Nanostructure Manufacture TRIZ Cases
- Carbon Nanotube Fiber Manufacturing Apparatus
A synthesis furnace with a sub-synthesis pipe and nozzle sprays liquid raw material for evaporation.
- Graphenic Carbon Co-dispersions for Conductive Ink Stability
Polymeric dispersants co-disperse graphenic carbon particles, preventing agglomeration and enabling high electrical conductivity in coatings.
- Grinding Semiconductor Nanocrystal-Polymer Composites in Inert Solvent
Inert organic solvent mediates low-temperature grinding to reduce semiconductor nanocrystal-polymer composite particles below 100 μm without ligand loss.
- Water-Soluble Xylan Solubilization of Carbon Nanotubes
Water-soluble xylan adsorbs onto carbon nanotubes to improve solvent affinity and dispersion stability.
- Micro-Truss Fabrication via Bottom-Up Photopolymerization
Bottom-up illumination overcomes top-down limitations by enabling precise control over micro-truss structure growth direction.
- Spinel Cathode Material Suppressing Manganese Dissolution
Metal oxide nanoparticles scavenge hydrogen fluoride to suppress manganese dissolution in lithium ion batteries.
- Core-Shell Particle Synthesis Using Aqueous Surfactants
Water-based reduction using specific surfactants creates uniform core-shell particles, eliminating organic solvent pollution and lowering production costs.
- Lithium Manganese Oxide Mixed Particle Size Energy Density
Segmented lithium manganese oxide particles fill voids to boost energy density while maintaining safety.
- Double-Valve Coupling for Safe Carbon Nanotube Transfer
Segmented butterfly valves prevent fine powder soiling and environmental release during industrial-scale carbon nanotube handling.
- Doped Semiconductor Particle Synthesis Using Porous Host Sorption
Porous host structures sorb precursors to enable scalable doped semiconductor nanoparticle synthesis, resolving cost and environmental trade-offs.
- Growth-Rooted Nanowire Anodes for High-Capacity Lithium Batteries
Segmented silicon nanowires grown on substrates accommodate volume expansion during cycling, eliminating pulverization and binder requirements.
- Hierarchical Graphene-Carbon Nanotube Structure via Microwave Synthesis
Microwave irradiation grows hierarchical carbon nanotubes on graphene using metal catalysts to increase specific surface area.