1500.C Dual Temperature Zone Furnace with Diameter 100mm Alumina Tube

Introduction

The intelligent dual-temperature-zone furnace offers balanced temperature fields, low surface temperature, rapid heating and cooling rates, and energy efficiency. It is an ideal product for high-temperature atmosphere sintering, atmosphere reduction, CVD experiments, and vacuum annealing, widely used in universities, research institutes, and industrial enterprises. The furnace utilizes a multi-point temperature control method, ensuring uniform temperature inside the furnace, which effectively enhances experimental results.

Features and Benefits of Dual Temperature Zone Furnace

• The furnace tube is made of high-purity alumina material, providing excellent corrosion resistance and high-temperature performance.
• High-purity Al2O3 fiber refractory insulation material offers outstanding insulation effects, effectively reducing power consumption.
• The furnace body adopts a dual-layer air cooling structure, helping to quickly lower the surface temperature of the shell.
• The intelligent PID fuzzy temperature control system is operated via a 7-inch touch screen, providing centralized control and intuitive display of “time-temperature” curves.

Applications

The Dual Temperature Zone Furnace has several key applications across various industries and research fields, including:

• Material Science Research:

  • Sintering: Used for high-temperature sintering of ceramics, metals, and composite materials to enhance mechanical properties.
  • Thermal Treatment: Employed in annealing, tempering, and other heat treatments of materials to modify their microstructure and properties.

  • Chemical Vapor Deposition (CVD):

    • Thin Film Deposition: Ideal for CVD processes to deposit thin films of materials such as silicon, carbon, and metal oxides on substrates.
    • Nanomaterial Synthesis: Utilized in the synthesis of nanomaterials, such as carbon nanotubes, under controlled atmospheres and temperatures.

    • Atmosphere-Controlled Processes:

      • Reduction Atmospheres: Conducting reduction reactions in materials under controlled atmospheres, such as hydrogen or inert gases.
      • Oxidation Studies: Used for oxidation experiments of metals and other materials under precise temperature control.

      • Vacuum Annealing:

        • Stress Relief: Vacuum annealing of materials to relieve internal stresses and improve mechanical properties without oxidation.
        • Purification: Used in the purification of materials by removing volatile impurities at high temperatures in a vacuum.

        • Battery and Energy Research:

          • Electrode Material Processing: Ideal for the high-temperature treatment of electrode materials for lithium-ion batteries and other energy storage devices.
          • Solid-State Electrolyte Synthesis: Used for synthesizing and processing solid-state electrolytes under controlled atmospheres.

          • Glass and Ceramic Processing:

            • Glass Annealing: Used in the annealing process of glass to remove internal stresses and improve durability.
            • Ceramic Firing: Employed for the controlled firing of ceramic materials to achieve desired mechanical and thermal properties.

            • Advanced Manufacturing:

              • Additive Manufacturing Post-Processing: Used for heat treatment of 3D-printed metal and ceramic parts to improve their properties.
              • Composite Material Curing: Applied in the curing process of composite materials, ensuring uniform temperature distribution.

              • Semiconductor Industry:

                • Wafer Processing: Utilized in the processing of semiconductor wafers, such as diffusion and oxidation processes.

                • Research and Development:

                  • Material Testing: Used for various material testing experiments under controlled high-temperature environments.
                  • Prototyping: Ideal for research and development of new materials and processes in laboratory settings.