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Path Catalog
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7801 Paths · page 259 / 781
This advanced learning path equips learners with the knowledge to apply fracture mechanics in evaluating the toughness of metallic alloys. It covers linear-elastic and elastic-plastic fracture mechanics, standard test methods, and the ductile-to-brittle transition, emphasizing practical application to real materials.
This advanced learning path systematically explores creep deformation in metallic materials, covering fundamental mechanisms, constitutive modeling, and design of creep-resistant alloys. It builds from essential prerequisites in materials science and mechanics to a comprehensive understanding suitable for graduate-level study.
This learning path guides undergraduate engineering students through the fundamental concepts of fatigue in metals, from stress-strain behavior to fatigue life prediction methods. It covers S-N curves, fatigue limits, crack initiation and propagation, influencing factors, and the Goodman diagram, providing a systematic understanding of fatigue mechanisms and prediction techniques.
This path guides undergraduate engineering students through the fundamental processes of cold working, recovery, and recrystallization in metals. It begins with essential background on dislocations and plastic deformation, then explores strain hardening, the microstructural changes during recovery and recrystallization, and concludes with texture evolution and grain growth. The path emphasizes the underlying mechanisms and their effects on mechanical properties.
This learning path provides a systematic understanding of the high-temperature properties of nickel-based superalloys, covering the gamma-gamma' microstructure, precipitation hardening, creep resistance, oxidation resistance, and their applications in turbine blades. It starts with foundational concepts in crystallography and phase diagrams, then builds up to advanced mechanisms and engineering applications.
This learning path guides undergraduate engineering students through the fundamental materials science of magnesium alloys, their alloying systems, processing methods, corrosion behavior, and automotive applications. It builds from basic concepts to a structured evaluation framework for lightweight design.
This learning path guides undergraduate engineering students through the fundamental materials science needed to understand titanium alloys, covering crystal structures, alloy classification, key alloys like Ti-6Al-4V, and their applications in aerospace and other industries. It emphasizes the relationship between processing, microstructure, and properties.
A systematic learning path for undergraduate engineering students covering the fundamental materials science of copper and its key alloys, including brasses, bronzes, and beryllium copper. The path emphasizes the structure-property relationships that govern electrical and thermal performance and guides learners through practical applications.
This learning path guides undergraduate engineering students through the classification and property analysis of aluminum alloys. It covers foundational concepts, alloying systems, heat treatment, and practical applications, emphasizing the underlying metallurgical principles.
This learning path guides undergraduate engineering students through the foundational knowledge needed to classify and describe stainless steel families. It covers iron-carbon phase behavior, alloying principles, corrosion mechanisms, and the distinct microstructures and properties of austenitic, ferritic, martensitic, and duplex stainless steels, including their applications.