Reprint

Chemical Engineering and Technology in Mineral Processing and Extractive Metallurgy

Edited by
October 2022
340 pages
  • ISBN978-3-0365-5426-6 (Hardback)
  • ISBN978-3-0365-5425-9 (PDF)

This book is a reprint of the Special Issue Chemical Engineering and Technology in Mineral Processing and Extractive Metallurgy that was published in

Chemistry & Materials Science
Engineering
Environmental & Earth Sciences
Summary

Chemical engineering and technology are the basis of mineral processing and extractive metallurgy. In the long history of human civilization, with the development of science and technology, chemical engineering, mineral processing, metallurgical engineering, and other process technologies have coexisted and mutually benefited each other. More than 100 years ago, chemical engineers summarized the common laws in the process industry and built up the basic theory of unit operations. It is undoubtedly of great significance to study the chemical engineering principles in mineral processing and extractive metallurgy to profoundly understand the essence of mineral separation and extraction, optimizing the technological flow of mineral processing and improving the utilization level of mineral resources. The purpose of this book is to discuss chemical engineering principles in mineral processing and extractive metallurgy to improve the utilization of mineral resources. Experts, technicians, and students in the fields of chemical engineering, metallurgy, and mineral processing are welcome to read this book.

Format
  • Hardback
License
© 2022 by the authors; CC BY-NC-ND license
Keywords
flotation; xanthate; adsorption; bornite; cuprous xanthate; AFM; FTIR; neodymium; metastable state; maintenance; induced precipitation; KR desulfurization slag; basicity; CaS; precipitation; occurrence; Cu2S; CuS; dissolution; chloride; arsenic; copper smelting dust; electrochemical advanced oxidation technology; iron-free Fenton-like reaction; blast furnace slag; conversion; zeolite; characterization; crystallization time; hydrometallurgy; converter dust; secondary copper; cementation; lead; sphalerite; hydrophobicity; water chemistry; contact angle; magnesium; potassium; calcium chloride; K-feldspar; wollastonite; roasting–leaching; chalcopyrite; molybdenite; sodium metabisulfite; diesel oil; kerosene; selective flotation; titanium; titanium alloys; ilmenite; extractive metallurgy; TiO2; calciothermic reduction; deep-sea mining; marine minerals; seafloor massive sulfides; polymetallic nodules; cobalt-rich crusts; mineral processing; hydrometallurgy; pyrometallurgy; metals; extraction; plasma spraying; TiB2 wettable cathode coating; wettability; corrosion resistance; correlation coefficient; kinetic parameters; criterion; hematite; reduction; vanadium; calcium roasting; leaching efficiency; electrodeposited antimony; sulfuration–volatilization; antimony sulfide; enriched gold; pressure drop; liquid–solid; fluidized bed; flow resistance coefficient; fluidization experiments; regular aggregate; innovative installation; separation; electronic-grade polysilicon; boron impurities; chemical vapor deposition; density functional theory; differential charge density; flotation; chalcocite; xanthate; dialkyl dithiophosphate; cuprous xanthate; AFM