Key Features

• High Purity:The product has a purity greater than 95%, ensuring excellent performance.
• Highly Ordered Arrangement:The vertical array structure enhances the material’s mechanical strength and conductivity.
• Good Mechanical Properties:The combination of the paper substrate and carbon nanotube arrays provides strength and flexibility.
• Excellent Conductivity:The conductivity of carbon nanotubes makes this product suitable for a wide range of electronic applications.

Applications

• Electronic Devices:Can be used in sensors, electronic components, and other high-performance electronic applications.
• Energy Sector:Potential applications in energy storage devices such as supercapacitors and fuel cells.
• Composite Materials:Can be used to create high-strength, lightweight composite materials.
• Thermal Management:Due to the high thermal conductivity of carbon nanotubes, it is suitable for heat dissipation materials and thermal management systems.

Key Features

• Adjustable Height:The height ranges from 300 to 1000 microns, allowing selection based on application needs.
• High Purity:With carbon nanotube purity greater than 95%, this product ensures excellent conductivity and mechanical performance.
• Good Alignment:The vertical arrangement of the carbon nanotubes enhances the mechanical strength and electrical properties of the array.
• Lightweight and Durable:The plastic substrate provides both lightweight characteristics and sufficient mechanical strength.

Applications

• Electronic Devices:Used in the production of conductive materials, sensors, and other electronic components.
• Energy Storage:Suitable as electrode material for supercapacitors, batteries, and other energy storage devices.
• Catalyst Supports:With its large surface area, it can be used in catalytic reactions and as a catalyst support.
• Composite Materials:Enhances the mechanical properties and conductivity of plastics, rubber, and other materials.
• Sensor Technology:Ideal for gas sensors, biosensors, and other applications requiring excellent response performance.
• Thermal Management:Its good thermal conductivity makes it suitable for thermal management and heat dissipation applications.

Key Features

• Adjustable Height:The height ranges from 300 to 1000 microns, accommodating different application needs.
• High Purity:Carbon nanotubes have a purity greater than 95%, ensuring excellent electrical performance and stability.
• Metal Substrate:Provides higher conductivity and mechanical strength, especially suited for high-load and high-strength applications.
• Vertical Alignment:The vertical arrangement of the carbon nanotubes effectively enhances the material’s conductivity and mechanical properties.

Applications

• Electronic Devices:Used to manufacture high-performance conductive materials, sensors, batteries, and other electronic components.
• Energy Storage:Serves as an efficient electrode material for supercapacitors, batteries, and other energy storage devices.
• Catalysis:Acts as a catalyst support or catalyst itself, improving catalytic efficiency.
• Composite Materials:Enhances the mechanical properties, conductivity, and thermal conductivity of metals, plastics, rubbers, and other materials.
• Sensor Technology:Applied in gas sensors, biosensors, and other sensor technologies, improving response speed and sensitivity.
• Thermal Management:Used in electronic devices for heat management and dissipation systems.

Key Features

• High Purity:The product has a purity greater than 95%, ensuring stable performance.
• Ordered Arrangement:The vertical alignment of the carbon nanotubes enhances the mechanical strength and conductivity of the material.
• Increased Flexibility:The use of fabric substrate improves the product’s flexibility, making it adaptable to various application needs.
• Excellent Electrical and Thermal Conductivity:The conductivity and thermal properties of carbon nanotubes make this product highly suitable for high-performance electronics and thermal management applications.

Applications

• Electronic Devices:Used in sensors, conductive films, and other electronic components.
• Energy Storage:Suitable for supercapacitors, fuel cells, and other energy storage systems.
• Composite Materials:When combined with other materials, it improves mechanical strength and conductivity.
• Thermal Management:Due to its excellent thermal conductivity, it is widely used in heat dissipation devices and thermal management applications.

Key Features

• Adjustable Height:The height can be adjusted between 300 and 1000 microns to meet various application needs.
• High Purity:With purity greater than 95%, the material delivers superior performance and reliability.
• Excellent Alignment:The vertical arrangement of the carbon nanotubes enhances the material’s electrical, mechanical, and thermal properties.
• Good Conductivity and Strength:Suitable for use as high-performance conductive materials and reinforcement materials.

