Carbide, Hydroxide, Or Crystal Water-Containing Material Pyrolysis Furnace.

• Customization: Available
• Certification: CE, ISO
• Place Style: Vertical
• Model NO.: not defined
• Range of Applications: Industrial
• Type: Calcination Furnace
• Usage: Material Calcining
• Fuel: Gas
• Suitable Material: Carbides, Hydroxides
• Main Heating Method: Dynamic Heating
• Product: Magnesium Oxide, Zinc Oxide, Nickel Oxide, Kaolin
• Effect of Pyrolysis: Even and Sufficient Decomposition
• Transport Package: Suitable for Shipping
• Specification: variable
• Trademark: DONGDA POWDER ENGINEERING
• Origin: Benxi, China

Product Description

Brief introduction:

     By heating, materials such as carbide, hydroxide, or materials containing crystal water undergo pyrolysis to form new products.

Suitable material:

     Carbides, hydroxides such as magnesium carbonate, zinc carbonate, magnesium hydroxide, and calcium

hydroxide are heated to form magnesium oxide, calcium oxide, and zinc oxide. The dihydrate gypsum is

heated to remove the crystal water and transforms into hemi-hydrate gypsum or anhydrite. Magnesium

chloride hexahydrate decomposes into magnesium dihydrate and anhydrous magnesium upon heating.

These reactions occur through the process of heating.

Performance & features:

    The heating methods depend on the state of material in the heating chamber, and dynamic heating is one

of the main methods. It involves mixing wet material (through desiccation) or dry material with

combusted gas, and completing pyrolysis in a flow motion. The above-mentioned heating method is used for

the dynamic pyrolysis furnace. The gas suspension pyrolysis furnace is a modernized version that achieves

this type of decomposition, with its main features including even and sufficient decomposition, good activity

and dispersity of decomposed material, no dust leakage in the system, high degree of automation, and

significant energy saving.

Applied production:

     Magnesium oxide, zinc oxide, nickel oxide, kaolin and anhydrite. 

Pictures at application sites: