Decorative Surface Effects TRIZ Cases

Jet-printed mask deposits liquid material to form fine gate electrodes, reducing fabrication costs while maintaining manufacturing precision.

A substrate processing apparatus circulates phosphoric acid solution through a bypass path to disperse silicon particles uniformly.

A sacrificial layer prevents slurry particle agglomeration and dishing around transistor gates during chemical mechanical planarization.

Island etching masks with thickness gradients control microneedle geometry, eliminating complex mold requirements for mass production.

A laminate sheet with a pattern layer maintains three-dimensional depth during molding.

Replacing silicon micro-fabrication with laser milling and chemical etching reduces manufacturing costs while maintaining precision.

A MEMS flexible membrane creates suction force through electrode actuation to manipulate microscale objects without complex multi-electrode structures.

A silicon substrate package forms through electrodes on a flat surface before cavity creation to maintain electrode coplanarity.

Preliminary die positioning prevents resin leakage and deformation during molding.

Conductive bonding layers join MEMS pressure sensor substrates, simplifying packaging and reducing device size.

Laser ablation writes masking patterns on spectacle lenses, eliminating expensive printing plates and mechanical damage during custom production.

Mn(III) ions etch organic polymers without forming insoluble MnO2 precipitates, ensuring stable oxidation and continuous operation.

A positive microcontact printing process transfers nanoscale patterns onto flexible substrates using a patterned mold and thiol inking.

Segmenting dry plasma and wet chemical steps reduces cleaning complexity while removing polymer residues.

A carbon barrier layer deposited between polysilicon and TEOS-based silicon oxide films prevents stiction.

Capping self-assembled polymer domains with a planarization layer improves pattern transfer accuracy by enhancing etch resistance contrast.

Outgassing barrier layer in MEMS-CMOS passivation minimizes gas emission, lowering cavity pressure and improving critical dimension control.

Segmented pre-baking chambers degas wafers independently, preserving structural integrity while achieving high vacuum hermeticity.

A display device integrates a light transmittance adjusting layer to dynamically control pixel brightness via electrostatic micro-motors.

Sacrificial protrusions stabilize MEMS devices during fabrication to prevent stiction, then undergo etching to enable operational movement.

A pattern laminate uses a high glass transition temperature first layer to stabilize imprint lithography patterns.

A continuous laminate production line applies digital decor motifs to a moving carrier web for immediate resin impregnation.

Extrusion shapes bevelled edges on mineral substrates during manufacturing, eliminating material waste from post-cutting machining.

Transferring surface roughness from an oxidized substrate to a polysilicon layer reduces contact area and prevents stiction in MEMS moving parts.

A doped bypass structure discharges etching-induced charge in CMOS-MEMS devices.

Roughened interconnect layer enables uniform silane film deposition, resolving coating non-uniformity on irregular surfaces to improve bonding strength.

A two-stage curing process uses a structured absorber film to selectively crosslink lacquer layers for patterned wood panel surfaces.

Alternating surface energy regions in a guide pattern direct block copolymer self-assembly, achieving fine pitch patterns without expensive EUV tools.

A detachable microstructure array delivers therapeutic agents through a biodegradable distal layer that separates upon skin insertion.

Mixed abrasive particles in a polishing slurry improve planarization and remove metal short circuits from tungsten films.

Decoupling trenches and spring elements isolate the sensitive membrane from mechanical stress, maintaining resonance frequency stability in ultrasonic sensors.

A MEMS sealing method creates entries outside the functional region to isolate cavity access from sensor elements.

A fine pattern forming method deposits etching gas reaction products as a protection film on photoresist patterns.

Dual release substrates enable uniform functional layer transfer, resolving thickness and coating non-uniformity trade-offs in molded bodies.

A gas-permeable sealing layer allows etching gas to penetrate through an opening portion to remove a non-conductive interlayer and form a cavity.

Segmenting the decorative member into distinct aesthetic and mechanical portions resolves fabrication complexity while ensuring strong component engagement.

A decorated polypropylene molded part uses a transfer film with an adhesion-promoting layer to bond primer and lacquer coatings.

Nitrogen concentration gradients in the nonmagnetic filling layer reduce surface roughness and enhance electrical conduction for high-density data retention.

Vacuum encapsulation prevents wafer cracking and polymer contamination during anisotropic plasma etching of thin MEMS devices.

A die form with recesses captures multiple curable materials to create multi-layer patterns on a support layer.

Protective layer shielding during sequential structuring prevents contamination while achieving 1-10 micrometer sensor precision.

A hybrid electrothermoplasmonic nanotweezer system uses alternating current fields to drive rapid nanoparticle transport.

A plasma etching method uses nitrogen and carbon-containing gases to form vertically shaped magnetic tunnel junction devices.

A resin adhesive tool enables rapid paillette arrangement on illustrated cards.

Segmented sealing combines an organic stress relief layer with a metal ring to resolve the contradiction between hermeticity and crack resistance.

Introducing excess moisture dilutes wafer byproducts to suppress trimming unevenness across batch wafers.

Etching and glancing angle deposition generate high-aspect ratio nano-rods that sustain the Cassie effect to reduce ice accumulation under extreme conditions.

A conductive jumper bridges isolated metal stacks to prevent heat and charge transfer during MEMS fabrication.