Nanotech TRIZ Cases

See how hollow spheres combined with nano/micro particulates in aeolian suspension eliminate po

See how aeolian suspension deposits nano/micro particulates and hollow spheres uniformly in app

See how aeolian suspension in an insulating gas carrier achieves uniform distribution of hollow

See how fluid-stabilized silver nanoparticles enable scalable antimicrobial coating of complex

See how gas-carrier suspension distributes insulating powder uniformly throughout appliance cav

Cellulose nanofibers reduce and stabilize plate-like silver particles in water, preventing settling while enabling visible to near-IR absorbance.

CNTs grown on barrier-coated metal fibers boost tensile strength and electrical conductivity while avoiding the weight increase of higher metal loading.

Stabilized silver nanoparticles enable scalable fluid-phase coating of complex surfaces with uniform antimicrobial activity and controlled cytotoxicity.

Degassing, continuous flow centrifugation, and depth filtering remove nanotube solution defects to produce uniform fabrics with better electrical properties.

Liquid silane electrospinning forms silicon nanowires at lower temperatures, avoiding oxides and carbides while enabling continuous production.

Nanopillars on CMOS light-receiving elements boost visible-light absorption and preserve sensitivity as pixel size shrinks.

A silicon oxide or nitride shell passivates nanoparticle surface defects, preserving visible light emission while improving luminescence efficiency.

Pretreated fabric enables layer-by-layer conductive coatings to keep conductivity stable under humidity, heat, UV, and laundering.

A blue quantum dot nanorod LED with wavelength conversion and color filtering improves true black, durability, and burn-in resistance.

A pGaN-based NTC resistor built into a GaN heterojunction enables accurate on-chip temperature sensing and helps prevent thermal runaway.

A HEMT field plate doubles as an RTD to measure channel temperature accurately while avoiding extra sensor structures and terminal complexity.

Intermittent transition-metal clumps on silver nanowires shift plasmon absorption shorter while preserving conductivity and thermal stability.

A polymer-ceramic die-coat uses h-BN or similar fillers to dissipate heat and buffer interfacial stress, reducing cracks and delamination.

A quantum dot light-control layer and color filters let micro-LED display panels raise pixel density while improving manufacturing reliability.

Aligned CNT networks turn composite structures into self-sensing, conductive layers for damage detection, thermographic imaging, and de-icing.

Randomized conical protrusions in an optical element mold reduce diffraction directionality, suppress color shifting, and preserve light extraction.

Anion-doped ZnO nanoparticles raise LUMO alignment and improve electron transport, boosting luminous efficiency with cadmium-free quantum dots.

Multiple silica-based insulator layers shield quantum dots from water vapor and oxygen while limiting self-quenching and extending LED life.

Quantum dots dispersed in a perovskite matrix create an intermediate band that improves two-step light absorption while enabling lower-cost wet processing.

Multiple enable clocks let a DRAM temperature sensor sample faster near thresholds and slower otherwise, cutting power without missing refresh updates.

A dual-layer quantum dot emitting structure shifts recombination and balances charge flow to reduce exciton quenching and extend lifespan.

A higher-HOMO organic material in the QD emitting layer reduces hole barriers and improves charge balance, luminance, and quantum efficiency.

A three-layer quantum dot emission stack with decreasing hole mobility improves charge balance and suppresses interface exciton quenching.

Using one reference voltage across amplifiers and the ADC, this case cuts sensing errors from drift, strain, and resistor mismatch.

Indexed DNA fragments and 5-bit transcoding improve random access retrieval while maintaining reliable, low-error archival data storage.

A 5-bit transcoding scheme combines compression, indexing, and error correction to improve DNA data storage accuracy and partial retrieval.

Write timing control lets an MTJ latch circuit run at high frequency while limiting power increase and reducing switching errors.

Suspended carbon nanotube fabric resonators use electrostatic actuation to reach GHz-THz frequencies with lower power and smaller size.

Isolation layers and diffusion barriers let phase-change programmable vias integrate into CMOS back-end stacks without contamination or performance loss.

Stacking graphene oxide on carbon nanotube electrodes improves conductivity and smoothness for lower-cost flexible perovskite devices.

A diffusion-resistant core-shell tracer reports threshold exposure in porous reservoirs, enabling accurate sensing with low tracer doses.

Low-temperature oxidation of the NiOx hole transport layer boosts hole mobility and extraction without harming ITO, substrates, or electrodes.

An osmotic imbalance thins lipid membranes and capacitance monitoring detects bilayer formation, raising yield in nanopore sequencing chips.

Aligned ridge waveguides in a silicon-insulator-silicon capacitor improve optical confinement for faster modulation with less heating.

A ligand scavenger triggers nucleophilic removal of quantum dot surface ligands, boosting LED emission efficiency, color reproducibility, and lifespan.

Low-temperature oxidation of NiOx hole transport layers boosts hole mobility and extraction while avoiding ITO and substrate damage.

Varying protective layer thickness by pixel enables selective color conversion and filtering, improving manufacturability and color accuracy.

A switched-capacitor reference replaces drift-prone resistors in temperature sensing circuits, improving accuracy over aging and package strain.

A thermally isolated diamond probe with a nanoscale tip reduces heat sinking and enables quantitative temperature mapping on highly conductive materials.

Evacuated periodic structure gratings improve diffraction of both S- and P-polarized light, reducing OLED waveguide display losses.