Bandingkan metode

	Slag Basicity	Elektrowinning	Model Inti Menyusut
Bidang	Teknik Pertambangan	Teknik Pertambangan	Teknik Pertambangan
Keluarga	Process / pipeline	Process / pipeline	Process / pipeline
Tahun asal	1950	1890	1976
Pencetus	Pyrometallurgical Practice	Industrial Electrometallurgy Practice	Szekely, Evans, and Sohn
Tipe	Slag composition parameter for controlling roast/smelt conditions	Electrochemical metal extraction and purification	Reaction kinetics model for solid-fluid reactions
Sumber perintis	Barnes, J. F., Edwards, C. C., & Sims, R. L. (2010). Copper smelting and refining: pyrometallurgical fundamentals. JOM, 52(12), 38-43.	Habashi, F. (2011). Electrometallurgy: principles, processes and materials. Metallurgical Transactions, 29(7), 1569-1589.	Szekely, J., Evans, J. W., & Sohn, H. Y. (1976). Gas-solid reactions. Academic Press, New York.
Alias	Basicity Index, Slag Chemistry Parameter	Electrodeposition, Electrolytic Extraction	Shrinking Unreacted Core Model, SCM, Leaching Kinetics Model
Terkait	3	3	3
Ringkasan	Slag basicity is a measure of the composition of slag formed during smelting and roasting operations. It is typically expressed as the ratio of basic oxides (CaO, MgO) to acidic oxides (SiO2). Basicity controls slag fluidity, viscosity, and reactivity, directly affecting metal recovery, processing temperature, and product quality. It is a critical parameter in copper, nickel, and lead smelting.	Electrowinning is an electrochemical process that extracts and refines metals from dilute leaching solutions by passing electric current through an electrolytic cell. Metal ions migrate to the cathode (negative electrode) and are reduced to pure metal, while impurities remain in solution. This process is essential for copper, zinc, cobalt, nickel, and gold refining, producing metals of exceptional purity.	The Shrinking Core Model, formalized by Szekely, Evans, and Sohn in 1976, describes the kinetics of chemical reactions between solid ore particles and surrounding fluids (leaching solutions, roasting gases). As the reaction proceeds from the particle surface inward, an unreacted core shrinks while products accumulate in a product layer. The model enables prediction of leaching times and optimization of hydrometallurgical processes.