Material Nanotechnology TRIZ Cases

Porous substrate prevents van der Waals adhesion, maintaining directional anisotropy and specific surface area.

Multi-fluid kit uses radiation absorbers to fuse polymeric powder layers in 3D printing.

Liquid nanomaterial deposition forms conductive electrodes on flexible substrates.

Micro heat exchangers with nanofluids control workpiece temperature, preventing intermetallic growth and reducing cycle times.

An indium gallium phosphorus core paired with a zinc selenide shell prevents gallium loss while maintaining high photoluminescence quantum yield.

Nuclear boiling of reduced graphene oxide colloids creates foam structures, replacing high-temperature CVD processes to lower manufacturing costs.

A lithium-transition metal oxide powder features a lithium niobate coating layer formed on particle surfaces.

Composite quantum dot arrays absorb blue pump light and re-emit specific wavelengths to achieve a Color Rendering Index exceeding 90.

A transparent superhydrophobic ceramic coating uses stacked silica nanoparticles infused with a sol-gel glass matrix to create a durable rough topography.

Carbon nanotube electrodes with polymer binders maintain stability at high temperatures without ITO fragility.

Uniformly dispersed carbon nanofibers in elastomer resolve thermal expansion anisotropy for stable isotropic behavior.

Micro-dispenser deposits nanomaterial composition onto a flexible donor surface for subsequent transfer to a substrate.

Segmented nanofibers within hydrogels resolve the mechanical strength versus cell infiltration contradiction to enhance tissue regeneration.

A tungsten oxide-based powder composition absorbs near infrared radiation to generate heat while maintaining optical transparency.

A hydrophilic layer within a hydrophobic opening guides organic semiconductor deposition for precise patterning.

Vertical MXene layer alignment via magnetic fields reduces wave reflection and maintains electrode capacity.

A metal catalyst layer directs chemical deposition to form hybrid nanostructures with controlled morphology and orientation on graphene surfaces.

Hydroponic plants reduce gold salts into uniform triangular or hexagonal particles by adjusting pH levels and light exposure.

A photosensitive coating composition containing conductive nanomaterials forms interconnection patterns through exposure and washing.

Screen-printed electrode arrays with nanoparticle probes enable multiplexed detection while reducing sample volume requirements.

Monoether carboxylic acid stabilizers prevent aggregation during ceria nanoparticle precipitation, ensuring stable dispersions for fuel additives.

Block copolymer and carbohydrate precursors self-assemble into ordered mesoporous carbon films and nanotubes.

Heating bulk source material in an inert atmosphere generates vapor that deposits as nanomaterials on a substrate surface.

A rigid drawing device with a planar adhesive region pulls carbon nanotubes to resolve thickness non-uniformity and gaps caused by soft tapes.

Polymerization-induced self-assembly merges synthesis and assembly to resolve the contradiction between manufacturing precision and production efficiency.

Continuous flow reactor produces monodispersed platinum nanoparticles via elevated temperature injection.

Merging red, green, and blue quantum dots into one migrating layer resolves device complexity limits while increasing pixel density.

Phosphate-functionalized ligands bond to quantum dot surfaces, extending blue QLED service life by reducing surface defects.

A particle-containing cavitating waterjet embeds particles beneath a substrate surface to form a hardened layer.

A light emitting diode incorporates a metallic plasma generating layer with three-dimensional nanostructures to boost luminous efficiency.

Ultracentrifugal separation removes organic residues from quantum dot surfaces to prevent black discoloration in light emitting apparatuses.

Organic solvent solution processing enables uniform elastomer and filler dispersion, achieving low oxygen transmission rates for commercial-scale production.

Round-shaped ceria particles reduce micro-scratches on workpiece surfaces while maintaining high polishing rates and selectivity.

Surfactant-free one-pot synthesis controls nanoparticle symmetry to enhance cellular uptake without seed particles.

Heating seedlac generates vapors that condense into impermeable graphene layers, eliminating complex catalytic substrate requirements.

Ion beam radiation reduces metal precursors to mass-produce uniform nanoparticles, eliminating chemical agent variability.

A SiGe thermoelectric material containing nanoparticles distributed in a quantum network structure.

Low-temperature chemical reduction controls particle size distribution and surface presence, preventing platinum penetration into carbon pores.

Electron-withdrawing substituents stabilize the active ester against hydrolysis while maintaining reactivity toward amino groups.

Carbon coating on silicon particles reduces expansion stress and improves cyclability during charge cycles.

Polymer coatings on functionalised nanoparticles minimize non-specific adsorption, enabling sensitive fluorescence detection of low-concentration analytes.

A polydopamine adhesive layer bonds polytetrafluoroethylene films to substrates.

Human cells synthesize gold and palladium nanoparticles to inhibit cancer cell growth while sparing healthy tissue.

Removing binders from nanoporous metals eliminates contact resistance while embedded carbon nanotubes enhance mechanical strength and specific surface area.

A stone paper combines ground natural stone powder with a nonmetal thermoconductive material and plastic binder via coextrusion.

Nanocomposite inks form optical waveguides on laminated PCB layers, resolving photolithography complexity and enabling robust interconnects.

Laser ablation in solution eliminates vacuum requirements to produce stable deep ultraviolet photodetectors with high responsivity.