PUBLIC INFORMATION
At MXeneNanoTech, we specialize in advanced carbon engineering built around the unique capabilities of MXenes, MAX-phase materials, and precision-designed porous carbons. Our mission is to deliver materials with exceptional conductivity, structural stability, and tunable porosity—engineered for demanding applications across the U.S. energy, defense, aerospace, and clean-tech sectors.
Our production platform is designed for scalability, repeatability, and custom performance requirements, ensuring that industries can rely on materials with consistent quality and outstanding technical properties.
Transforming MAX-Phase Carbides Into High-Value Porous Carbons
One of our core capabilities is the conversion of MAX-phase carbides into carbide-derived carbon (CDC) with highly controlled pore architecture. By removing specific metal atoms from the carbide matrix through halogen-based extraction, we create a carbon structure with nanoscale porosity tailored by the original crystal arrangement.
Advantages of Our CDC Approach
Efficient single-step production
Clean, high-purity carbon output
Precise control of micropores and mesopores
Superior uniformity compared to conventional carbonization techniques
MAX-phase materials, known for their layered ordering and metallic–ceramic hybrid nature, serve as excellent templates for predictable and reproducible carbon morphologies.
Advanced Polymer-Derived Carbons for Clean, High-Stability Performance
We also manufacture polymer-derived carbons (PDCs) using a controlled two-stage process: thermal decomposition followed by activation. This pathway produces extremely clean carbons with very low ash content, excellent mechanical robustness, and customizable pore structures.
Through the selection of specific polymer chemistry, we can tailor:
Surface functionalities
Pore distribution
Particle size and geometry
Spherical PDC materials are especially valuable for:
High-flow electrochemical systems
Wear-resistant adsorption modules
Capacitors and hybrid ion devices requiring rapid charge transfer
Activated Carbons Engineered for Industrial and Environmental Systems
For large-scale filtration, purification, and catalytic applications, we produce activated carbons from several commodity feedstocks, including:
Hard fruit shells
Select wood types
Specialized coals
Our Two-Stage Activation Process
1. Carbonization:
Thermal decomposition in an inert environment at 600–900°C to eliminate volatiles.
2. Activation:
Development of micro- and mesopores using agents such as:
CO₂
Steam
KOH
This process yields highly porous carbons with the performance characteristics required for industrial adsorption, water treatment, air purification, and chemical processing.
MXene-Enhanced and Hybrid Nanomaterial Systems
A central area of innovation at MXene NanoTech is the integration of MXene flakes and MAX-phase additives into carbon matrices. These hybrids combine the conductivity and surface reactivity of MXenes with the stability and porosity of engineered carbons.
Benefits include:
Greater charge storage capability
Enhanced catalytic performance
Increased ion accessibility
Tunable hydrophilicity or hydrophobicity
Improved mechanical strength
Such materials are ideal for supercapacitors, sodium-ion and lithium-ion batteries, electrocatalysis, and next-generation environmental technologies.
Custom Material Engineering for Specialized U.S. Applications
We collaborate closely with partners to develop materials optimized for specific performance metrics.
Customization Options Include:
Controlled pore size distribution from sub-nanometer up to >20 nm
Surface areas up to 2,000 m²/g
Pore volumes approaching 1 cm³/g
Multiple product formats:
Nanostructured powders
Spherical particles
Thin coatings
Porous monoliths
Technical fibers
Tailored surface chemistry for selective adsorption or improved wettability
Retained metal, oxide, halogen, or carbide inclusions for enhanced functionality
Why U.S. Companies Work With MXeneNanoTech
Expertise in MXene and MAX-phase material science
Reliable, scalable production suitable for commercial manufacturing
Strong R&D background and custom development services
Ability to deliver high-performance materials for mission-critical sectors
Focus on innovation, purity, and material stability