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야금 형석

품질 플루오스파르 덩어리 및 미세한 플루오리트 분말 ≥65% CaF2 철강 제조에 이상적입니다. 공장
Metallurgical Fluorspar Lump & Powder, CaF₂ ≥ 65% | Slag Conditioner for Smelting Product Introduction We supply metallurgical fluorspar with CaF₂ content over 65%, available in lump and powder forms. It is widely used in steel casting and non-ferrous metal smelting. The raw materials go through multiple sorting and impurity removal processes to ensure even composition and controlled harmful substances. In high-temperature smelting, it effectively adjusts slag properties and
품질 가공 가능한 금속 플루오르스파르 덩어리 및 분말 CaF2 ≥65% 공장
Metallurgical Fluorspar Lumps & Powder | CaF₂ ≥ 65% for Smelting Flux Product Introduction We supply metallurgical grade fluorspar in both lump and powder forms with CaF₂ content above 65%. As an essential flux material, it is widely used in iron, steel and non-ferrous metal smelting. With well-controlled impurities, it effectively reduces slag melting point and improves fluidity, while minimizing wear on furnace linings. It is fully applicable to blast furnaces, converters,
품질 낮은 불순물 금속 플루오르스파르 ≥65% CaF2 블록 및 분말 공장
Metallurgical Grade Fluorspar Lump & Concentrate ≥65% CaF₂ | Cost-Effective Flux for Steelmaking 2. Product Introduction Our metallurgical grade fluorspar is available in both lump and concentrate forms, serving as an essential fluxing agent for steelmaking and non-ferrous metal processing. Sourced from natural fluorspar ore, it is processed through crushing, screening or flotation to deliver a stable CaF₂ content of ≥65%, with strictly controlled impurities including SiO₂, S
품질 안정적인 플럭스 성능 금속 등급 형석 광석 ≥65% CaF² 공장
Metallurgical Fluorspar ≥65% CaF₂ | Lump & Powder for Steelmaking & Foundry 2. Product Introduction Metallurgical grade fluorspar is a fundamental industrial flux material, available in both lump ore and fine powder forms. It is produced from carefully selected fluorspar ore, processed through crushing, screening, and optional grinding to meet the standard requirement of CaF₂ ≥65%. The product is designed to perform reliably in high-temperature metallurgical environments,
품질 금속공학류의 플루오리트 덩어리 CaF2>70% 몽골 광석 플루오스파르 광산 공장
Fluorite, chemically calcium fluoride (CaF₂), is a typical halide mineral and the primary global feedstock for fluorine supply across fluorochemical, metallurgical, glass and ceramic industries. It forms endogenously from magmatic hydrothermal activity. During magma cooling, magma-separated hydrothermal fluids are rich in fluoride constituents. As these fluids migrate upward through rock fractures, gradual drops in temperature and pressure trigger a chemical reaction:
품질 금속공학 플루오르스파르 덩어리 CaF2 85% 플루오리트 미네랄 곡물 공장
Fluorite, chemically calcium fluoride (CaF₂), is a typical halide mineral and the primary global feedstock for fluorine supply across fluorochemical, metallurgical, glass and ceramic industries. It forms endogenously from magmatic hydrothermal activity. During magma cooling, magma-separated hydrothermal fluids are rich in fluoride constituents. As these fluids migrate upward through rock fractures, gradual drops in temperature and pressure trigger a chemical reaction:
품질 고분류 금속공학분류 플루오스파르 덩어리 CaF2 80% 플루오리트 바위 공장
Fluorite, chemically calcium fluoride (CaF₂), is a typical halide mineral and the primary global feedstock for fluorine supply across fluorochemical, metallurgical, glass and ceramic industries. It forms endogenously from magmatic hydrothermal activity. During magma cooling, magma-separated hydrothermal fluids are rich in fluoride constituents. As these fluids migrate upward through rock fractures, gradual drops in temperature and pressure trigger a chemical reaction:
품질 고칼슘 금속 플루오르스파르 CaF2>75% 유리 및 세라믹 산업 공장
Fluorite, chemically calcium fluoride (CaF₂), is a typical halide mineral and the primary global feedstock for fluorine supply across fluorochemical, metallurgical, glass and ceramic industries. It forms endogenously from magmatic hydrothermal activity. During magma cooling, magma-separated hydrothermal fluids are rich in fluoride constituents. As these fluids migrate upward through rock fractures, gradual drops in temperature and pressure trigger a chemical reaction: