The 1700 degree powder sintering furnace is a professional equipment used for high-temperature sintering of powder materials, with a working temperature of up to 1700 ℃. It is widely used in the preparation of materials in the fields of ceramics, metal powder metallurgy, hard alloys, magnetic materials, etc. Let's take a detailed look below!

A commonly used 1700 degree touchscreen powder sintering furnace (click on the image to view product details)

1. Equipment features
high temperature performance
The 1700 degree sintering furnace uses high-temperature refractory materials (such as alumina fibers, graphite, etc.) as the furnace lining, combined with high-performance heating elements (such as silicon molybdenum rods, graphite heating elements, etc.), to ensure stable operation in high-temperature environments.
The furnace structure usually adopts a double-layer design, with the inner layer being a high-temperature refractory layer and the outer layer being an insulation layer, effectively reducing heat loss and improving energy efficiency.

temperature control accuracy
Equipped with a high-precision temperature control system (such as a PID controller), it can achieve precise temperature control, with temperature fluctuations typically within ± 1 ℃.
Using thermocouples or infrared thermometers to monitor the temperature inside the furnace in real time, ensuring the stability and consistency of the sintering process.

atmosphere control
The device supports multiple atmosphere environments (such as air, nitrogen, argon, vacuum, etc.), and can choose the appropriate atmosphere according to the material sintering requirements to prevent material oxidation or achieve special sintering processes.
Some high-end equipment is equipped with an atmosphere circulation system to ensure the uniformity of the atmosphere inside the furnace.

safety performance
The furnace body is designed with multiple safety devices such as over temperature protection, leakage protection, and overvoltage protection to ensure the safety of operators and equipment.
Some devices are equipped with emergency cooling systems that can quickly cool down in case of abnormal situations.

Convenience of operation
Adopting touch screen or PLC control system, the operation interface is friendly, and multiple temperature rise curves can be preset to achieve automated sintering process.
The device supports data recording and export functions, facilitating process optimization and quality control.

2. Application Fields
ceramic materials
Used for sintering high-performance ceramics such as alumina, zirconia, and silicon nitride to prepare high-density and high-strength ceramic products.
Metal Powder Metallurgy
Used for sintering metal powders such as iron-based, copper based, titanium based, etc., to prepare high-precision and high-performance metal parts.
hard metal
Used for sintering hard alloys such as tungsten cobalt alloy and tungsten titanium cobalt alloy, preparing high hardness and high wear resistance cutting tools and molds.
magnetic material
Used for sintering rare earth permanent magnet materials such as neodymium iron boron and samarium cobalt to prepare high-performance magnets.
New energy materials
Used for sintering new energy materials such as lithium battery cathode materials and fuel cell catalysts to improve material performance.

3. Precautions for use
Operation training: Operators need to receive professional training, familiarize themselves with equipment performance, operating procedures, and safety precautions, and strictly follow the operation manual.
Preheating and Cooling: Preheat according to the prescribed heating curve before use, cool down according to the prescribed cooling curve after use, avoid rapid cooling and heating, and prevent equipment damage.
Atmosphere control: If working in a protective atmosphere, ensure the purity of the atmosphere and stable flow rate to prevent sample oxidation or other adverse reactions.
Sample placement: The sample should be placed in a suitable position in the furnace, avoiding direct contact with heating elements or furnace walls. A certain distance should be maintained between the samples to ensure the circulation of hot air.
Regular maintenance: Regularly maintain the equipment, including cleaning furnace debris, inspecting heating elements, calibrating temperature control systems, etc., to ensure the normal operation of the equipment.

4. Selection suggestions
Clarify the requirements for sintering materials and processes
The sintering temperature, atmosphere, and heating curve of different materials are different, and suitable equipment should be selected according to the specific process.
Consider furnace size and production capacity
Select the appropriate furnace size based on sample size and batch requirements to ensure sintering efficiency and product quality.
Pay attention to temperature uniformity and control accuracy
High precision temperature control can reduce sintering defects and improve product consistency.
Evaluate equipment stability and durability
Choose equipment that uses high-quality heating elements and refractory materials to ensure long-term stable operation.
After sales service and technical support
Choose suppliers with good after-sales service and technical support capabilities to facilitate equipment maintenance and process optimization.

Customized 1700 degree atmosphere powder sintering furnace with upper door (click on the picture to view product details)

5. Summary
As a commonly used sintering heat treatment equipment, the 1700 degree powder sintering furnace is favored by industrial and mining enterprises, university laboratories, and enterprise laboratories. Before choosing, it is recommended to communicate the requirements with relevant technical personnel or business managers in order to produce a sintering furnace that suits your needs!Click to learn more Atmosphere Furnaces! Or click on online customer service to learn more about product information!