Zibo Jinpeng Composite Material Technology Co., Ltd

 

Isostatic graphite heating elements are graphite heating elements manufactured by utilizing the high volume density and high purity characteristics of isostatically pressed graphite materials. The isostatic pressing process applies equal pressure on all sides of the graphite block, resulting in a denser, more uniform graphite material. Good heat resistance;

Compared with ordinary graphite, it has good uniformity and fine and dense structure;

Low thermal expansion coefficient and good thermal shock resistance;

 

 

The high-purity graphite used in the production of isostatically pressed graphite heating elements allows precise control of temperature and heating rate. This makes them ideal for a wide range of applications, including laboratory equipment, industrial furnaces and machine building.

 

Isostatically pressed graphite heating elements offer high durability and resistance to extreme temperatures, providing an efficient and reliable solution for heating applications. These heating elements are designed to withstand high temperatures, making them suitable for use in high-temperature environments such as furnaces and kilns.

 

Additionally, isostatic graphite heating elements are very stable and will not react with most chemicals or gases. This makes them ideal for chemical applications, where they can provide precise and consistent heating without contaminating the material being processed.

 

In addition, isostatically pressed graphite heating elements are lightweight compared to metal, making them easy to transport and install in various electric furnaces. Because they heat quickly and require less energy to maintain the desired temperature, isostatically pressed graphite heating elements are more energy efficient.

 

In summary, isostatically pressed graphite heating elements offer high performance, durability, stability and efficiency. With its many advantages, it is an ideal choice for customers looking for reliable and efficient heating solutions.

 

 

Isostatic graphite material molding is a widely used technology that can produce graphite products with excellent mechanical strength, high temperature resistance, and corrosion resistance. The process flow of isostatic graphite material molding involves several key steps, as described below.

 

1. Raw material selection: The first step in the graphite material molding process is to select suitable raw materials. High-quality natural graphite flakes or synthetic graphite particles are often used for this purpose.

 

2. Mixing: After the raw materials are selected, they are mixed with the binder in a predetermined proportion. The binder can consist of phenolic resin, asphalt, or other organic materials.

 

3. Molding: Then put the mixed graphite material into the mold and apply high pressure to the mold. Pressure can be generated using hydraulic presses, pneumatic presses, or other devices. Maintain pressure until the mixed material reaches the desired density and shape.

4. Curing: Put the formed graphite material into the oven and solidify at a specific temperature and time to harden and solidify the binder. The curing process is critical to ensuring the structural stability of the finished product.

 

5. Mechanical processing: After solidification, the formed graphite material is machined into the required shape and size. This step requires precision instruments and skilled technicians to achieve the required product specifications.

 

6. Quality Control: The final product undergoes multiple quality control checks before it is approved for use. These checks ensure that the product has adequate strength, density and other mechanical properties.

 

7. Final packaging: After the product passes the quality control inspection, it is packaged and shipped to the designated location.

In summary, isostatic graphite material molding is a critical process that requires careful attention to detail at each stage to ensure that the finished product is of high quality and meets customer requirements. The above process flow provides guidance for manufacturers to use this technology to produce high-quality graphite products.

 

 

The graphite heating elements produced by Zibo Jinpeng Composite Materials Technology Co., Ltd. are made of specially customized graphite materials and are specially designed for vacuum high-temperature industrial furnace applications that convert electrical energy into thermal energy. Zibo Jinpeng graphite material has low thermal expansion coefficient, excellent oxidation resistance and can be customized for production

 

First of all, graphite has a high melting point and can withstand temperatures up to 3000°C, making it very suitable for use in high temperature environments. Secondly, graphite is a good conductor of heat and electricity, ensuring that heat is evenly distributed throughout the furnace. This helps prevent hot and cold spots from forming, which reduces the potential for damage to furnace walls and other components.

 

In addition to their temperature control capabilities, graphite heating elements are also highly resistant to corrosion and chemical attack. This is due in part to their non-reactive nature, which makes them ideal for use in processes involving corrosive substances. Furthermore, graphite heating elements are highly durable and have a long service life, reducing the need for frequent replacement and downtime.

Overall, the unique characteristics and functions of graphite heating elements make them indispensable in high-temperature industrial furnaces. Their ability to withstand extreme temperatures, distribute heat evenly, provide precise temperature control, resist corrosion and chemical attack, and be highly durable and long-lasting make them a valuable asset in many industries.

 

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