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The Special Issue ‘Physical Metallurgy of High Manganese Steels’ addresses the highly fascinating class of manganese-alloyed steels with manganese contents well above 3 mass%. The book gathers manuscripts from internationally recognized researchers with stimulating new ideas and original results. It consists of fifteen original research papers. Seven contributions focus on steels with manganese contents above 12 mass%. These contributions cover fundamental aspects of process-microstrcuture-properties relationships with processes ranging from cold and warm rolling over deep rolling to heat treatment. Novel findings regarding the fatigue and fracture behavior, deformation mechanisms, and computer-aided design are presented. Additionally, the Special Issue also reflects the current trend of reduced Mn content (3-12 mass%) in advanced high strength steels (AHSS). Eight contributions were dedicated to these alloys, which are often referred to as 3rd generation AHSS, medium manganese steels or quenching and partitioning (Q&P/Q+P) steels. The interplay between advanced processing, mainly novel annealing variants, and microstructure evolution has been addressed using computational and experimental approaches. A deeper understanding of strain-rate sensitivity, hydrogen embrittlement, phase transformations, and the consequences for the materials’ properties has been developed. Hence, the topics included are manifold, fundamental-science oriented and, at the same time, relevant to industrial application.
n/a --- TRIP --- microstructure --- medium-manganese steel --- dislocation density --- V alloying --- ultrafine grains --- intercritical annealing --- medium manganese steel --- fracture --- precipitations --- twinning induced plasticity --- deformation behavior --- fatigue --- austenite-reversed-transformation --- medium-manganese --- Lüders band --- medium-Mn steel --- fatigue behavior --- alloy design --- austenitic high nitrogen steel (HNS) --- high-entropy alloys --- mechanical properties --- retained austenite --- high-manganese steel --- localized deformation --- phase transformation --- austenite stability --- processing --- strain-hardening behavior --- TWIP steel --- recrystallization annealing --- damage --- strengthening --- cold rolling --- ultrafine-grained microstructure --- serrated flow --- multiscale simulation --- deformation twinning --- annealing --- high-Mn steels --- corrosion resistance --- TWIP --- quenching and partitioning --- high manganese steel --- lightweight --- residual stresses --- in-situ DIC tensile tests --- crash box --- deep rolling --- high strength steel --- plastic deformation --- MMn steel X20CrNiMnVN18-5-10 --- neutron diffraction --- phase field simulation --- dynamic strain aging --- cold deformation --- near surface properties --- P steel --- continuous annealing --- texture --- hydrogen embrittlement --- hot-stamping --- warm rolling --- strain-rate sensitivity --- austenite reversion --- D& --- forging --- high-manganese steels --- grain refinement --- double soaking
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There are several major megatrends having an impact on pyrometallurgical metal processing. The steadily growing demand for all metals is strengthened by the emergence of electrical vehicles (EV), which brings a high need for battery metals, but additionally, a significant increase in copper consumption. Even if only moderate forecasts for the number of the EVs become true, production of the base metals must increase by tens of percentages, or even more than double. At the same time, pyrometallurgical processes have to produce fewer side products, such as slag, and maintain the quality level of the primary product, although raw material mixtures are increasingly complex and new elements are entering the processes in secondary raw materials. Therefore, it is imperative to continue the development of pyrometallurgical processes more efficiently and productively, while still improving their selectivity regarding slagging the unwanted material and recovering the desired elements. This Special Issue is for current advances in the pyrometallurgical processing of metals, including all aspects, namely, the basic unit processes and operations in a smelter, metallurgical engineering, furnace integrity, cooling systems, modelling, slag and offgas handling, to name a few. A collection of 13 papers deal with ferrous and ferroalloy development, and the processing of different raw materials for metal production.
Technology: general issues --- blast furnace slag --- TiO2 --- titanium carbonitride --- viscosity --- limonite --- magnetization reduction roasting --- rotary kiln --- deposit --- fayalite --- FeO --- liquid phase --- medium manganese steel --- spinel inclusions --- Ce treatment --- modification mechanism --- copper concentrate --- pyrometallurgy --- flash smelting --- combustion --- classification --- spectroscopy --- PCA --- SIMCA --- PLS-DA --- k-NN --- support vector machines --- scandium --- master alloys --- aluminum alloys --- metallothermy --- vacuum induction melting --- factsage --- nickel laterite --- non-melting reducing --- sodium chloride --- magnetic separation --- garnierite --- vacuum carbothermal reduction --- mechanism --- CaF2 --- recovery --- devolatilization --- torrefied biomass --- bio-coal --- volatile matter --- reduction --- blast furnace --- multistage and deep reduction --- low-oxygen high titanium ferroalloy --- inclusions --- melt separation --- slag-metal separation --- hearth drainage --- iron and slag flow --- interface phenomena --- CaO-SiO2-FetO-P2O5 slag system --- distribution ratio of phosphorus --- dephosphorization --- n·2CaO·SiO2-3CaO·P2O5 solid solution --- B2O3 --- vanadium–titanium sintering --- metallurgical properties --- microstructures --- Søderberg electrodes --- submerged arc furnace (SAF) --- ferro-alloy production --- ferrochrome --- electrical resistivity --- degree of graphitisation --- bulk density --- porosity --- compressive breaking strength
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There are several major megatrends having an impact on pyrometallurgical metal processing. The steadily growing demand for all metals is strengthened by the emergence of electrical vehicles (EV), which brings a high need for battery metals, but additionally, a significant increase in copper consumption. Even if only moderate forecasts for the number of the EVs become true, production of the base metals must increase by tens of percentages, or even more than double. At the same time, pyrometallurgical processes have to produce fewer side products, such as slag, and maintain the quality level of the primary product, although raw material mixtures are increasingly complex and new elements are entering the processes in secondary raw materials. Therefore, it is imperative to continue the development of pyrometallurgical processes more efficiently and productively, while still improving their selectivity regarding slagging the unwanted material and recovering the desired elements. This Special Issue is for current advances in the pyrometallurgical processing of metals, including all aspects, namely, the basic unit processes and operations in a smelter, metallurgical engineering, furnace integrity, cooling systems, modelling, slag and offgas handling, to name a few. A collection of 13 papers deal with ferrous and ferroalloy development, and the processing of different raw materials for metal production.
