describe
The 1700°C digital lifting high-temperature stirring electric furnace features precise temperature control, automated lifting operation, and efficient stirring performance for uniform heating in advanced material processing applications.
Product Features
Stirring device
- The furnace adopts a top-mounted insertion structure equipped with a high-temperature ceramic stirring rod, ensuring stable operation and excellent resistance to thermal corrosion. Driven by a variable frequency motor, the stirring speed is continuously adjustable from 0–30 r/min, allowing flexible control for different material processing requirements.
- The stirring shaft supports bidirectional clockwise and counterclockwise rotation, enhancing mixing uniformity and improving thermal consistency inside the furnace. In addition, the system enables simultaneous ±5 cm vertical reciprocating movement during stirring, promoting more effective material circulation and reducing localized temperature variation.
- This advanced stirring design improves reaction efficiency, ensures uniform heat distribution, and supports precise processing performance, making it ideal for high-temperature material synthesis, melting, and laboratory research applications.
control
- The system adopts advanced closed-loop control technology combined with thyristor module phase-shift triggering, enabling continuous adjustment of voltage, current, and power output. It supports constant voltage, constant current, and constant power operating modes, ensuring precise thermal regulation for demanding industrial processes.
- A dual-loop control architecture is utilized, with the current loop serving as the inner control loop and the voltage loop acting as the outer loop. This coordinated regulation structure provides rapid response to load variations and maintains stable operating conditions even during sudden load changes.
- When excessive load or overcurrent conditions occur, the system automatically limits the output current within the rated range, protecting both the voltage regulator and heating elements from electrical surges. At the same time, the voltage loop dynamically participates in regulation, maintaining stable output with sufficient adjustment margin.
- This intelligent control design improves operational safety, enhances heating accuracy, reduces component stress, and extends equipment lifespan, delivering reliable and precise performance for advanced high-temperature applications.
Applications of 1700°C Digital Lifting High-Temperature Stirring Electric Furnace
- The 1700°C digital lifting high-temperature stirring electric furnace is widely used in advanced material research, high-temperature synthesis, and precision thermal processing applications. Its integrated stirring system ensures uniform mixing and temperature distribution, making it ideal for processing molten metals, ceramic materials, glass compounds, and special alloys.
- This furnace is suitable for universities, research laboratories, and industrial R&D centers engaged in powder metallurgy, crystal growth, rare earth material preparation, and functional material development. The lifting structure improves operational convenience and supports safe handling during high-temperature experiments.
- It is also commonly applied in chemical reaction studies, electrode material preparation, battery research, and high-temperature homogenization processes requiring accurate thermal control and continuous stirring performance.
Why Choose Us
- With years of experience in high-temperature furnace manufacturing, we provide reliable thermal solutions designed for efficiency, precision, and long-term performance. Our furnaces feature advanced temperature control, energy-saving insulation systems, and durable construction for demanding industrial and laboratory applications.
- We support customized designs, strict quality control, and professional technical assistance to meet diverse processing requirements. From research laboratories to large-scale industrial production, our solutions help improve productivity, reduce energy consumption, and ensure stable operational performance worldwide.
