Copper water cooling jackets: copper chute, slag tap jackets,copper flue etc. cooling elements for metallurgy furnace(AUSMELT, ISAsmelt, Flash furnace, KIVCET, Flash converting furnace, Rich oxygen side-blown and top-blown furnace, Lead & zinc smelting furnace etc.) HZC jackets are produced by forging and machining process. The working life is five to six times longer than by casting process.
2015年6月5日星期五
Copper water cooling jackets: copper chute, slag tap jackets,copper flue etc. cooling elements for metallurgy furnace
Copper water cooling jackets: copper chute, slag tap jackets,copper flue etc. cooling elements for metallurgy furnace(AUSMELT, ISAsmelt, Flash furnace, KIVCET, Flash converting furnace, Rich oxygen side-blown and top-blown furnace, Lead & zinc smelting furnace etc.) HZC jackets are produced by forging and machining process. The working life is five to six times longer than by casting process.
Copper Cold Hearth for Electron Beam Melting (EB)
Cold hearth, copper cooling bed and overflow clip for Furnace EBCHM,EBCHR,PACHM —HZC successfully produced the copper cold hearth core parts of ALD EBCHR furnace, and optimized design of water channels. HZC produced the cooling bed and overflow clip by forging and machining process. Material is pure copper 99.9% . The cold hearth is mainly used for EBCHR, EBCHM, PACHM Furnace to remelting and refining refractory and reactive metals and alloys. EB furnace is mainly employed for the production of refractory and reactive metals (tantalum, niobium, molybdenum, tungsten, vanadium, hafnium, zirconium, titanium) and their alloys.
Electron beam melting is distinguished by its superior refining capacity and offers a high degree of flexibility of the heat source. Thus, it is ideal for remelting and refining of metals and alloys under high vacuum in water-cooled copper molds. Today the process is mainly employed for the production of refractory and reactive metals (tantalum, niobium, molybdenum, tungsten, vanadium, hafnium, zirconium, titanium) and their alloys. It plays an important role in manufacturing of ultra-pure sputtering target materials and electronic alloys and the recycling of titanium scrap.
Electron Beam Cold Hearth Refining (EBCHR)
is of great importance for processing and recycling of reactive metals. The feedstock is drip-melted in the rear part of a watercooled copper hearth from where it overflows into the withdrawal mold. During the dwell time of the molten material in the hearth system gravity separation of highand low-density inclusions (HDI, LDI) can be achieved in addition to the refining mechanisms described above. The hearth must be properly sized to provide sufficient dwell time of the molten metal in the hearth in order to permit efficient gravity separation of HDIs and LDIs. Larger hearth melting systems are equipped with a larger number of EB guns to provide the required power and energy distribution.
Electron beam melting is distinguished by its superior refining capacity and offers a high degree of flexibility of the heat source. Thus, it is ideal for remelting and refining of metals and alloys under high vacuum in water-cooled copper molds. Today the process is mainly employed for the production of refractory and reactive metals (tantalum, niobium, molybdenum, tungsten, vanadium, hafnium, zirconium, titanium) and their alloys. It plays an important role in manufacturing of ultra-pure sputtering target materials and electronic alloys and the recycling of titanium scrap.
Electron Beam Cold Hearth Refining (EBCHR)
is of great importance for processing and recycling of reactive metals. The feedstock is drip-melted in the rear part of a watercooled copper hearth from where it overflows into the withdrawal mold. During the dwell time of the molten material in the hearth system gravity separation of highand low-density inclusions (HDI, LDI) can be achieved in addition to the refining mechanisms described above. The hearth must be properly sized to provide sufficient dwell time of the molten metal in the hearth in order to permit efficient gravity separation of HDIs and LDIs. Larger hearth melting systems are equipped with a larger number of EB guns to provide the required power and energy distribution.
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