blast furnace slag --- TiO2 --- titanium carbonitride --- viscosity --- limonite --- magnetization reduction roasting --- rotary kiln --- deposit --- fayalite --- FeO --- liquid phase --- medium manganese steel --- spinel inclusions --- Ce treatment --- modification mechanism --- copper concentrate --- pyrometallurgy --- flash smelting --- combustion --- classification --- spectroscopy --- PCA --- SIMCA --- PLS-DA --- k-NN --- support vector machines --- scandium --- master alloys --- aluminum alloys --- metallothermy --- vacuum induction melting --- factsage --- nickel laterite --- non-melting reducing --- sodium chloride --- magnetic separation --- garnierite --- vacuum carbothermal reduction --- mechanism --- CaF2 --- recovery --- devolatilization --- torrefied biomass --- bio-coal --- volatile matter --- reduction --- blast furnace --- multistage and deep reduction --- low-oxygen high titanium ferroalloy --- inclusions --- melt separation --- slag-metal separation --- hearth drainage --- iron and slag flow --- interface phenomena --- CaO-SiO2-FetO-P2O5 slag system --- distribution ratio of phosphorus --- dephosphorization --- n·2CaO·SiO2-3CaO·P2O5 solid solution --- B2O3 --- vanadium–titanium sintering --- metallurgical properties --- microstructures --- Søderberg electrodes --- submerged arc furnace (SAF) --- ferro-alloy production --- ferrochrome --- electrical resistivity --- degree of graphitisation --- bulk density --- porosity --- compressive breaking strength
Choose an application
There are several major megatrends having an impact on pyrometallurgical metal processing. The steadily growing demand for all metals is strengthened by the emergence of electrical vehicles (EV), which brings a high need for battery metals, but additionally, a significant increase in copper consumption. Even if only moderate forecasts for the number of the EVs become true, production of the base metals must increase by tens of percentages, or even more than double. At the same time, pyrometallurgical processes have to produce fewer side products, such as slag, and maintain the quality level of the primary product, although raw material mixtures are increasingly complex and new elements are entering the processes in secondary raw materials. Therefore, it is imperative to continue the development of pyrometallurgical processes more efficiently and productively, while still improving their selectivity regarding slagging the unwanted material and recovering the desired elements. This Special Issue is for current advances in the pyrometallurgical processing of metals, including all aspects, namely, the basic unit processes and operations in a smelter, metallurgical engineering, furnace integrity, cooling systems, modelling, slag and offgas handling, to name a few. A collection of 13 papers deal with ferrous and ferroalloy development, and the processing of different raw materials for metal production.
Technology: general issues --- blast furnace slag --- TiO2 --- titanium carbonitride --- viscosity --- limonite --- magnetization reduction roasting --- rotary kiln --- deposit --- fayalite --- FeO --- liquid phase --- medium manganese steel --- spinel inclusions --- Ce treatment --- modification mechanism --- copper concentrate --- pyrometallurgy --- flash smelting --- combustion --- classification --- spectroscopy --- PCA --- SIMCA --- PLS-DA --- k-NN --- support vector machines --- scandium --- master alloys --- aluminum alloys --- metallothermy --- vacuum induction melting --- factsage --- nickel laterite --- non-melting reducing --- sodium chloride --- magnetic separation --- garnierite --- vacuum carbothermal reduction --- mechanism --- CaF2 --- recovery --- devolatilization --- torrefied biomass --- bio-coal --- volatile matter --- reduction --- blast furnace --- multistage and deep reduction --- low-oxygen high titanium ferroalloy --- inclusions --- melt separation --- slag-metal separation --- hearth drainage --- iron and slag flow --- interface phenomena --- CaO-SiO2-FetO-P2O5 slag system --- distribution ratio of phosphorus --- dephosphorization --- n·2CaO·SiO2-3CaO·P2O5 solid solution --- B2O3 --- vanadium–titanium sintering --- metallurgical properties --- microstructures --- Søderberg electrodes --- submerged arc furnace (SAF) --- ferro-alloy production --- ferrochrome --- electrical resistivity --- degree of graphitisation --- bulk density --- porosity --- compressive breaking strength
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