SGR Type SiC Heating Elements

SGR Type SiC Heating Elements

The main advantages of double threaded silicon carbide rods include the following aspects:

Unique structural design: The double threaded silicon carbide rod has been improved on the basis of ordinary silicon carbide rod, and its structural design is more unique. The two ends of the double threaded silicon carbide rod are respectively equipped with two threads, which can be easily fixed on the equipment, making it more stable and less likely to fall off.

High heating efficiency: Multiple high-temperature alloy wires are used inside the double threaded silicon carbon rod, resulting in higher heating efficiency, rapid temperature rise, and uniform heating.

Long service life: The double threaded silicon carbon rod is made of high-quality silicon and carbon, which has high temperature resistance and corrosion resistance. It has a long service life and can greatly reduce the frequency of maintenance and replacement, saving labor, material and financial costs.

Large surface area, fast heating: Double threaded silicon carbon rods have a large surface area, a large heating area, fast heating, improved efficiency, and energy saving.

Good chemical stability: Double threaded silicon carbon rods can be used normally at a temperature of 1450 ℃ in an oxidizing atmosphere, and can be used continuously for up to 2000 hours. They also have good chemical stability, high temperature resistance, oxidation resistance, and corrosion resistance.

Enhanced heat dissipation: The double threaded structure not only increases the surface area of the silicon carbide rod, improves thermal radiation and convection efficiency, but also promotes air flow through the small gaps between the threads, effectively reducing the working temperature of the silicon carbide rod and extending its service life.

Easy installation and maintenance: The installation and maintenance of double threaded silicon carbon rods require professional technicians to operate, but their design simplifies the installation process, ensures more even heat distribution, and effectively avoids material deformation or damage caused by local overheating or excessive temperature gradients.