High Temperature Resistance Non-ferrous SiC Carbide Graphite Crucible With Pouring Nozzle For Metal Casting And Melting

Silicon Carbide Graphite Crucible With Pouring Nozzle

The standout feature of this crucible is its innovative design, which includes a convenient pouring nozzle for easy and precise pouring of molten materials. The pouring nozzle is customizable, allowing users to adjust the size according to their specific needs. This feature makes the crucible ideal for use in Pouring Nozzle Furnaces, providing a seamless and efficient melting process.

Designed for durability, this crucible boasts strong chemical resistance, ensuring its longevity and reliability even when exposed to harsh chemicals. Its robust construction allows for repeated use without compromising its performance, making it a cost-effective solution for various melting applications.

One of the key advantages of this crucible is its high temperature resistance, capable of withstanding temperatures of up to 1600°C. This makes it an ideal choice for applications that require extreme heat, such as melting aluminum and other high-temperature processes. The crucible's ability to maintain its structural integrity at high temperatures ensures consistent performance and reliable results.

Whether you are working in a foundry, laboratory, or industrial setting, this Crucible With Pouring Nozzle is a versatile and essential tool that can enhance your melting processes. Its combination of graphite purity, innovative design with a pouring nozzle, strong chemical resistance, and high temperature resistance make it a valuable asset for any melting operation.

The integrated pouring nozzle transforms a standard crucible into a unified pouring system, enhancing metallurgical quality through controlled metal transfer while reducing operator exposure to molten metal. Built to endure the thermal and mechanical stresses of industrial foundries, it delivers unmatched reliability for high-volume non-ferrous melting and casting.

• Aluminum foundries (casting, recycling)
• Copper & brass foundries
• Precious metal melting (gold, silver)
• Zinc alloy die-casting
• Jewelry manufacturing
• Metal recycling operations
• Research & development labs

Qingdao Baidun Special Ceramics Technology Co., LTD.(Qingdao Baidun) is located in the SCO Demonstration Area,Qinadao,China, Qinadao Baidun and it's subsidiaries specializes in the manufacture of crucibles for non-ferrous metal smelting, refractory products for continuous casting and alumina grinding ball. lt has a registered capital of 100milion RMB and covers an area of 100,000㎡. Qinadao Baidun has two brands, "Baidun"and "J&J" .which are respectively for Chinese and overseas markets, Qingdao Baidun is one of the largest crucible manufacturers in China that uses isostatic pressing technology to produce silicon carbide graphite crucibles and clay graphite crucibles. With many years ofresearch and field tests, the technical team of Qinadao Baidun has made sianificant efforts tosolve various technical problems and developed silicon carbide graphite crucibles and clay graphite crucibles which have characteristics of high oxidation resistance,high thermal conductivity, long service life, and low energy consumption, increasing production efficiency and significantly reducing production costs for non-ferrous metal smelting companies, Third-party professional institutions have selected Qinadao Baidun as the champion crucible brandin Chinese die-casting industry for many years since 2016.

J&J/Baidun Crucible is a top-quality product made in China, known for its high temperature resistance, chemical resistance, and durability. Composed of high pure materials such as SiC and clay, this crucible is designed for laboratory applications requiring reliable performance under extreme conditions.

Packing: Use professional export packaging, wooden box or wooden box packaging, cardboard, carton, ton bag, or packaging according to customer requirements.

Delivery time: 10-45 days after confirming the order, the specific delivery date should be determined according to the and order quantity.