What is CNTxGNP?
CNT x GNP (CNTxGNP)
CNTxGNP is a hybrid carbon nanotube and graphene nanoplatelet material platform for conductive, EMI shielding, ESD, thermal management, carbon dispersion, and electrothermal applications.
Technical owner: Aurexene Materials Engineering Team · Last updated: 2026-07-25
What It Is Not
- CNTxGNP is not CNT or graphene nanoplatelet alone; it is a hybrid conductive-filler architecture.
When Not to Use It
- Do not use CNTxGNP when the process cannot control both nanotube dispersion and platelet orientation, or when a single-filler system is required.
Intrinsic Screening Summary
- Identity screen
- Carbon nanotube and graphene nanoplatelet hybrid; Hybrid CNT and graphene nanoplatelet network
- Intrinsic feature
- CNTs and platelet graphene can create complementary network paths when dispersion, orientation, and loading are controlled.
Application Fit
Selection & Validation Framework
| Decision Question | Material-Level Answer |
|---|---|
| Integration and validation | Required for: Carbon Dispersion, Conductive Materials, EMI Shielding Materials, and ESD Materials. Measure: particle distribution; settling; redispersion. Sample state: final host formulation or part state. Failure signals: Request approved data. |
Material Identity & Specification Status
Approved values for CAS / identity, Particle size, Density, Purity, and Packaging are not published; confirm them during quotation or sample review.
| Property | Value |
|---|---|
| Composition | Carbon nanotube and graphene nanoplatelet hybrid |
| Morphology | Hybrid CNT and graphene nanoplatelet network |
| Storage | Powder: keep dry and sealed. Paste: store factory-sealed at 5–50 °C and ambient humidity ≤95% RH; shelf life is 6 months from the production date under these storage conditions. |
Why It Works
| Structure | Function | Mechanism |
|---|---|---|
| Carbon nanotube network combined with graphene nanoplatelets. | CNTxGNP supports conductive, shielding, static-control, thermal, dispersion, and electrothermal material screening. | CNTs and platelet graphene can create complementary network paths when dispersion, orientation, and loading are controlled. |
Compare Material Routes
| Material / Route | Decision Boundary |
|---|---|
| hBNxCNT | CNTxGNP is the carbon-carbon hybrid route when conductive or electrothermal behavior is part of the target. Electrical conductivity, opacity, viscosity, and dispersion risk must fit the application boundary. |
Technical Guides
| Technical Guide | Summary |
|---|---|
| Aspect Ratio, Porosity, Contact Resistance, and Electronic Path Continuity in Electrodes | Electrode continuity depends on the processed distribution of additive length scales, accessible pore structure, particle and collector contacts, direction, and cycling state; high powder aspect ratio or low total resistance alone cannot prove a robust electronic path. |
| Chemical Oxidation, Corrosion, and Conductivity Drift in Cell Environments | Chemical Oxidation, Corrosion, and Conductivity Drift in Cell Environments — a method-conditioned engineering guide for Bipolar Plates covering structure-function behavior at the material, interface, and finished-system boundary, process limits, validation, and qualification boundaries. |
| Compression Molding, Injection Molding, Extrusion, and Plate-Density Control | Compression Molding, Injection Molding, Extrusion, and Plate-Density Control — a method-conditioned engineering guide for Bipolar Plates covering structure-function behavior at the material, interface, and finished-system boundary, process limits, validation, and qualification boundaries. |
| Conductivity, Corrosion, Gas Permeability, Strength, and Manufacturability Tradeoffs | Conductivity, Corrosion, Gas Permeability, Strength, and Manufacturability Tradeoffs — a method-conditioned engineering guide for Bipolar Plates covering structure-function behavior at the material, interface, and finished-system boundary, process limits, validation, and qualification boundaries. |
| Conductivity Loss from Abrasion, Ozone, Heat, Oil, and Chemical Exposure | Conductivity Loss from Abrasion, Ozone, Heat, Oil, and Chemical Exposure — a method-conditioned engineering guide for Conductive Rubber/Tire/Elastomers covering structure-function behavior at the material, interface, and finished-system boundary, process limits, validation, and qualification boundaries. |
FAQ
What TI topics does CNTxGNP belong to?
CNTxGNP is mapped to Hybrid Nanofillers, Carbon Dispersion, Conductive Additives, EMI Shielding, ESD Protection, Thermal Management, Heat Dissipation Fillers, Hybrid Thermal-Conductive Fillers, Photothermal / Electrothermal Materials, Polymer Composite Additives, Graphene / GNP Additives, CNT Composite Additives.
Commercial Availability
Supplier role: Request confirmation
Supply status: Request confirmation
Sample status: Sample availability requires confirmation
Commercial details are not published until the source and verification fields are complete and the Supplier Data Packet is signed by the sales owner, technical reviewer, and resource/compliance owner. Request current grade, form, sample, packaging, and delivery confirmation.
Documents & Inquiry
Document access follows the current approval state. Unapproved or unavailable files route to a document request instead of a public download.
Technical Data Sheet
Request required
Safety Data Sheet
Request required
Grade, Sample & Qualification Support
The Aurexene Materials Engineering Team can review the required form, host system, formulation or process, target, sample quantity, volume and timeline, and the grade-specific evidence needed before qualification.
Review Lab Capabilities for sample evaluation and qualification support, or Production Capabilities for scale-up, quality, documentation, and supply support.
Request CNTxGNP Sample / Qualification Review