Key Features

• High Activity:100% active ingredients ensure efficient dispersion action.
• Non-Polar:Suitable for low-polarity solvents, optimizing the dispersion of carbon nanotubes.
• Improved Flowability:Enhances the flowability of the dispersion system, increasing efficiency during application.
• Enhanced Gloss:Improves the appearance of the dispersion system, increasing gloss levels.

Applications

• Carbon Nanotube Dispersion:Used to disperse carbon nanotubes in low-polarity hydrocarbon solvents such as liquid paraffin, improving dispersion effects.
• Coatings and Inks:Improves the flowability and gloss of dispersion liquids, widely used in the production of coatings and inks.

Key Features

• Black Paste Form:The product is in black paste form, making it easy to observe and handle during use.
• High Carbon Nanotube Content:Contains 9-10 wt% carbon nanotubes, suitable for different application needs.
• Aqueous Medium:Uses water as the dispersion medium, which is environmentally friendly and easy to handle.
• Good Dispersion:Offers excellent dispersion stability, effectively preventing aggregation of carbon nanotubes.

Applications

• Coatings and Inks:Used as an enhancer in coatings and inks to improve electrical conductivity and mechanical properties.
• Composite Materials:Used in the manufacture of high-performance composite materials, significantly enhancing their strength, rigidity, and thermal conductivity.
• Energy Field:Serves as electrode material in energy devices, enhancing the performance of batteries and supercapacitors.
• Sensors:Enhances the sensitivity and selectivity of sensors.
• Electronic Devices:Used in the manufacture of conductive films and electronic components.
• Other Applications:Widely used in catalysts, nanomaterials, and other high-tech product manufacturing.

Key Features

• Efficient Dispersion:Exhibits excellent dispersion effects, particularly suitable for dispersing carbon nanotubes in NMP solutions.
• High Purity:Offers a high purity dispersant, ensuring optimal dispersion and product quality.
• White Powder Form:Easy to handle and apply, facilitating the preparation of solutions.

Applications

• Carbon Nanotube Dispersion:Primarily used for dispersing carbon nanotubes in NMP solutions.
• High-Performance Solution Preparation:Assists in preparing stable carbon nanotube dispersions, suitable for various carbon nanotube research and applications.

Key Features

• Unique Structure:Single-walled carbon nanotubes have a hollow tubular structure, similar to curled graphene sheets.
• Excellent Electrical Properties:They exhibit excellent conductivity, capable of demonstrating metallic or semiconducting behaviors.
• Outstanding Mechanical Properties:High strength and toughness, adaptable to various application needs.
• Large Specific Surface Area:Enhances material adsorption and thermal conductivity properties.

Applications

• Electronics:Used in the manufacture of integrated circuits, field-effect transistors, flexible electronic devices, enabling miniaturization and increased efficiency.
• Energy:Used as electrode materials to enhance the performance of lithium-ion batteries and supercapacitors, improving charge/discharge efficiency and cycle life.
• Composite Materials:Enhances the mechanical properties of polymer-based materials, improving strength, stiffness, and toughness.
• Sensors:Used for highly sensitive detection of gases and chemicals, suitable for detecting biological molecules and cells.
• Nanomechanics:Essential components for micro-mechanics and nanomachines.
• Aerospace:Used in the production of lightweight and strong aircraft and spacecraft components.
• Other Fields:Includes applications in catalysts, field emitters, conductive films, and bio-nanomaterials.

Key Features

• Unique Structure:Single-walled carbon nanotubes feature a hollow tubular structure, offering a range of exceptional properties.
• High Electrical Performance:Exhibits high conductivity, with the potential to behave as either metallic or semiconductor materials.
• Outstanding Mechanical Properties:High strength and toughness, suitable for enhancing materials.
• Large Surface Area:Provides significant advantages in adsorption and heat transfer applications.

Applications

• Electronics:Used in the manufacturing of integrated circuits, field-effect transistors, and flexible electronic devices.
• Energy:Applied as electrode materials in lithium-ion batteries and supercapacitors, improving battery performance.
• Composite Materials:Enhances the strength, rigidity, and toughness of materials, improving overall material performance.
• Sensors:Highly sensitive in detecting gases and chemicals, widely used in biomolecular and cell detection.
• Nano-Mechanical Devices:Utilized in the construction of miniature mechanical systems, such as nano-motors.
• Aerospace:Used in manufacturing lightweight yet strong aircraft and spacecraft components.
• Other Applications:Includes uses in catalysts, field emitters, conductive films, and biomedical nanomaterials.

Key Features

• Good Dispersion:Isopropanol as a solvent effectively disperses carbon nanotubes, ensuring uniformity during the coating process.
• Excellent Conductivity:Capable of forming high-conductivity films, suitable for electronic devices and electrical applications.
• Enhanced Mechanical Properties:Multi-walled carbon nanotubes offer strength and toughness, improving the performance of composite materials.
• Thermal Conductivity:Exhibits excellent thermal conductivity, making it suitable for efficient heat dissipation materials.
• Chemical Stability:Demonstrates high stability in general chemical environments, making it suitable for long-term use.

Applications

• Electronics:Used in the manufacture of conductive films, sensors, and other electronic components.
• Coatings and Films:Suitable for coating substrates like glass to create conductive films.
• Composite Materials:Acts as a reinforcing material to enhance the mechanical and thermal properties of composite materials.
• Thermal Management Systems:Applied in the development and use of efficient heat dissipation materials.
• Other Fields:Widely used in conductive coatings, sensors, and related industrial applications.

