Name: Carbon nanotubes, charged, -SO3H modified
Availability: InStock

Product Overview

Hiyka's SO3H-Modified Carbon Nanotubes represent a significant advancement in nanomaterial engineering, offering a tailored solution for applications requiring high dispersion, chemical reactivity, and acidic functionality. By attaching sulfonic acid (SO3H) groups to the surface of carbon nanotubes, we have enhanced their solubility in aqueous and polar solvents and introduced strong acidic sites, making them ideal for catalysis, energy storage solutions, and environmental applications. Our SO3H-modified CNTs are designed to meet the needs of both research and industry, facilitating innovation in material science and technology.

Key factor

Enhanced Dispersion: The introduction of sulfonic acid groups significantly improves the dispersion of CNTs in water and polar solvents, enabling easier processing and application.
Increased Chemical Reactivity: SO3H groups increase the surface reactivity of CNTs, allowing for further chemical modifications and the introduction of additional functional groups.
Acidic Functionality: Provides acidic sites for catalytic reactions, making them suitable for use in acid-catalyzed processes and as solid acid catalysts.
High Conductivity: Maintains the intrinsic electrical conductivity of carbon nanotubes, suitable for applications in energy storage and conductive materials.
Environmental Applications: The enhanced reactivity and dispersion make these CNTs ideal for water treatment, pollutant adsorption, and remediation technologies.

Applications

Catalysis: Utilized as catalysts or catalyst supports in a variety of chemical reactions, including organic synthesis and fuel cell technologies.
Energy Storage: Enhances the performance of electrodes in batteries and supercapacitors, benefiting from the high conductivity and surface area.
Environmental Remediation: Applied in the adsorption and removal of pollutants from water and air, leveraging their high surface reactivity and dispersion.
Polymer Composites: Improves the mechanical, thermal, and conductive properties of polymers, enabling advanced material designs.
Sensors: Used in the development of sensitive chemical and biological sensors, taking advantage of their high surface area and modifiable surface chemistry.

Advantages

Customizable Surface Chemistry: The SO3H modification provides a platform for further functionalization, offering versatility in application.

Superior Performance: Delivers enhanced dispersion, reactivity, and catalytic activity, essential for high-performance applications.
Sustainable Solutions: Supports the development of green technologies and materials, contributing to environmental sustainability efforts.
High-Quality Manufacturing: Produced under strict quality control measures to ensure purity, consistency, and performance.
Scalable Production: Available in bulk quantities, meeting the needs of industrial-scale applications without compromising quality.

References

Electrolytic transport in modified carbon nanotubesS Joseph, RJ Mashl, E Jakobsson, NR Aluru - Nano Letters, 2003 - ACS Publications
Current progress on the chemical modification of carbon nanotubesN Karousis, N Tagmatarchis, D Tasis - Chemical reviews, 2010 - ACS Publications
Improved capacitance characteristics during electrochemical charging of carbon nanotubes modified with polyoxometallate monolayersM Skunik, M Chojak, IA Rutkowska, PJ Kulesza - Electrochimica Acta, 2008 - Elsevier

100mg, 500mg, 1g

72 / 100