Metallurgy and Material Forming
Description: This cluster of papers focuses on the phenomenon of dynamic recrystallization in metallic materials under hot, cold, and severe plastic deformation conditions. It includes research on constitutive modeling, flow behavior, microstructural evolution, and nucleation mechanisms at high temperatures. The use of artificial neural networks and processing maps is also explored in predicting and analyzing the dynamic recrystallization process.
Characteristic keywords: high-temperature deformation, dynamic recrystallization, flow stress, hot rolling, hot compression, dynamic recovery, deformation temperature, processing map, recrystallization kinetics, Zener-Hollomon parameter, static recrystallization, hot working, isothermal compression, hot forging, continuous dynamic recrystallization, flow stress prediction, hot workability, discontinuous dynamic recrystallization, hot forming, dynamic material model, flow curves, recrystallization texture, power dissipation efficiency, hot strip rolling, flow softening
Sibling topics: Rock Mechanics and Modeling, Mechanical Behavior of Composites, Composite Structure Analysis and Optimization, Metal and Thin Film Mechanics, Fatigue and fracture mechanics, Hydrocarbon exploration and reservoir analysis, Numerical methods in engineering, Ultrasonics and Acoustic Wave Propagation, Energetic Materials and Combustion, Cavitation Phenomena in Pumps, Composite Material Mechanics, Thermoelastic and Magnetoelastic Phenomena, Adhesion, Friction, and Surface Interactions, Laser-induced spectroscopy and plasma, Thermography and Photoacoustic Techniques, Forest Biomass Utilization and Management, Mechanical stress and fatigue analysis, Tribology and Wear Analysis, Flow Measurement and Analysis, Muon and positron interactions and applications, Material Properties and Processing, Elasticity and Wave Propagation, Geotechnical and Geomechanical Engineering, Geomechanics and Mining Engineering, Soil, Finite Element Methods, Engineering Diagnostics and Reliability, Railway Systems and Materials Science, Freezing and Crystallization Processes
Parent subfield: Mechanics of Materials
Field: Engineering
Domain: Physical Sciences
OpenAlex ID: T11201