Silica TRIZ Cases

A porous silicon composite cluster with a graphene shell maintains electrical conductivity during charge cycles.

A metallic nanoparticle inorganic composite forms fine particles within a porous oxide matrix using chemical adsorption and precipitation.

Composite silica nanoparticles dissolve rapidly in alkaline solutions, enabling controlled pore size membranes without corrosive solvents.

Bonding alkaline earth metal ions onto silica particles reduces solid acidity, preventing resin decomposition and solvent degradation.

A froth flotation process separates iron-bearing impurities from silica sand using a specific collector and depressant mixture.

A silicon oxide-carbon composite material enhances electrical conductivity and structural stability in energy storage applications.

Calcined granular mesoporous silica maintains adsorption properties while preventing secondary pollution and enabling stable recovery.

Optimized silica sol reduces steam consumption and additive dosage by improving drainage and retention in low conductivity papermaking suspensions.

Modified sol-gel synthesis yields hydrophobic silica powder with reduced aggregation and improved charge properties for toner additives.

Aggregated boron nitride particles in a silicone resin matrix enhance thermal conductivity and flexibility for electronic devices with stepped surfaces.

Oxygen gas treatment at 80 to 900 degrees Celsius passivates silicon surfaces, suppressing hydrogen evolution during aqueous ink processing.

Heating metal oxides with halogen gas converts uranium, iron, and titanium impurities into sublimable halides, achieving high purity levels.

Removing ammonia from hydrolyzed alkoxysilane enables high-concentration hydrothermal treatment, preventing gelation while maintaining production efficiency.

SSZ-96 molecular sieves achieve enhanced selectivities for hydrocarbon conversion by employing a 1-butyl-1-methyl-octahydroindolium structure-directing agent.

Oxide composite particles combine silica and alumina phases to enhance thermal conductivity in resin compositions.

Controlling hydrogen mole fraction and burner velocity stabilizes the combustion flame during fumed silica production.

pH adjustment creates silicon colloids for separation, eliminating flocculant contamination to recover high-purity silicon.

High T-silicon silane oligomers prevent capillary shrinkage during normal pressure drying, retaining gel shape without supercritical equipment.

Controlled calcining at 900-980°C minimizes crystalline silica formation while adjustable milling achieves permeabilities up to 20 darcy.

Silane-crosslinked porous silica particles create a transparent insulation layer that reduces thermal conductivity without light scattering.

Silica foam supports host amine materials to capture carbon dioxide, replacing corrosive liquid solvents with stable solid sorbents.

Independent furnace portions accommodate thermal expansion without interference, preventing structural breakage and maintaining operational integrity.

Ammonium bifluoride reacts with calcium carbonate to produce high purity synthetic fluorite.

A porous silica amalgamate substrate absorbs active ingredients to lower freezing points and provide traction on slippery surfaces.

Chemical leaching and thermal pyrolysis of siliceous plant matter recover high-purity amorphous silica while reducing nitrogen oxide emissions.

Gradient depressurization balances outward evaporation force against inward capillary stress, preventing pore collapse during aerogel drying.

Water-soluble oxidized disulfide oil compounds modify acidity during sol-gel synthesis to produce mesoporous silica with enhanced structural ordering.

Zeolite-deposited fibrous substrates enhance mass transfer and stability in liquid-rich hydroprocessing, reducing hydrogen requirements.

Atomized sol-gel precursors form a nanometer-thick layer that resolves the contradiction between scratch resistance and transparency.

Pre-condensed alkoxysilane precursors form a dense, solvent-free protective network on metal substrates.

Static mixing elements combine silicon compounds with oxygen and combustible gas for flame reaction, resolving high equipment costs.

Chlorine heating converts silicon metal into volatile tetrachloride, reducing signal transmission loss in 5G systems.

Vertical evaporator sprays liquid starting material into an oxidation chamber to produce high-purity SiO2 soot.

Sulfuric acid leaching of rice hulls removes mineral impurities, enabling carbothermal reduction to produce solar-grade silicon at lower energy costs.

Specific alumina filler suppresses wire sweep and burr formation by balancing viscosity.

A nanofluidic chip uses silica spheres and carbonate coatings to create nanoscale channels.

Single-walled carbon nanotubes dispersed in base fluid via amine surfactants create a gel structure that raises thermal conductivity above traditional limits.

Heating silicon dioxide and metal silicon powders generates silicon monoxide gas that precipitates onto a substrate to form silicon oxide powder.

Controlled hydrolysis of silicon alkoxide yields high-purity silica sol, preventing impurity incorporation and particle aggregation.

Dynamic circulation filtration accelerates SiO2 aerogel solvent replacement, cutting operation time from hours to minutes while recovering spent media.

A sol-gel coating converts to a ceramic oxide film on engine components through controlled air drying and heating.

Aerosol synthesis creates spherical amorphous silicon oxide particles with hierarchical porosity, eliminating framework damage from post-synthesis treatments.

A slurry using hydroxide particles of tetravalent metal elements with specific light absorption properties enhances polishing rates and storage stability.

Benzyl-3H-imidazolium cations direct crystallization of LTA molecular sieves, resolving synthesis complexity and poor hydrothermal stability.

Sodium sulfite reacts with sand to yield precipitated silica, recycling by-products to cut costs.

A rubber composition uses silica with specific surface area and aluminum content to reinforce elastomer matrices.

Acid treatment increases hydroxyl density on flame-hydrolyzed silica, enabling 70 wt% fill content without gelation or sedimentation.

A ceria composite particle dispersion with a silica core and crystalline ceria coating enables high-rate polishing of semiconductor substrates.

An irregularly shaped silica polishing particle with a specific aspect ratio increases the polishing rate while preventing substrate scratches.