Key Features

• Excellent Dispersion:Butyl acetate as a solvent effectively improves the dispersion of carbon nanotubes in liquid, ensuring uniform distribution.
• Enhanced Mechanical Properties:Multi-walled carbon nanotubes possess extremely high strength and toughness, significantly enhancing the strength and rigidity of composite materials.
• Outstanding Conductivity:Carbon nanotubes offer excellent electrical conductivity, suitable for conductive coatings and electronic components.
• High Thermal Conductivity:Provides exceptional heat transfer capabilities, making it suitable for efficient heat dissipation systems.
• Chemical Stability:Demonstrates good stability in various chemical environments, adaptable to complex application requirements.

Applications

• Electronics:Used in the manufacture of conductive materials, flexible electronics, sensors, and other devices.
• Composite Materials:When added to polymer matrices, it enhances the mechanical properties and thermal stability of composite materials.
• Energy:Used as an electrode material in batteries and supercapacitors, improving energy density and charge/discharge performance.
• Thermal Management:Widely applied in thermal conductive materials and heat dissipation devices.
• Catalysis and Carriers:Can be used as a carrier in catalytic reactions to enhance reaction efficiency.

Key Features

• Exceptional Mechanical Properties:Multi-walled carbon nanotubes have extremely high strength and toughness, with theoretical strength tens to hundreds of times greater than steel.
• Outstanding Electrical Properties:They exhibit good electrical conductivity, making them suitable for various applications.
• Excellent Thermal Properties:High thermal conductivity enables effective heat transfer.
• High Specific Surface Area:Provides increased adsorption and catalytic potential, widely used in catalytic and adsorption applications.

Applications

• Composite Material Reinforcement:Multi-walled carbon nanotubes enhance the strength and rigidity of materials such as plastics, rubber, and metals, particularly in composite material interfaces.
• Electronic Devices:Used in the production of conductive inks, sensors, flexible displays, and other electronic devices, providing excellent electrical conductivity.
• Electrode Materials:Used as electrode materials in lithium-ion batteries and supercapacitors to improve energy storage and power output capacity.
• Catalysts and Catalyst Carriers:As catalysts or carriers, they enhance catalytic reaction efficiency and improve catalytic performance.
• Energy Sector:In addition to battery applications, they can also serve as hydrogen storage materials, providing ideal conditions for hydrogen storage.
• Wave-Absorbing Materials:Potential applications in electromagnetic wave absorption for military stealth, electromagnetic shielding, and similar fields.
• Biomedical Field:Used as drug carriers, capable of crossing cell membranes and enhancing controlled drug release.
• Scientific Research:Widely used in research to help scientists explore the properties and potential applications of carbon nanotubes.

Key Features

• Excellent Dispersion:DMF solvent effectively disperses multi-walled carbon nanotubes, ensuring uniform distribution in liquid form.
• Good Conductivity:Multi-walled carbon nanotubes exhibit excellent electrical conductivity, suitable for applications in electronic and conductive materials.
• High Strength and Toughness:Enhances the mechanical properties of composite materials, improving strength and rigidity.
• Chemical Stability:Carbon nanotubes remain stable in various chemical environments, offering strong resistance to chemical corrosion.
• High Thermal Conductivity:Provides superior heat transfer properties, making it ideal for thermal management and heat dissipation materials.

Applications

• Electronics:Used in the production of conductive materials, sensors, and other electronic devices.
• Composite Materials:Enhances the mechanical and thermal properties of polymers, metals, ceramics, and other substrates.
• Energy:Serves as electrode material in lithium-ion batteries and supercapacitors, enhancing energy storage performance.
• Catalysis and Carriers:Can be used as a catalyst carrier to improve catalytic reaction performance.
• Thermal Management:Applied in devices requiring high thermal conductivity, such as heat dissipation materials.

Key Features

• Excellent Mechanical Properties:Multi-walled carbon nanotubes have exceptional strength and toughness, with theoretical strength many times that of steel.
• Outstanding Electrical Properties:While the conductivity may be lower than single-walled carbon nanotubes, they still exhibit good electrical conductivity.
• Good Thermal Properties:Carbon nanotubes possess high thermal conductivity, enabling efficient heat transfer.
• High Specific Surface Area:Provides a larger surface area for adsorption and catalytic potential, making them suitable for various applications.

Applications

• Composite Material Enhancement:Enhances the mechanical properties of plastics, rubbers, metals, etc., and improves the interface interaction with organic matrices.
• Electronic Devices:Used in the manufacture of conductive inks, sensors, flexible displays, and other electronic devices.
• Electrode Materials:Used as electrode materials in lithium-ion batteries and supercapacitors, improving energy storage and power output capacity.
• Catalysts and Catalyst Carriers:Used as catalysts or carriers, providing more active sites to enhance catalytic performance.
• Energy Field:Applied in hydrogen storage materials to provide favorable conditions for hydrogen storage.
• Wave-Absorbing Materials:Used in electromagnetic wave absorption, with potential applications in military stealth and electromagnetic shielding.
• Biomedical Field:Provides drug carriers, enhancing drug delivery, especially in intracellular delivery.
• Scientific Research:Offers various possibilities for scientific research to explore the properties and potential applications of nanomaterials.