Preparing your Path…
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Path Catalog
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7801 Paths · page 256 / 781
This advanced learning path provides a systematic exploration of high-entropy alloys (HEAs), from foundational thermodynamics and configurational entropy to core effects, phase formation rules, microstructures, and key properties including mechanical behavior and corrosion resistance. It integrates physical metallurgy and computational modeling to equip graduate researchers with the knowledge needed to design and analyze these multi-principal-element alloys.
This path guides graduate students and researchers through the fundamental metallurgy of titanium alloys, the unique thermal history of additive manufacturing (AM), and how that history shapes microstructure, defects, and final mechanical properties. It emphasizes Ti-6Al-4V, covering α' martensite, texture, defect formation, and post-processing strategies for aerospace applications. The path builds from essential prerequisites to advanced analysis and application.
This path provides a comprehensive understanding of the microstructures and mechanical properties of advanced high-strength steels (AHSS) used in automotive applications. It covers the physical metallurgy underlying DP, TRIP, TWIP, MART, and Q&P steels, focusing on retained austenite and strengthening mechanisms. Learners will develop the ability to evaluate and correlate microstructural features with mechanical performance.
This learning path equips professional engineers with the knowledge to analyze sheet metal forming processes for automotive body panels. It covers essential mechanical properties, formability assessment, major forming processes (deep drawing and stretch forming), springback prediction, and material selection criteria, with practical applications in the automotive industry.
This advanced professional learning path equips engineers with the systematic methodology to determine root causes of metallic component failures. It covers fracture modes, fatigue, corrosion, environmental cracking, and culminates in analytical reporting, integrating advanced mechanical properties and fracture mechanics.
This learning path guides undergraduate engineering students through the essential steps of metallographic sample preparation, etching, optical microscopy, and quantitative image analysis. It builds from fundamental materials science concepts to practical skills in revealing and measuring microstructural features, culminating in the ability to relate microstructure to material properties.
A structured learning path for undergraduate engineering students to apply quality control methodologies in metals production and processing. It covers material properties, sampling, chemical analysis, mechanical testing, metallographic examination, non-destructive testing, and quality standards, emphasizing practical application.
This learning path equips undergraduate engineering students with the knowledge to apply surface hardening techniques for improved wear resistance. It covers the fundamental principles of heat treatment, specific surface hardening methods (carburizing, nitriding, induction hardening, flame hardening), and case depth measurement, emphasizing the relationship between process parameters, microstructure, and resulting properties.
This learning path guides undergraduate engineering students through the fundamental principles and practical considerations of designing casting processes for metallic components. It covers solidification science, mold design, various casting methods, defect prevention, and process selection, culminating in a capstone design project.
This learning path guides undergraduate engineering students through the fundamental principles of metal forming, covering both mechanical behavior and metallurgical transformations. It progresses from basic concepts of stress, strain, and material properties to the analysis of specific processes like forging, rolling, extrusion, and drawing, including their effects on microstructure and the origins of defects.