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: 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: 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.
Direct Answer (≤60 words): In metal-filled conductive adhesives, Graphene nanoplatelets (GNP) act as a secondary conductive phase that bridges micro-gaps between metal particles and stabilizes near-contact pathways during cure shrinkage, lowering contact/tunneling resistance so target resistivity can be reached at reduced silver loading.
Conductive adhesives are typically metal-dominated current paths (Ag flakes/particles) embedded in a polymer binder. The practical failure mode is not “low intrinsic filler conductivity,” but pathway discontinuity created by cure shrinkage, particle separation, and interfacial resistance growth.
When engineers evaluate Graphene nanoplatelets (GNP), the design intent is usually to preserve conduction at lower metal fraction by adding a geometry-driven bridge network that reduces sensitivity to local metal packing variability.
Mixing quality matters because conductive bridging is a spacing problem. If dispersion is poor, platelet clusters behave like isolated islands and do not bridge the metal network at the scale that controls contact resistance.
Peer application comparison:
Single-walled carbon nanotubes enable quantum device operation by supporting one-dimensional electron transport with reduced scattering, allowing controlled charge confinement, ballistic conduction, and tunable electronic states at nanometer scales.
This application explains how single-walled carbon nanotubes enable optical modulation and sensing through chirality-dependent excitonic absorption and emission in the near-infrared region, enabling light–matter interaction in thin optoelectronic films.
Direct Answer: SWCNT enables photonics and optoelectronics by generating chirality-dependent excitons that absorb and emit near-infrared light, allowing optical modulation and signal control in thin-film device architectures.
This application describes how single-walled carbon nanotube (SWCNT) networks enable printed and flexible electronics by forming percolated conductive pathways that maintain electrical continuity under mechanical deformation.
Direct Answer: SWCNT enables printed flexible electronics by forming a percolation network where electrical conduction occurs through tube–tube junctions, allowing conductivity to persist under bending and repeated mechanical strain.
This application note explains how single-walled carbon nanotube networks act as an electronic backbone in porous electrodes, reducing internal resistance and stabilizing high-rate charge/discharge behavior when the ionic pathway remains accessible.
Direct Answer (≤60 words): Single-walled carbon nanotubes enable supercapacitors by creating an electronically percolated backbone across porous electrodes, lowering ESR and reducing rate-limiting ohmic drops. When the network stays connected and electrolyte access is preserved, stored charge can be delivered at higher current with less power loss.
This application note explains how single-walled carbon nanotubes support conductive paths and device channels in semiconductor electronics by combining quasi-1D electron transport with chirality-dependent band structure.
SWCNT enables semiconductor electronics by forming quasi-1D conduction paths where chirality sets metallic versus semiconducting behavior, allowing use as low-loss interconnect networks or gate-modulated channels when tube type and network continuity are controlled.
This application note explains how SWCNT-enabled conductive networks in polymer composites convert strain and damage into resistance change for in-situ structural feedback.
SWCNT enables self-sensing polymer composites by forming a sparse conductive network where strain shifts nanotube spacing and contacts, changing tunneling/contact resistance and producing a resistance signal correlated to deformation and damage.
This application note explains how single-walled carbon nanotube (SWCNT) networks form a transparent, conductive pathway that carries lateral current with minimal optical shadowing.
Direct Answer: SWCNT networks enable transparent electrodes by forming a percolated conductive pathway that maintains conductivity under strain while preserving optical transmission.
This application note explains how SWCNT enables low-power sensing by forming a percolation network that converts adsorption- or strain-driven microstructural changes into measurable resistance shifts in films and composites.
SWCNT enables gas/strain/wearable sensors by forming a percolation network where junction tunneling resistance shifts with adsorption, strain, and microcrack evolution, converting small stimuli into a stable electrical signal at low loading.
Single-walled carbon nanotubes enable EMI shielding by forming a percolated conductive network that supports induced surface currents and impedance loss across a broad frequency range.
SWCNT enables EMI shielding by forming a continuous conductive pathway at low loading, allowing electromagnetic energy to be dissipated through network conduction rather than bulk absorption. Shielding efficiency depends on network continuity, junction resistance, and coating microstructure.
In conductive coatings, SWCNT forms a high-aspect-ratio network that reduces percolation threshold and enables thin-film EMI attenuation. Performance is sensitive to dispersion quality and inter-tube junction resistance.
This page explains how single-walled carbon nanotubes (SWCNT) build a percolated conductive network in slurry-cast electrodes, helping maintain electron pathways as the binder consolidates during drying.
Direct Answer: single-walled carbon nanotubes enable Li-ion electrode conductivity by forming a percolation network; electrons move along nanotube paths and across tube–tube junctions, keeping current collection continuous during slurry drying and binder consolidation.
Short answer: Strontium vanadate (SrVO3) is a perovskite-structured oxide studied for its electronic transport behavior in functional oxide systems. It is used as a research and development material in electronic and ceramic processing workflows. Its role depends strongly on phase purity and processing history, and it is not a drop-in conductive additive for polymers or low-temperature systems.