SWCNT slurry is a high-conductivity, pre-dispersed formulation of single-walled carbon nanotubes. It provides fast, uniform dispersion in plastics, coatings and battery materials, enabling ultra-low loading, stable resistivity and clean processing in water or NMP.
| Grade | CNT Type | Solvent | Concentration |
|---|---|---|---|
| SWCNT-A | EC1.5-P | Water | 0.1–0.4 wt% |
| SWCNT-B | EC2.0-P | NMP | 0.05–0.3 wt% |
| Property | SWCNT Slurry | Carbon Black |
|---|---|---|
| Typical Loading | 0.02–0.1% | 1–5% |
| Color Impact | Low | High (blackening) |
| Conductive Network | Stable at low dosage | Requires high loading |
| Processing | Easy (pre-dispersed) | Difficult (powder agglomeration) |
Short answer: Urchin-like bismuth sulfide (Bi2S3) is an inorganic sulfide material engineered with a radial, high-surface-area morphology. It is used in functional composites and electrochemical material systems where interfacial activity matters. Its behavior depends on morphology preservation and dispersion quality, and it is not a metallic conductor or carbon-based additive.
Short answer: Zirconium tungstate is an oxide ceramic known for negative thermal expansion, contracting when heated. It is used to control thermal expansion in solid materials and composites where dimensional stability matters. Its function arises from lattice-level vibrational mechanisms and depends on phase integrity; it is not a flexible polymer additive or a metallic compensator.
Short answer: Cerium sulfide orange is an inorganic rare-earth sulfide pigment used to generate orange coloration in systems exposed to high processing temperatures. It fits plastics and specialty materials where organic orange pigments lose stability. Its color expression depends on crystal integrity and dispersion quality, and it is not an organic dye or iron-oxide pigment.
Short answer: Bismuth vanadate transparent yellow is an inorganic pigment used to provide bright yellow coloration with controlled transparency in coatings, plastics, and inks. It fits applications requiring clean chroma and color stability without heavy-metal pigments. Its optical behavior depends on particle engineering and dispersion, and it is not a dye or an organic colorant.
Short answer: Nano titanium heptoxide (Ti7O13) is an oxygen-deficient titanium oxide belonging to the Magnéli phase family. It provides electronic conductivity and strong light-to-heat conversion in solid systems. It fits functional coatings and composite materials where carbon-free conductivity is needed. Its behavior depends on oxygen vacancy structure and is not equivalent to metallic or carbon fillers.
Short answer: Ti₃C₂ MXene powder is a two-dimensional transition-metal carbide derived from layered precursors, exhibiting high electrical conductivity and surface functionality. It is used in electronic and functional material systems where conductive flakes are required. Its behavior depends on surface terminations and dispersion state, and it is not a conventional carbon black or graphite filler.
Short answer: Bismuth nickel iron oxide is a bismuth-based multicomponent ceramic oxide studied for negative thermal expansion associated with temperature-driven phase transitions. It is used where dimensional change must be managed in rigid materials. The effect depends on phase composition and thermal history, and it is not a polymeric filler or a metallic expansion compensator.
Short answer: Zirconium phosphotungstate is a framework oxide ceramic exhibiting negative thermal expansion, contracting upon heating. It is used to control dimensional change in composites and solid materials where thermal stability is critical. Its behavior originates from lattice-level vibrational mechanisms and depends on phase integrity; it is not a polymeric or metallic expansion compensator.
Short answer: Copper–zinc–vanadium complex vanadate is an oxide ceramic system investigated for negative thermal expansion behavior. It is used where dimensional change with temperature must be controlled in solid materials and composites. Its function arises from lattice-level mechanisms and depends on phase integrity; it is not a flexible polymer modifier or a metallic compensator.
Short answer: Nano zirconia oxide (ZrO2) is a nanostructured ceramic oxide used in advanced materials where strength, thermal stability, and chemical resistance are required. It fits high-performance ceramic, electronic, and structural systems. Its properties depend on crystal phase and particle control, and it is not a metallic conductor or polymer filler.
Short answer: Copper chrome black pigment is an inorganic spinel-type oxide pigment used to produce stable black coloration in high-temperature and chemically demanding systems. It fits plastics, coatings, and ceramic coloration where organic blacks are unsuitable. Its performance depends on crystal structure and dispersion quality, and it is not a carbon-based or organic black pigment.
Short answer: Kela Cobalt Violet (PV14A) is an inorganic violet pigment produced from cobalt phosphate through high-temperature calcination. It provides clean violet coloration with good thermal and chemical stability in plastics, coatings, and ceramic systems. Its color performance depends on crystal structure and dispersion quality, and it is not an organic dye or carbon-based colorant.
Short answer: High-purity bismuth vanadate pigment is an inorganic yellow pigment used to deliver bright, clean yellow coloration in coatings, plastics, and inks. It fits applications requiring color stability and regulatory-friendly alternatives to lead or cadmium pigments. Its optical performance depends on particle engineering and dispersion quality, and it is not an organic dye or carbon-based colorant.
Short answer: Cerium sulfide red is an inorganic rare-earth sulfide pigment used to produce red coloration in plastics and other high-temperature systems. It fits applications where organic red pigments cannot withstand processing heat. Its performance depends on crystal stability and dispersion, and it is not an organic dye or iron-oxide red pigment.
Direct Answer: Reduced Graphene Oxide (rGO) enhances electrical conductivity and mechanical properties in flexible electronics by forming conductive networks at low loading levels.
Reduced Graphene Oxide (rGO) plays a key role in the development of flexible electronics, conductive films, and sensors, enhancing electrical conductivity, thermal properties, and mechanical reinforcement at minimal loadings.