High Purity Single Walled and Multi Walled Carbon Nanotubes for Advanced Battery and Nanotechnology Research

Product Overview

These premium-grade single-walled and multi-walled carbon nanotubes deliver industry-leading structural integrity, nanoscale electrical conductivity, and exceptional thermal transport. Engineered to achieve an ultra-high chemical purity of ≥99.7%, these carbon nanomaterials serve as advanced functional additives and primary building blocks for cutting-edge materials engineering. By providing an uninterrupted one-dimensional conductive highway and immense specific surface interaction, the nanomaterials drastically decrease internal resistance and enhance electron mobility across demanding host matrices.

Designed primarily for advanced lithium-ion and next-generation solid-state battery R&D, structural nanocomposites, microelectronics, and electrochemical energy storage, these nanotubes offer versatile compatibility across diverse processing workflows. Whether integrated into active electrode slurries to build resilient 3D percolation pathways or blended into high-performance polymers and ceramics, they provide vital reinforcement against mechanical fracture and structural degradation during cyclic stress.

Synthesized under rigorous quality standards, each batch exhibits tightly controlled diameter and length distributions, minimal amorphous carbon impurities, and consistent graphitic crystallization. Researchers and industrial manufacturers can depend on these high-purity nanotubes to deliver repeatable rheological behavior, superior dispersion stability, and robust mechanical reinforcement across mission-critical laboratory and industrial production environments.

Key Features

• Ultra-High Chemical Purity (≥99.7%): Minimizes amorphous carbon residues, catalytic metallic particles, and surface contaminants, ensuring maximum electrochemical stability and baseline reproducibility in sensitive battery chemistry and electronic devices.
• Extreme Mechanical Tensile Strength: Delivers an extraordinary tensile strength of up to 800 GPa for single-walled configurations and 50 to 200 GPa for multi-walled variants, providing unmatched structural reinforcement and crack-bridging capability within composite matrices.
• Controlled Nanoscale Diameters: Formulated with precise radial dimensions ranging from 0.75 to 3 nm for single-walled tubes and 2 to 30 nm for multi-walled tubes, enabling optimal aspect ratios and rapid electrical percolation at exceptionally low additive loadings.
• High-Aspect-Ratio Length Distribution: Extended tube lengths up to 50 µm facilitate continuous, long-range conductive networks across electrode layers and bulk substrates, effectively bypassing inter-particle contact resistance.
• Exceptional Thermal and Electrical Transport: Ballistic and quasi-ballistic electron transport properties combined with high thermal conductivity mitigate localized hot spots and facilitate rapid heat dissipation in high-power energy storage systems.
• Ordered Graphitic Crystallinity: Multi-walled variants feature precise interlayer spacing of 0.34 ± 0.01 nm across 2 to 50 concentric graphene cylinders, ensuring chemical stability, high shear resistance, and exceptional current-carrying capacity under heavy cyclic loading.
• Convenient Laboratory Packaging: Standardized packaging of 1g per sealed bottle preserves nanostructural morphology, prevents moisture accumulation, and ensures safe, contamination-free handling during benchtop formulation and pilot-scale trials.
• Versatile Dispersion Compatibility: Compatible with standard high-shear mixing, planetary centrifugal blending, and ultrasonic cavitation protocols, allowing seamless integration into solvent-borne and aqueous slurry formulations.

Applications

Technical Specifications

Why Choose This Product

• Uncompromising Chemical Purity: Guaranteed ≥99.7% carbon purity eliminates parasitic chemical reactions in battery electrolytes and guarantees consistent, predictable behavior in high-sensitivity physical research.
• Engineered for High-Stress Processing: Outstanding mechanical resilience allows these nanotubes to withstand intense mechanical shear during slurry mixing and high uniaxial compaction forces during precision electrode calendering.
• Optimized Aspect Ratios: Tightly controlled dimensional properties ensure rapid formation of interconnected conductive networks at minimal mass loadings, preserving active material energy density in cell fabrication.
• Full-Workflow Synergy: Supported by our comprehensive laboratory portfolio—including precision slurry mixers, automatic film coaters, and high-pressure electric or heated rolling presses—ensuring optimal dispersion, uniform coating, and ideal packing density.
• Rigorous Batch Traceability: Every container is produced under strict quality management protocols, providing dependable lot-to-lot consistency critical for academic publications, patent filings, and industrial scale-up.

Contact our technical materials team today to request a quotation, discuss custom packaging requirements, or explore integrated processing equipment solutions for your research workflow.

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