enable consistent deposition via ultrasonic atomization in aerosol-assisted chemical vapor deposition processes.

Segmented window coatings resolve the conflict between high solar performance and visible light transmission, eliminating the need for separate glass units.

Sputtering a gold film onto silk fibroin creates humidity-sensitive optical anti-counterfeiting marks.

An evaporation apparatus uses a gas supply pipe with adjustable outlets to direct reactive gas into the evaporated material cloud.

Induction heating and MHD pumps maintain stable liquid metal composition, reducing impurity enrichment without high-purity feeding materials.

Partition plates in the nozzle maximize vapor flow at substrate edges while reducing it toward the center, resolving uneven film thickness distribution.

Sputtered Ni-M-Zr amorphous membranes eliminate palladium costs and embrittlement while ensuring uniform film deposition.

Periodic voltage reversal redistributes thermal energy across the target, preventing localized overheating and extending component lifespan.

Segmented conductor film on projections generates Johnson-Rahbeck force, equalizing potential to reduce separation time.