Amine Functionalized SWCNT-NH2
(SWCNT –NH2, OD:1-2nm Length:5-15µm), HIgh Purity, Less Price, WorldWide Shipping, FAst Delivery
NanowizTech NH2-SWCNT (Amine-Functionalized Single-Wall Carbon Nanotubes) is a high-performance carbon nanomaterial designed for advanced research and industrial applications. Featuring amine surface functional groups, NH2-SWCNT offers improved dispersibility, chemical interaction, and compatibility with polymer composites, biosensors, electronic materials, and nanotechnology applications. Available from NanowizTech as a specialized manufacturer and supplier of functionalized carbon nanotubes with CAS No. 308068-56-6.
As a leading manufacturer and supplier of advanced carbon nanomaterials, NanowizTech provides high-purity NH2-SWCNT with consistent quality, competitive pricing, and worldwide shipping solutions for research institutions, universities, laboratories, and industrial customers. NH2-SWCNT has become an important nanomaterial for developing lightweight composites, conductive coatings, sensors, energy devices, and advanced biomedical technologies.
Product | SWCNT-NH2 | |
|---|---|---|
Stock No. | NW2001-09-0009 | |
CAS | 308068-56-6 | Confirm |
OD | 1-2nm | Confirm |
Form | Powder | Confirm |
Purity | ~98% (SWCNT) | Confirm |
Residue (calcination in air) | < 2% | Confirm |
Surface Modified | Amine (NH2) | Confirm |
Special Surface Area | 350-450* m²/g | Confirm |
Charging * | 2180 (Capacity: mA h/g) | Confirm |
Main Inspect Verifier | QC In charge | Confirm |
Note: Product Specification are subject to amendment and may change over time.
NanowizTech NH2-SWCNT (Amine-Single-Walled Carbon Nanotubes) – High Purity Functionalized Carbon Nanotubes Manufacturer & Global Supplier
Introduction to NanowizTech NH2-SWCNT
NanowizTech NH2-SWCNT (Amine-Single-Walled Carbon Nanotubes) is an advanced functionalized nanomaterial designed for high-performance applications in nanotechnology, composite materials, electronics, energy storage, biotechnology, and advanced research fields. NH2-SWCNT represents single-walled carbon nanotubes modified with amine (-NHâ‚‚) functional groups, improving their compatibility, dispersion capability, and interaction with various polymer, chemical, and biological systems.
What Are Amine Single-Walled Carbon Nanotubes (NH2-SWCNT)?
Single-walled carbon nanotubes are cylindrical nanostructures made of carbon atoms arranged in a hexagonal lattice. They possess exceptional mechanical strength, electrical conductivity, thermal stability, and unique nanoscale properties.
When single-walled carbon nanotubes are modified with amine functional groups, the resulting NH2-SWCNT material gains additional chemical functionality.
The amine groups attached to the nanotube surface provide:
- Improved surface reactivity
- Better compatibility with polymers
- Enhanced dispersion in selected solutions
- Stronger bonding with organic molecules
- Increased application flexibility
These properties make NH2-SWCNT valuable for researchers and manufacturers developing high-performance nanocomposites and advanced technologies.
Key Properties of NanowizTech NH2-SWCNT
High Purity Carbon Nanotube Material
NanowizTech NH2-SWCNT is manufactured with a focus on high purity and consistent quality. High-purity functionalized carbon nanotubes help researchers achieve reliable experimental results and improve the performance of final products.
High purity characteristics include:
- Reduced unwanted impurities
- Controlled functionalization
- Stable nanotube structure
- Reliable batch-to-batch performance
High-quality NH2-SWCNT is suitable for demanding applications where material consistency is essential.
Excellent Electrical Conductivity
Single-walled carbon nanotubes are recognized for their outstanding electrical properties. NH2 functionalization maintains the unique conductive characteristics of SWCNT while adding chemical compatibility advantages.
