A high-temperature furnace is an indispensable piece of equipment in all types of laboratories.

High-temperature furnaces are equipment used in industrial and mining enterprises, research institutions, and laboratories for heating and heat treatment. They are primarily employed in these settings for heating and heat treatment processes and are indispensable instruments in various types of laboratories. Product Features: Natural air-insulated design, lightweight and easy to move. Rapid heating rate: temperature can be freely set between 0 and 30°C per minute. Dual-sided radiant heating inside the furnace ensures uniform temperature distribution. Thermal insulation: triple-layer insulation consisting of imported high-temperature ceramic wool, ceramic plates, and rock wool. Heating elements: durable, stable heating performance, and fast heating speed. The interior is lined with high-temperature ceramic plates that resist deformation, while the exterior features galvanized steel with a high-temperature baked enamel coating for an attractive appearance and resistance to paint chipping. Technical Specifications: Available models include 1000°C, 1200°C, and 1300°C, with a maximum operating temperature of up to 1600°C. Customized special specifications can also be provided based on customer requirements. Equipment Characteristics: Fast heating: For the 1000°C model, the temperature can be raised from 100°C to 1000°C in less than 30 minutes; for the 1700°C model, it takes less than 90 minutes to reach 1700°C. High efficiency: When used as an experimental furnace, intake and exhaust vents can be opened and a chimney installed to facilitate the supply of fresh oxygen, thereby accelerating the experimental process. Thanks to the use of a new-type ceramic fiber furnace chamber, thermal insulation is excellent. Even after heating to 1000°C and maintaining that temperature for one hour, the outer surface remains cool to the touch, preventing burns (approximately 45–55°C depending on the operating environment). Significantly reduces sintering temperatures by up to 500°C; Greatly lowers energy consumption, achieving energy savings of 70–90%; Shortens sintering time by more than 50%; Substantially improves microstructural density, refines grain size, and enhances material properties.

2024-03-27

High-temperature furnaces are equipment used in industrial and mining enterprises, research institutions, and laboratory testing facilities for heating and heat treatment. They are primarily employed in these settings for heating and heat treatment processes and are indispensable instruments in all types of laboratories.

Product Features:
Natural air insulation design; lightweight and easy to carry.
Rapid heating rate, freely adjustable from 0 to 30°C/min.
The furnace employs dual-sided radiant heating, ensuring uniform temperature distribution.
Thermal Insulation: Triple insulation consisting of imported high-temperature-resistant ceramic wool, ceramic panels, and rock wool.
Heater: A durable heater that provides stable temperature rise and rapid heating.
The interior is lined with high-temperature-resistant ceramic panels that are resistant to deformation, while the exterior features galvanized steel with a high-temperature baked finish for a sleek, durable appearance that resists chipping.

Parameter requirements:
Available specifications include 1000°C, 1200°C, and 1300°C, with a maximum of up to 1600°C.
Special-specification electric furnaces can also be customized according to customer requirements.
Equipment Features
Rapid heating: The 1000°C furnace model heats from 100°C to 1000°C in less than 30 minutes.
Heat the 1700°C furnace to 1700°C in less than 90 minutes.
High efficiency: When used as a laboratory furnace, inlet and outlet air ports can be opened and a chimney installed, facilitating the supply of fresh oxygen and accelerating the experimental process.
Thanks to the use of a new-type ceramic-fiber furnace chamber, heat retention is excellent: the temperature can be raised to 1000°C and maintained for one hour, yet the outer casing remains cool to the touch, effectively preventing burns (approximately 45–55°C, depending on the operating environment).
It can significantly reduce the sintering temperature, with a maximum reduction of up to 500°C.
Significantly reduces energy consumption, with energy savings of up to 70–90%;
Sintering time can be reduced by more than 50%;
Significantly enhances organizational density, refines grain size, and improves material properties.