Graphite TRIZ Cases

Alkyl-modified graphene oxide reduces toxicity and cost while achieving 85-95% corrosion inhibition efficiency at low concentrations.

Incorporates reversible lithium into anodes before assembly to mitigate parasitic reactions and extend cycle life.

Microwave treatment reduces graphene oxide while embedding metal atoms, preventing irreversible agglomeration during drying.

Wet-milled carbonaceous sheared nano-leaves improve thermal conductivity while maintaining low viscosity in polymer composites.

Ammonium persulfate oxidizes intercalated graphite flakes to produce high-purity graphite oxide.

Ultrasonic waves exfoliate expanded graphite mixed with liquid nitrogen, overcoming mass production defects and material loss inherent in chemical methods.

Mechanical exfoliation replaces chemical oxidation to resolve environmental pollution while maintaining graphene purity and yield.

A laminated graphitic layer bonds graphene films with conducting polymer adhesive to create an elastic thermal management material.

Porous inorganic fillers reinforce graphite negative electrodes, preventing particle crushing while maintaining electrolyte permeation for high rate tolerance.

Low-dimensional superconducting structures utilize nanoribbons and helices to achieve elevated critical temperatures beyond bulk material limits.

A method using anthracite to produce graphene oxide via oxidation and reduction steps.

A reduced graphene oxide material featuring a spatial gradient in electrical conductivity and permittivity to smooth electric field distribution.

A graphene oxide manufacturing method uses magnesium sulfate washing to safely remove sulfuric acid from expansion graphite layers.

Oil-soluble organometallic iron decomposes into nano-particles to hydrocrack heavy vacuum resid.

Dual catalysts manage reaction kinetics in thick polyimide films, preventing fractures from uneven drying speeds.

Binder phase conversion creates high surface area carbon aerogels, eliminating costly dimension adjustments.

Mechanical shear breaks down agglomerates while intermediary substances prevent re-aggregation, ensuring stable dispersion without hazardous chemicals.

A triazine derivative delivers nitrene precursors to carbon nanomaterial surfaces for high-grade functionalization.

Water-soluble grinding media reduces particle size and improves dispersion stability for 2D materials without organic solvents.

Melt spinning solidifies metal-carbon alloys into ribbons to precipitate distinct carbon crystals while recycling metals through hydrogen halide reactions.

Heating carbon allotropes within a controlled temperature window forms porous structures with scalable production and precise geometry control.

Mechanical exfoliation transfers graphene sheets to polymer carriers, eliminating chemical waste while enabling controlled porosity.

Pre-intercalating sulfuric and nitric acid into graphite flakes enables high-yield production of ultra-large graphene oxide sheets.

Ball-milling an elemental allotrope with a hydride molecule creates stable complexes that preserve allotropic integrity for controlled nanoparticle production.