NEWS CENTER
NEWS CENTER
NEWS CENTER

12-17

Why Choose Silicon Carbide Header?

Silicon carbide header is a remarkable product that is fabricated through isostatic pressing and high-temperature sintering. It can be assembled with silicon carbide blocks to form a silicon carbide block heat exchanger. The inlet and outlet sizes and sealing methods can be designed according to specific design requirements.

12-10

What are the main features of Silicon carbide heat exchange block?

The Silicon Carbide Heat Exchange Block is an innovative solution crafted using advanced manufacturing techniques such as direct isostatic pressing and pressureless sintering. Its design enables efficient heat transfer between two mediums through the walls of longitudinal and transverse channels, with customizable pore sizes and wall thicknesses. The minimum pore diameter can be as small as 6mm, while the thinnest wall can reach 2.5mm, offering unmatched precision and flexibility.

12-03

What is Silicon carbide tubesheet?

Silicon carbide tubesheet is a remarkable material that plays a crucial role in various industries. These tubesheets are fabricated through isostatic pressing and high-temperature sintering. They can be assembled with silicon carbide heat exchange tubes to form silicon carbide shell and tube heat exchangers, which are primarily utilized in high-temperature, high-pressure, and highly corrosive working conditions. The sealing method can be designed according to the design requirements, and threads can also be machined.

11-27

Silicon Carbide Bundleblock High-Performance Heat Exchangers

The Silicon Carbide (SiC) bundleblock has gained significant attention as an advanced solution in heat exchange systems, particularly for applications involving high temperatures, high pressures, and corrosive environments. A Silicon Carbide bundleblock integrates SiC baffles, tube sheets, and SiC heat exchange tubes into a single, efficient heat exchanger unit. This unique integration of components provides superior durability and efficiency, making it an ideal choice for industrial sectors such as fine chemicals, pharmaceuticals, and environmental engineering.

11-20

Silicon Carbide Grinding Liner Tube High-Demand Applications

In the realm of industrial applications requiring resistance to harsh conditions such as strong corrosion, particle erosion, and high temperatures, the Silicon Carbide Grinding Liner Tube emerges as a superior choice. This innovative solution is fabricated using isostatic pressing and high-temperature sintering techniques, ensuring exceptional durability and performance across various demanding environments.

11-13

Silicon Carbide Sulfuric Acid Atomizing Nozzle Various Applications

This nozzle is fabricated using an isostatic pressing technique and undergoes high-temperature sintering, ensuring durability and longevity even in harsh environments. One of its standout features is the ability to be customized according to customer specifications, including multi-angle drilling, Groove Processing, and precise finishing of internal and external diameters as well as end faces (including curved surfaces). The five-axis machining capability further enhances its versatility, allowing it to cater to complex design needs.

11-06

Silicon carbide slurry atomizing disc/nozzle

Silicon carbide slurry atomizing disc/nozzle play a crucial role in various industries, especially in the fields of technical ceramics and lithium battery materials. These components are fabricated through a series of sophisticated processes, including isostatic pressing, high-temperature sintering, and precise machining of inner and outer diameters, end faces, and planar surfaces. Additionally, surface polishing is carried out to meet the diverse design requirements of users.

10-29

Silicon Carbide Sandblasting Nozzle The Key to Efficient Surface Treatment

Silicon carbide sandblasting nozzles, such as the CORESIC® SP, play a crucial role in various industries. These nozzles are fabricated through isostatic pressing and high-temperature sintering, enabling them to meet the design requirements of users. They can be processed for drilling, groove machining, internal and external diameter, and end face finishing (including the surface).