Decorative Surface Effects TRIZ Cases

Segmented magazine and mechanical plunger apply adhesive gems to hair, eliminating heat damage and battery requirements.

A handheld gem applicator assembly uses a plunger mechanism to dispense adhesive-backed gems onto target surfaces.

A wafer level MEMS sensor package replaces bond wires with conductive bumps to reduce stress on the sensing film while maintaining compact size.

Block copolymer directed self-assembly forms uniform vias through phase separation within pre-defined openings.

Directed self-assembly of block copolymers creates high-density patterns on imprint templates without external alignment steps.

Segmented carbon nanotube arrays grow on a substrate to resolve the trade-off between high thermal conductivity and poor air convection in dense structures.

Thin films create tubular sleeves for unidirectional filaments, removing resin weight while maintaining structural integrity.

Automated cavity filling eliminates manual masking waste and process fluctuations in vehicle interior trim production.

Segmented micro sensors use etchants to expose fresh sensing layers, extending lifespan and maintaining measurement precision during wafer fabrication.

Direct MEMS interconnect to an ASIC forms a protective cavity, eliminating separate lids to reduce package size and manufacturing complexity.

Dielectric tether layer supports thin dice during wafer processing, preventing damage from dicing stress and contamination.

Selective partition removal from a generic substrate creates precise membrane cavities, eliminating custom mask development costs.

Conductive vias link stacked chips through a carrier, reducing manufacturing complexity while protecting MEMS sensors from encapsulation materials.

A primer layer bonds polyurethane protective coatings to transfer films, preventing delamination during injection molding.

Ion beam irradiation creates hollow metal nanospheres on SERS sensors, overcoming low throughput and small array size limits of conventional lithography.

Piezoelectric wafer bonding eliminates feeding channels that deteriorate resonance frequency, increasing fluid ejection velocity.

Eliminating vapor HF etching via fusion bonding enables zero-level hermetic packaging and high-vacuum sealing.

Depositing a silicon-rich oxide intermediate layer prevents dielectric delamination during sacrificial material removal in MEMS fabrication.

Physical data ports transfer configuration parameters to resolve lengthy setup times for short-range radio communications.

A buffer protection layer supports the MEMS membrane during wafer etching to maintain structural integrity.

Aromatic ring-containing polymers enable spin-coated organic underlayers to withstand temperatures above 400°C while maintaining high etching resistance.

A dry etching method processes photomask blanks by switching chlorine-based gas oxygen concentrations within a single chamber to pattern hard mask and work layers.

Integrates MEMS and ASIC circuits on vertically opposite surfaces of a shared substrate to eliminate bonding interfaces and reduce parasitic noise.

Segmenting the seal ring into inner and outer components supports a thinner window lid, improving thermal sensitivity for microbolometer arrays.

A panel level packaging method integrates MEMS and semiconductor devices using a common thin-film connection layer to achieve low profile structures.

Simultaneous milling of strip-shaped recesses and through-holes reduces production time while maintaining precision.

Pulsed radio frequency bias signals in a time multiplexed etching process prevent damage to micro-mechanical structures by avoiding sharp edge formation.

Composite layers balance processability and appearance quality by limiting surface gloss to resolve winding property deterioration during processing.

Etched isotropic cavities link fluid flow vias to channels within the substrate, preventing nozzle plate sagging and improving printing resolution.

Fluoride removal composition with metal nitride inhibitors selectively etches titanium nitride over tantalum nitride in high-k/metal gate integration.

Hollow silica shell particles replace toxic gold cores to reduce manufacturing costs while maintaining efficient cellular uptake and gene regulation.

Silicon-rich silicon nitride shields MEMS contact pads from etchant residues, ensuring reliable wire bond adhesion.

Grounded via structures connect MEMS moving parts to the substrate during plasma etching, preventing charging defects and ensuring well-defined edges.

Laterally extending portions seal vertical seam gaps in high aspect ratio trenches, preventing short circuits and enhancing mechanical strength.

Laser etching removes material from coated transparent parts to create precise patterns, solving color mismatch and improving UV resistance.

Filling cavities with a temporary stabilization material strengthens thin MEMS structures, preventing mechanical failure during wafer processing.

Dummy insulation features absorb stress during CMOS-MEMS thin film encapsulation, preventing lattice mismatch damage and improving sensor sensitivity.

A decorative sheet combines smooth and patterned concave portions to create varying depth impressions.

A four-layered hard mask stencil with two-step CMP achieves narrow track width uniformity for high-density data storage.

Selective etching prevents over-etching in shallow trench isolation, maintaining manufacturing precision during semiconductor fabrication.

Ion implantation and porosification create a carbonaceous porous membrane on silicon, enabling reliable filtration in nano-fluidic architectures.

Electrodeposited CoFe films enable multiplexed mechanical resonance sensing that penetrates metallic barriers without RF interference.

Negatively charged reducing gas ions generated by electron attachment reduce metal oxides on substrates.

Stop structures constrain eutectic bonding volume, decoupling sensor stress from wafer processing difficulties.

Inline stamping transfers pre-deposited metal layers via UV-cured adhesive, resolving offline process complexity and register accuracy limits.

Aqueous texturing solution uses non-volatile alkoxylated glycols to create uniform pyramid structures on semiconductor substrates.

Capacitive MEMS gyro sensor uses interdigitated comb electrodes with integrated insulating layers to prevent electrical short circuits.

Triple hard mask layers with selective etching overcome photolithography resolution limits to prevent pattern collapse.

Vertical stacking integrates multiple MEMS sensors using distinct wafer bonding techniques for separate cavity environments.