Multi-Walled Nanotubes TRIZ Cases
- Purified Carbon Nanotubes for Conductive Secondary Cell Electrodes
Inert heat treatment plus low-oxidizing acid purification cuts catalyst residue while limiting CNT damage and oxidation in secondary cell electrodes.
- Vertically Aligned CNT Bundles via Self-Assembled Catalyst Spacing
Self-assembled iron oxide catalyst spacing enables cost-effective growth of vertically aligned CNT bundles without lithography or liquid etching.
- Carbon Nanotube Synthesis via Controlled Catalyst Flow Ratios
This case uses floating-catalyst chemical vapor deposition with defined flow ratios to reduce amorphous phases and improve nanotube quality.
- Carbon Nanotube FC-CVD for High Crystallinity and Conversion
This FC-CVD process tunes carbon-to-catalyst flow ratios and temperature for crystalline, high-conversion carbon nanotubes.
- Conductive Polymer Concrete Using Non-Functionalized Nanotubes
Non-functionalized carbon nanotubes form a conductive network within polymer concrete to enable self-sensing capabilities.
- EUV Pellicle Nanotube Bundles Joule Heating
Joule heating converts amorphous carbon into crystalline nanotube bundles within EUV pellicles, resolving heat dissipation and contamination trade-offs.
- Dry Liquid Concentrate Carbon Nanotube Dispersion in Rubber
Dry liquid concentrate disperses discrete carbon nanotubes into rubber compounds, improving mechanical and thermal properties without increasing viscosity.
- Antistatic Coating via Modified CNT-Polymer Composite
Oligomeric binders coat modified carbon nanotubes with conductive polymer to improve dispersibility and wear resistance.
- Brominated Multi-Walled Carbon Nanotubes Covalent Functionalization
A bromination process functionalizes multi-walled carbon nanotubes with covalently bound bromine atoms using controlled vapor phase reactions.