Vertical arrays of multi-walled carbon nanotubes (MWCNTs) on quartz substrates provide optimized electrical conductivity, superior thermal stability, and precise structural alignment. Designed for advanced applications, they enhance charge transport, durability, and high-performance adaptability.
Product Overview
The multi-walled carbon nanotube vertical array is a structure formed by multiple concentric carbon nanotubes arranged in a vertical direction. It offers excellent mechanical, thermal, and electrical properties. This unique arrangement makes it widely applicable across multiple fields, particularly in high-performance materials and nanotechnology.
Key Features
- Adjustable Height:Height ranges from 50 to 1000 microns, suitable for various application needs.
- High Purity:Carbon nanotubes have a purity of up to 98%, ensuring superior performance and stability.
- Multi-Walled Structure:Composed of 3 to 7 layers of carbon atoms, providing enhanced mechanical strength and thermal conductivity.
- Small Tube Diameter:The carbon nanotube diameter ranges from 3 to 10 nanometers, improving surface reactivity and electrical properties.
Applications
- Electronic Devices:Used in the production of high-performance conductive materials, sensors, and field-effect transistors.
- Energy Storage:Serves as an efficient electrode material for supercapacitors and lithium batteries, enhancing energy storage and output capabilities.
- Composite Materials:Improves the mechanical properties and conductivity of base materials like plastics, rubber, and metals.
- Catalysis:Acts as a catalyst support or catalyst itself, improving catalytic efficiency.
- Sensor Technology:Applied in gas sensors and biosensors, enhancing response speed and sensitivity.
- Thermal Management:With its high thermal conductivity, it is ideal for heat dissipation and thermal management systems in electronic devices.
Property | Parameters |
Appearance | Black block |
Height | 50~1000 µm |
Wall Number | 3~7 |
Carbon Tube Diameter | 3-10 nm |
Purity | 98% |
Density | ≤0.3 g/cm³ |
Specific Surface Area | ~20 m²/g |
Electrical Conductivity | 103 S/m |
Substrate | Quartz |