The 3rd Advanced Nanomaterials Preparation and Application Technology Exchange Conference successfully concluded in Guiyang, where it was held from September 18 to 20. This technical event brought together top universities such as BeiHang University and Guizhou University, as well as national-level engineering research centers, and showcased cutting-edge research achievements and industrialization efforts in China’s nanomaterials field.

The Zhuzhou ChiCarbon technical team participated throughout the conference and held in-depth discussions with attending experts, scholars, and corporate representatives on controllable preparation, performance regulation, and engineering applications of nanomaterials.

Going to the Front Line: We Came with Questions

The industrialization of nanomaterials has never been just about a successful synthesis in the laboratory. From powder to finished product, there are a series of high-temperature heat treatment processes in between, including sintering, graphitization, purification, and carbonization. How should the temperature curve be set? How should the atmosphere be controlled? How can temperature field uniformity be ensured? These seemingly “equipment-level” issues often directly determine whether nanomaterials can scale from gram level to kilogram level and move from the laboratory to the production line.

Carrying these real process pain points from customer sites, the Zhuzhou ChiCarbon technical team conducted dedicated exchanges with research teams from multiple universities and R&D personnel from nanomaterial companies during the conference. Typical problems in nanomaterial preparation—such as “difficulty in ensuring batch stability,” “easy introduction of impurities during high-temperature processing,” and “abnormal grain growth”—are exactly the areas ChiCarbon continues to tackle in its thermal equipment design.

Driving Iteration Through Exchange, Making Equipment Truly “Understand Materials”

Zhuzhou ChiCarbon has always believed that good thermal equipment must come from materials processes and return to materials processes.

At this conference, the team focused on learning about the latest research progress in carbon nanotube purification, structural regulation of porous carbon, stability of silicon-carbon precursors, and other areas. This feedback from the front lines of research is being translated into concrete directions for product iteration—from furnace chamber structure optimization to atmosphere circulation design, and from improved temperature control accuracy to rapid cooling system enhancements.

Our technical team has an average age of under 35. Being young means faster response and a stronger willingness to learn. Every exchange that takes us deep into the materials front line is a “make-up lesson”: bridging the gap between “equipment manufacturing” and “process understanding.”

Focused on High-Temperature Thermal Equipment for Nanomaterials, Growing Continuously

Zhuzhou ChiCarbon is deeply engaged in the field of ultra-high-temperature thermal equipment, and its product line covers multiple key stages of nanomaterial preparation and purification:

High-Temperature Graphitization Furnace: Designed for high-temperature graphitization and physical purification of carbon nanotubes, graphene, thermally conductive films, and other materials. Its maximum operating temperature can reach over 2,800°C. With an IGBT power supply, it saves approximately 15% energy compared with conventional solutions.

High-Temperature Purification Furnace: For new materials such as carbon nanotubes, porous carbon, and silicon-carbon precursors, it uses a high-temperature physical composite purification process. The multi-channel closed purification gas circuit design reduces purification dead zones and secondary contamination.

Ultra-High-Temperature Sintering Furnace: Used for densification sintering in fields such as nanomaterials, special ceramics, powder metallurgy, and cemented carbides. The maximum temperature is 2,200°C, with temperature uniformity controlled within ±5–±15°C. High-temperature sintering in a vacuum-sealed environment prevents oxidation and ensures stable material microstructure.

Every industry exchange is a transformation. With one solid step after another, Zhuzhou ChiCarbon is proving that growth comes from a continuous understanding of materials processes.

Empowering Nanomaterial Upgrades—Zhuzhou ChiCarbon Keeps Growing.