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Path Catalog
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This learning path provides a systematic introduction to the mechanical properties of ceramics, emphasizing their brittle nature. It covers elastic behavior, strength, statistical fracture analysis using Weibull statistics, fracture toughness, hardness, and the influence of microstructure. Designed for undergraduate engineering students, the path builds a solid foundation for understanding and applying mechanical testing and design with ceramic materials.
This learning path guides students from basic thermodynamics through the interpretation of binary phase diagrams relevant to ceramics. It covers essential concepts such as phases, components, Gibbs phase rule, and the lever rule, then applies them to eutectic, peritectic, and immiscibility systems, including non-stoichiometry and solid solutions.
This learning path introduces the fundamental conditions for glass formation and the atomic structure of glasses. Starting from basic chemistry, it covers the glass transition, network formers and modifiers, and the random network theory, providing a systematic understanding of the glassy state.
This learning path explains the ionic and covalent bonding in ceramic materials, starting from basic chemistry concepts. It covers electronegativity, bond types, partial ionic character, and bond strength, providing a foundation for understanding ceramics.
This learning path introduces the common crystal structures found in ceramic materials, starting from basic crystallography concepts and progressing to specific structure types such as NaCl, CsCl, ZnO, perovskite, spinel, and fluorite. It covers coordination numbers and Pauling's rules, providing a foundation for understanding ceramic properties.
This learning path introduces the fundamental concepts of ceramics and glass, including their definitions, classifications, and historical significance. It is designed for high school students beginning materials science, starting with basic chemistry and progressing to the importance of these materials.
A systematic learning path for graduate students and beginning researchers to develop essential skills for conducting research in metallic materials, covering research problem formulation, literature review, experimental design, data analysis, scientific communication, research ethics, and reproducibility.
This advanced graduate-level path provides a rigorous foundation in the crystallography and thermodynamics of martensitic transformations, then applies this knowledge to the design, characterization, and application of shape memory alloys, with a focus on NiTi and Cu-based systems. Learners will explore the mechanisms of one-way and two-way memory, superelasticity, and the engineering considerations for biomedical and actuator applications.
This graduate-level learning path explores the fundamental thermodynamics and kinetics underlying the formation of bulk metallic glasses (BMGs), their unique mechanical and magnetic properties, and their practical applications. It builds from core concepts of glass transition and crystallization to advanced topics such as glass-forming ability and processing.
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.