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Single Walled Carbon Nanotubes, Purity: > 96%, Dia: 1.0 nm

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NG01SW0501
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  • Single Walled Carbon Nanotubes, Purity: > 96%, Dia: 1.0 nm
  • Single Walled Carbon Nanotubes, Purity: > 96%, Dia: 1.0 nm
€190.00
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5 grams/190 €                          
25 grams/590 €  
100 grams/1990 €     
500 grams/7860 €   
1000 grams/12640 €  
 
                  

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Product Overview | Single Walled Carbon Nanotubes, Purity: > 96%, Dia: 1.0 nm

Single Walled Carbon Nanotubes (SWCNTs) are one-atom-thick graphene sheets rolled into ultra-thin cylindrical tubes. With a high purity of>96% and a precise average diameter of 1.0 nm, these nanotubes exhibit exceptional electrical, mechanical, and thermal properties.

Manufactured using CVD (Chemical Vapor Deposition) and deep air oxidation, this product contains minimal amorphous carbon and is engineered for high-performance applications including transparent conductive films and optoelectronic devices.

Technical Specifications

Purity > 96%
Color Black
Average Diameter 1.0 nm
Outer Diameter (OD) 1–2 nm
Inner Diameter (ID) 0.8–1.6 nm
Length 20–55 µm
Tap Density 0.15 g/cm³
True Density 2.4 g/cm³
Specific Surface Area 570 m²/g
Ash Content 3.0 wt%
Thermal Conductivity 45–190 W/m·K
Electrical Conductivity 98 S/cm
Ignition Temperature 620 °C
I<sub>G</sub>/I<sub>D</sub> Ratio 20
Manufacturing Method CVD
CAS No 308068-56-6

Performance Highlighst:
SWCNT-based films prepared with this product can achieve >80% transparency and <200 Ω/sq sheet resistance, making them ideal for next-generation transparent electronics.

Applications:

  • Transparent Conductive Films & Displays: These SWCNTs are ideal for the fabrication of transparent conductive films used in modern optoelectronic devices. Their excellent electrical conductivity and optical clarity support applications in touchscreen technology, OLED panels, and flat panel displays, offering a flexible and lightweight alternative to traditional transparent electrodes.
  • Thin-Film Solar Cells & Photovoltaics: Their high aspect ratio and conductive network structure enable efficient charge transport in thin-film solar cells. These nanotubes enhance light absorption and carrier mobility, contributing to improved photovoltaic performance in next-generation solar technologies.
  • Conductive Coatings & Flexible Electronics: These nanotubes are widely used in conductive coatings and printable electronics. Their flexibility and processability make them suitable for roll-to-roll manufacturing of flexible circuits, wearable sensors, and transparent electrodes in smart devices.
  • Biosensors & Nanomechanical Devices: With their nanoscale dimensions and surface sensitivity, these SWCNTs are employed in high-sensitivity biosensors and nanomechanical systems. Their ability to detect molecular interactions at low concentrations makes them valuable in diagnostics, environmental monitoring, and bioelectronics.
  • Energy Storage & CNT-Polymer Nanocomposites: These nanotubes enhance electrochemical performance in energy storage systems such as supercapacitors and batteries. When integrated into CNT-polymer nanocomposites, they improve mechanical strength, electrical conductivity, and thermal stability, supporting multifunctional material development.
 
 

FAQ

Technical FAQ About Single Walled Carbon Nanotubes, >96% Purity, 1.0 nm

1) What makes this SWCNT grade suitable for transparent conductive applications?

The combination of a 1.0 nm average diameter, 20-55 µm length and 98 S/cm electrical conductivity supports the formation of conductive nanotube networks at low film thickness. Nanografi NG01SW0501 is positioned for transparent conductive films, displays and optoelectronic applications.

2) Can Nanografi NG01SW0501 be used for transparent conductive films?

Yes. Transparent conductive films are one of the primary application areas for Nanografi NG01SW0501. Films prepared with this grade are specified to reach more than 80% transparency with sheet resistance below 200 Ω/sq.

3) Why is the 20-55 µm nanotube length important for conductive networks?

A longer nanotube length can support network connectivity by increasing the probability of tube-to-tube contact across a film or composite. For this grade, the 20-55 µm length should be considered together with the 1.0 nm average diameter and electrical conductivity when evaluating conductive formulations.

4) Is this SWCNT grade suitable for OLED, touchscreen and display applications?

Yes. OLED panels, touchscreens and flat-panel displays are among the listed application areas. The combination of electrical conductivity and optical transparency makes this grade relevant for transparent electrode development.

5) Can this material be used in thin-film solar cells and photovoltaic research?

Yes. Thin-film solar cells and photovoltaic systems are listed applications for this SWCNT grade, particularly where conductive nanotube networks are used to support charge transport.

6) Is Nanografi SWCNT NG01SW0501 suitable for conductive coatings and flexible electronics?

Yes. Nanografi lists conductive coatings, printable electronics, flexible circuits, wearable sensors and transparent electrodes among the intended application areas for NG01SW0501.

7) Why should specific surface area be considered when selecting this SWCNT grade?

The specific surface area of 570 m²/g is relevant when evaluating interfacial contact, dispersion behavior and interaction with surrounding materials in coatings, composites and electrode systems. It should be assessed together with nanotube dimensions and the intended formulation.

8) Can this SWCNT grade be used in CNT-polymer nanocomposites?

Yes. CNT-polymer nanocomposites are listed among the application areas. The nanotubes can be evaluated where electrical conductivity, thermal transport or mechanical reinforcement is required in multifunctional polymer systems.

9) Is this material suitable for energy-storage applications?

Yes. Supercapacitors and batteries are among the listed application areas. The 98 S/cm electrical conductivity, high aspect ratio and 570 m²/g specific surface area are relevant parameters when evaluating the material for electrode-related research.

10) Can the 1.0 nm SWCNT grade be used in biosensors and nanomechanical devices?

Yes. Biosensors and nanomechanical systems are identified as application areas for this grade, where nanoscale dimensions and surface sensitivity can be useful for sensor and bioelectronic research.

11) What should be compared when choosing this SWCNT grade over another single-walled CNT product?

The main comparison parameters are purity, average diameter, outer and inner diameter, nanotube length, specific surface area, electrical conductivity, thermal conductivity, ash content and production method. Nanografi NG01SW0501 combines >96% purity, a 1.0 nm average diameter, 20-55 µm length and 570 m²/g surface area.

12) Is this SWCNT grade produced by CVD?

Yes. Nanografi NG01SW0501 is produced by Chemical Vapor Deposition (CVD), which is the specified manufacturing method for this grade.

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