Material Nanotechnology TRIZ Cases

Dual-strip lateral flow assay detects MxA and CRP markers to differentiate viral and bacterial infections rapidly.

Lamellar TiO2 nanoparticles on calcium phosphate carriers provide visible light antibacterial action without stabilizing agents.

A silica-alumina-magnesia composite material maintains high specific surface area and mechanical strength through optimized calcination.

Placing semiconductor nanoparticles on unactivated crystalline materials reduces reabsorption losses and improves LED color reproduction.

Acid-stabilized silver nanoparticles form electrodes that release dopants during annealing, reducing contact resistance in organic thin-film transistors.

Noble metal nanoparticles on polymerase create SERS substrates that boost Raman signals, resolving sensitivity limits in sequencing by synthesis.

An electrode pair generates an electric field to associate and deposit nanowires, resolving scalability limits for large area substrates.

A planar electronic device uses an insulating layer to control channel conductivity via field-effect principles without requiring a two-dimensional electron gas.

A cerium oxide and titanium dioxide catalyst uses distinct agglomerate and island morphologies to drive selective catalytic reduction of nitrogen oxides.

Electric field detachment allows carbon nanotubes to grow longer, overcoming array size limits for mass production.

Selective dielectric agent application resolves the trade-off between functional versatility and device complexity in additive manufacturing.

Electrical discharge machining separates nanofiber sheets into uniform sub-sheets, reducing yarn diameter variations below plus or minus five percent.

Pseudo-random protrusion intervals exceed visible light wavelengths to balance durability against transparency trade-offs.

Fluorinated carbon material dispersion prevents nanotube aggregation by introducing polar carbon-fluorine bonds that improve solvent compatibility.

Laser-induced growth creates oriented chiral nanostructures via polarized light, eliminating chemical reagents and complex synthesis steps.

Acid-induced silver oxide layers enable complete thiol chemisorption, preventing physisorption failures and extending tarnish resistance beyond five years.

Segmented nucleic acid structures orient detection molecules to eliminate random immobilization errors and boost reliability.