Potential electrical applications include:
- Conductive polymer composites
- Flexible electronics
- Nanoelectronic components
- Sensor technologies
- Electrochemical devices
The combination of conductivity and functional surface chemistry makes NH2-SWCNT an attractive material for advanced electronic applications.
Superior Mechanical Strength
Carbon nanotubes are among the strongest known nanomaterials. Their exceptional tensile strength and lightweight structure make them useful reinforcement materials.
NH2-SWCNT can improve:
- Composite material strength
- Mechanical durability
- Structural performance
- Lightweight material design
Industries using advanced composites explore functionalized carbon nanotubes for aerospace, automotive, construction, and engineering applications.
Enhanced Surface Compatibility
The amine functional group improves interaction between carbon nanotubes and surrounding materials.
Advantages include:
- Better polymer bonding
- Improved material integration
- Enhanced chemical modification capability
- Increased compatibility with organic systems
This makes NH2-SWCNT suitable for creating customized nanocomposites with specific performance requirements.
Applications of NH2-SWCNT (Amine Functionalized SWCNT)
Advanced Composite Materials
NH2-SWCNT is widely researched as a reinforcement additive for polymer composites.
Applications include:
- High-strength plastics
- Epoxy composites
- Conductive polymers
- Lightweight structural materials
The addition of functionalized carbon nanotubes can improve mechanical properties, electrical performance, and thermal stability.
Energy Storage Applications
The unique electrical properties of NH2-SWCNT make it valuable for energy-related research.
Potential applications include:
- Lithium-ion batteries
- Supercapacitors
- Electrode materials
- Conductive additives
Functionalized nanotubes can improve charge transfer and enhance the performance of energy storage systems.
Sensors and Electronics
NH2-SWCNT is used in the development of advanced sensing technologies.
Applications include:
- Chemical sensors
- Biosensors
- Nanoelectronics
- Flexible electronic devices
The high surface area and electrical sensitivity of carbon nanotubes enable the development of highly responsive sensor platforms.
Properties of NH2-SWCNT (Amine Functionalized SWCNT):
- High Surface Area
- Lightweight Nanomaterial
- Thermal Stability
- Chemical Functionalization Capability
Why Choose NanowizTech NH2-SWCNT?
NanowizTech focuses on providing high-quality functionalized carbon nanotube materials for global research and industrial requirements.
High Purity NH2-SWCNT Supply
Quality and purity are essential factors when working with nanomaterials. NanowizTech NH2-SWCNT is developed for applications requiring:
- Consistent material quality
- Controlled functionalization
- Reliable performance
- Research-grade specifications
High-purity carbon nanotubes help laboratories and manufacturers achieve better reproducibilityTech NH2-SWCNT in experiments and product development.
Frequently Asked Questions (FAQ)
1. What is NH2-SWCNT?
NH2-SWCNT is an amine-functionalized single-walled carbon nanotube material. It consists of carbon nanotubes modified with amino groups to improve chemical interaction and compatibility with different materials.
2. What is the CAS number of NH2-SWCNT?
The CAS number of NH2-SWCNT is:
308068-56-6
3. What is the chemical formula of NH2-SWCNT?
The commonly used formula is:
NHâ‚‚-SWCNT
It represents single-walled carbon nanotubes functionalized with amine groups.
4. What are the main applications of NH2-SWCNT?
NH2-SWCNT is used in research and industrial applications including:
- Nanocomposites
- Conductive materials
- Sensors
- Energy storage research
- Electronics
- Biotechnology research
- Advanced materials
5. Why choose high purity NH2-SWCNT?
High-purity NH2-SWCNT provides better consistency, improved performance, and reliable results in research and manufacturing processes.
6. Does NanowizTech provide international shipping?
Yes, NanowizTech supports global supply and shipping solutions for customers worldwide.
7. Is NH2-SWCNT suitable for industrial applications?
Yes. NH2-SWCNT is researched and supplied for applications involving advanced composites, electronics, energy systems, and material development.
