Nanotech TRIZ Cases

A carbon nanotube electron emission source uses a taping process to erect nanotubes vertically on a cathode substrate.

A spacer bonds a wavelength converting unit to a light source, resolving color reproducibility and thermal conductivity trade-offs.

Fluorinated coating generates hydrophobic surface sites on quantum dot luminophores to block moisture ingress.

Phospholipid nanoemulsions solubilize hydrophobic plant compounds in aqueous phases, resolving poor bioavailability and rapid elimination issues.

A laser beam converts amorphous carbon in isolating layers into graphite-like carbon to form conductive paths between circuit elements.

An inorganic fiber structure uses adhesive binding to maintain shape and mechanical strength, supporting high-density cell culture.

Micelle core-shell structures protect nitric oxide from rapid proton-catalyzed degradation, extending therapeutic half-life from seconds to weeks.

Pattern recognition models analyze electromagnetic interference signals to detect metal whisker anomalies before they cause electrical shorting failures.

Silicone paste delivery removes toxic organic solvents to stabilize quantum dot photoluminescence and enable safe automated handling.

A dust repellent coating uses colloidal silica and combustible organics to repel particles.

A flexible substrate holds a segmented array of miniaturized electrode pillars coated with an interstitial filler to bolster structural integrity.

A spin injection write magnetic memory device uses select transistors to control current flow through magnetoresistance effect elements.

Tilting the z-scanner enables precise data collection from overhang structures without modifying probe geometry.

Strained silicon nanowires resolve ohmic contact difficulties by converting indirect band gaps to direct ones, enabling efficient dopant injection.

Segmenting the free layer into regions with different thicknesses balances high MR ratio against low switching current requirements.

Siloxane polymer displaces surface ligands on quantum dots, reducing total internal reflection and light scattering to boost power efficiency.

Microchannel plate anchors carbon nanotubes via van der Waals forces, preventing pull-out by electric field forces and extending cathode life.

Electrostatic attraction selectively deposits quantum dots on patterned electrodes, eliminating fine metal masks that warp during large-area manufacturing.

Electroplating metal layers on carbon nanotubes prevents field emission pull-out and extends device lifespan.

Vertical nanowire arrays template lateral overgrowth, eliminating polarization-induced fields and threading dislocations in Group III nitride semiconductors.

Silacyclobutane-based block copolymers achieve sub-10nm domains via rapid self-assembly, bypassing the 60nm limit of conventional lithography.

Carbon nanotubes in the backlight module absorb wavelengths over 700 nanometers, reducing black image brightness and increasing contrast ratio by 108 percent.

Nanoscale electromechanical switching pillars shuttle charge via mechanical flexure, enabling radiation hard logic operation at high temperatures.

Polyphenols cap iron nanoparticles to prevent oxidation, yielding stable catalysts for nanotube growth.

A reusable mold with nano-concavities creates nanoarchitectured polymer scaffolds for electrode deposition.

Oriented tubular mesopores in a semiconductor film constrain polymer chains to enable main-chain conduction, resolving low carrier mobility from random hopping.

Sacrificial layers protect thin membranes during back-etching, preventing tapering that alters electrode dimensions and degrades frequency response.

Segmenting standard cells into columns with varying gate pad pitches reduces area occupation while maintaining manufacturing simplicity.