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Machined Graphite Parts

Machined Graphite Parts

Machined graphite parts are a general term for customized graphite components formed through precise CNC machining processes such as turning, milling, drilling, and grinding, using various graphite blanks as the base material. They have excellent high-temperature resistance, stable electrical heating properties, good chemical inertness, and flexible processing capabilities. As a type of graphite finished components with specifications, you can customize them as needed, which are suitable for a wide range of scenarios. They are highly suitable for non-standardized and high-precision high-temperature working conditions, which performs exceptionally well. You can use it in industrial equipment such as photovoltaic ingot heat fields, powder metallurgy sintering fixtures, and etc.

Advantages of machined graphite parts

You can manufacture them into cylindrical, block-shaped, disc-shaped, and various complex-shaped and irregular structures according to the drawings.

Excellent high-temperature thermal stability

It can withstand temperatures above 2000℃ for a long time in vacuum and inert atmosphere environments.

 

Inert chemical properties

The machined graphite parts not prone to react with most molten materials, acids, or alkalis.

 

Wide substrate selection range

You can adjust the purity and density indicators as needed, making the compatibility between the components even better.

 

Flexible processing and shaping

It can realize the complex holes, grooves, and step structures and the assembly accuracy is controllable, with a considerable overall service life.

 

Balanced and stable thermal and electrical conductivity properties

Because of these, it has uniform the temperature distribution within the heat.

 

Uses of machined graphite parts

Semiconductor field

High-temperature heat field accessories

You can process them into crucibles, insulation components, and supporting structures, and use them in the preparation equipment for semiconductor silicon carbide and single-crystal silicon. It has high temperature resistance and high purity, which ensures a stable and clean crystal growth environment and improving the yield of wafer products.

 

Photovoltaic energy field

Internal components of ingot furnaces

Because of the uniform heat conduction, you can refine them into the complete set of graphite accessories for the thermal system in the polycrystalline silicon ingot production line. It ensures the stability and controllability of the melting and crystallization process of silicon materials, improving the overall quality of the silicon ingot.

 

Powder metallurgy field

Sintering tooling fixtures

As special non-standard tooling such as tray plates, graphite molds, and partitions, it has high dimensional accuracy. And it is resistant to deformation at high temperatures, which ensures the shape accuracy of the sintered workpieces meets the standards.

 

Chemische industrie

Corrosion-resistant graphite components

After impregnation modification, you can process them into heat exchangers, liners, and guide plates, which has excellent acid and alkali corrosion resistance. It can work in strong corrosive conditions for a long time, and reduce the frequency of equipment consumables replacement.

 

Nieuw energieveld

Heat treatment assembly accessories

You can process them into various graphite material boats, supports, and partitions in lithium battery negative electrode and carbon fiber graphitization production lines. With high temperature resistance and no powder shedding, it is suitable for continuous large-scale heat treatment production.

 

Electrical discharge machining field

Forming graphite electrodes

After precisely engraving, you can process them into obtain electrical discharge electrodes, used for the processing of various injection molds and die-casting mold cavities. Because of the low processing loss, it is better forming efficiency than traditional copper electrodes.

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