Material Nanotechnology TRIZ Cases

A beta-sheet block copolymer hybridizes with carbon nanotubes via non-covalent interactions to create a bioactive composite.

Iron-containing porous hybrid materials achieve rapid desorption below 100°C, reducing operational costs in humidifiers and dehumidifiers.

Exfoliated organoclay in polyurea matrices boosts tensile strength and elongation for blast-resistant coatings.

Microfluidic assembly aligns gold nanorods on nanowrinkle templates, replacing costly electron beam fabrication with rapid self-organization.

Electrically heated Z-CNT filled adhesives resolve extensive drying time and difficult de-bonding issues in aircraft ice protection assembly repair.

Self-assembling block copolymers form multilayer antireflection coatings through a single annealing step.

Tabular metal particles align to form films with high specular glossiness while dispersion stability prevents aggregation from van der Waals forces.

Ordered mesopores and a protective metal oxide coating prevent nickel aggregation and carbon precipitation, maintaining catalytic activity without noble metals.

Functionalised graphene oxide creates stable high-concentration dispersions in organic solvents.

Solution-processed carbon nanotubes on cellulose paper replace rigid silicon substrates, enabling flexible, low-cost gas sensors.

Carbon dioxide and water react with magnesia supports to form soluble compounds, preserving nanotube integrity while avoiding strong acid damage.

A thermoelectric material with a quantum network structure aligns nanoparticle quantization direction.

Stabilizers prevent catalyst agglomeration during heating, ensuring consistent quality and high specific surface area in aligned carbon nanotube aggregates.

Tempered refractory concrete block prevents internal crack development under temperature gradients through optimized alumina particle sizing.

Covalent bonding between twisted graphene layers overcomes weak van der Waals forces, increasing shear strength for aerospace applications.

A micro-dispenser deposits nanomaterial ink onto device layers to form precise planar structures.

High-frequency plasma gasifies micron silicon into nano particles growing inside porous hard carbon pores, relieving volume expansion damage during cycling.

Dual SiC wafers decompose in vacuum to yield high-quality graphene, eliminating hazardous disilane gas requirements.

A porous dielectric layer reduces the dielectric constant below 2.5 while maintaining chemical stability and mechanical strength for integrated circuits.

A nanosensor membrane drives charged carbon nanotubes through an electrolytic pore to detect current changes.

Applying strong accelerating voltage breaks carbon aggregates into single particles, resolving homogeneous distribution trade-offs in liquid media.

Specific amine compounds dope carbon nanotubes to stabilize the Seebeck coefficient in moisture-heat environments.

Aligned carbon nanotubes bond to current collectors via a specialized layer, resolving the trade-off between production rate and gravimetric power density.

Conjugated aromatic ligands coordinate on semiconductor nanocrystals to improve charge mobility, resolving efficiency losses from disrupted charge flows.

Composite particles with inorganic nanoparticles enhance electrode conductivity and adhesion, reducing internal resistance.

Spiral guides create laminar flow for even distribution, while ultrasonic vibration separates bundles without cutting nanotubes.

A vibration mill produces nanostructured silver telluride pellets at room temperature without vacuum heating.

Porous carbon nanotube filter material separates contaminants from aqueous fluid through adsorption and filtration mechanisms.

Sodium oleate creates a 3D gel network below 25°C, inhibiting nanoparticle settlement and extending fluid self-life.

Silicone oil and silane treated inorganic fine particles prevent moisture absorption during high temperature storage.

Dynamic pressure reduction controls carbon dissolution into the catalyst, resolving the trade-off between mass production and precise tip structure formation.

Nanometer-sized particles with functional attachment groups form a bonding layer on substrates prior to metallization.

A norbornene-carboxyl ligand binds to nanocrystals during synthesis, enabling efficient conjugation and derivatization.

A transparent electrode incorporates dispersed 12CaO.7Al2O3 particles within a metal oxide matrix to establish low sheet resistance and work function.

A polymer with activated carboxyl groups binds to amino-coated substrates, forming a hydrogel matrix for biosensor production.

Composite resin sound insulation material uses aluminum oxide and nanoclay fillers to achieve high transmission loss while maintaining low specific gravity.

Quantum film imagers replace silicon photodiodes to increase light sensitivity in array cameras.

MXene nanosheets and cuprous oxide particles resolve the trade-off between flame retardancy and production cost in bismaleimide resins.

Integrating conductive nanowires into adsorbents generates localized Joule heat, eliminating external heater losses and reducing power consumption below 10 µW.

Segmenting the thermal history into distinct flame and post-flame zones allows independent control of aggregate size while maintaining high purity.

Replacing corroding metal foils with stacked carbon nanotube and graphene layers reduces weight while maintaining conductivity to extend battery lifespan.

Mixing N-type and P-type quantum dots balances carrier injection, resolving imbalance issues that cause performance roll-off and shorten device lifetime.

Oxidizing iron(II) nitrate with oxygen gas reduces nitrogen oxide emissions and energy consumption while increasing pigment yield.

Controlling chirality robustness and morphology in chiral metal nanomaterials via parameter changes and intermediary surfactants.

Ultra-dispersed diamond grains sinter with coarse particles to create strong bonding, eliminating thermal damage from residual catalyst materials.

Direct synthesis of single-walled carbon nanotube thin films on quartz substrates via chemical vapor deposition.

An In2S3 intermediate shell bridges the CuInS2 core and ZnS outer layer to prevent blue shifts while achieving over 80% quantum yield.

A single-walled carbon nanotube film featuring a pseudo-honeycomb dense portion and sparse region enhances electrical conductivity.