Graphene Production Laboratory

Technology

Advanced Graphene Production Equipment

We manufacture and supply cutting-edge machinery designed specifically for the scalable production, processing, and analysis of industrial-grade graphene materials.

Pulsed Electrical Carbon Conversion

High-Yield Graphene Conversion Reactor

Advanced pulsed electrical reactor capable of converting 20 grams of carbon feedstock into high-purity turbostratic graphene in 20-second cycles using controlled high-temperature electrical pulses.

Experience the next generation of material synthesis with our automated Pulsed Electrical Resistive Carbon Conversion System. This industrial reactor uses precisely controlled high-temperature electrical pulses to rapidly convert carbon materials into turbostratic few-layer graphene without the use of chemical reagents.

  • Rapid Production: Produces 20 g graphene batches in ~20-second cycles.
  • Chemical-Free: High-temperature electrical conversion without solvents.
  • Energy Efficient: Electrical pulses deliver energy directly to the carbon feedstock.
  • Industrial Scalability: Modular reactor architecture allows parallel operation.
Automated Pulsed Electrical Reactor Graphene Machine
CVD Systems

High-precision Chemical Vapor Deposition (CVD) systems specifically engineered for growing high-quality monolayer graphene on copper and nickel substrates.

Exfoliation Units

Industrial-scale liquid phase exfoliation systems designed for producing high-yield graphene nanoplatelets and conductive inks.

Characterization Suite

Comprehensive analysis tools including Raman Spectroscopy, AFM, and SEM for precise quality control and material verification.

Transfer Systems

Automated polymer-assisted transfer systems for clean, damage-free deposition of graphene onto arbitrary substrates.

Pulsed Electrical resistive carbon conversion system

A scalable pulsed electrical carbon conversion technology that transforms carbon feedstocks into turbostratic graphene using rapid high-temperature electrical pulses in modular reactors.