Applications

• Electronic Devices:Used in the manufacturing of high-efficiency electronic components such as sensors and field-effect transistors.
• Energy Storage:Serves as an electrode material for supercapacitors and lithium batteries, enhancing energy storage capabilities.
• Catalysis:Acts as a catalyst support or catalyst itself, providing more active sites for chemical reactions.
• Composite Materials:Improves strength and conductivity, widely used in aerospace, automotive, and other industries.
• Sensor Technology:Enhances the response speed and sensitivity of gas sensors and biosensors.
• Thermal Management:With its excellent thermal conductivity, it is ideal for use in efficient thermal management systems.

Key Features

• Efficient Dispersion:Particularly effective for dispersing carbon nanotubes in ester solvents, improving solution stability.
• White Powder:Simple appearance, easily compatible with other materials.

Applications

• Solution Dispersion:Widely used for dispersing carbon nanotubes in ester solvents such as ethyl acetate and butyl acetate, enhancing dispersion and improving the performance of nanomaterials.

Key Features

• Lightweight & High Strength:Despite their low density, carbon nanotube fibers possess high tensile strength and elasticity, making them ideal for applications requiring both strength and lightweight properties.
• High Electrical Conductivity:The excellent conductivity of carbon nanotubes imparts superior electrical properties to the fibers.
• High Thermal Conductivity:These fibers have exceptional heat conductivity, making them well-suited for thermal management applications.
• Versatility:The fibers can be combined with other materials or functionalized to expand their application areas.

Applications

• Aerospace:Used for aircraft skin and structural components to enhance the overall performance of the aircraft.
• Automotive Manufacturing:Ideal for lightweight vehicle components like body panels and chassis, helping to achieve energy efficiency and reduce fuel consumption.
• Sports Equipment:Used in the production of high-performance bicycle frames, golf clubs, etc., improving athletic performance.
• Electronic Devices:Due to their high conductivity, these fibers have potential applications in sensors, conductive films, and other electronic components.
• Other Fields:Also applied in biomedical, energy storage, environmental protection, and other industries.

Key Features

• Good Water Solubility:Easily soluble in water, making it convenient to operate and use.
• Enhanced Dispersion:Effectively disperses carbon nanotubes into a uniform liquid, suitable for both single-walled and multi-walled carbon nanotubes.

Applications

• Carbon Nanotube Dispersion:Used to prepare uniform dispersions of carbon nanotubes in various research and industrial applications.
• Dispersant Usage:Recommended dosage is 0.3-3 times the amount of carbon nanotubes, depending on the specific application.

Key Features

• Excellent Flexibility:The film is flexible and can be bent repeatedly, making it suitable for flexible electrode applications.
• Outstanding Electrical Conductivity:High electrical conductivity, making it ideal for electrode materials.
• Good Thermal Conductivity:Can be used as a heat dissipation material, widely applied in high-power electronic devices.
• Chemical Stability:Offers excellent resistance to corrosion and oxidation, extending the service life of the material.

Applications

• Electronic Devices:Used in transistors, sensors, displays, and other electronic devices.
• Energy Sector:Suitable for use in fuel cells, lithium-ion batteries, and other energy devices.
• Composite Materials:Can be combined with polymers or other materials to produce high-performance composite materials.
• Heat Dissipation Materials:Used for heat dissipation in high-power electronic devices.

Key Features

• High Conductivity:Conductivity exceeds 3×10⁵ S/m, making it suitable for applications requiring excellent electrical performance.
• Lightweight Structure:With a thickness of only 15-20 microns, it maintains a lightweight profile without sacrificing performance.
• Metal Reinforced:The metal content is over 10%, improving the material’s strength and durability while retaining excellent electrical conductivity.
• Composite Material:The combination of carbon nanotubes and metal enhances the mechanical strength and conductivity of the film, making it suitable for a variety of complex applications.

Applications

• Electronic Devices:Used to manufacture conductive films, thin-film electrodes, batteries, capacitors, and other high-performance electronic components.
• Electromagnetic Shielding:Offers excellent electromagnetic interference shielding, suitable for improving the electromagnetic compatibility (EMC) of electronic devices.
• Sensors:Can be used as an efficient material for sensors, enhancing sensitivity and stability.
• Composite Materials:Enhances the conductivity and mechanical strength of structural composite materials, widely used in aerospace, automotive, and other industries.
• Thermal Management:Used as a heat dissipation material in electronic devices that require efficient thermal conductivity and heat dissipation.