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Path Catalog
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7801 Paths · page 265 / 781
This learning path guides undergraduate engineering students through the essential concepts of thermal behavior in materials, starting with basic thermodynamics and progressing through heat capacity, thermal expansion, thermal conductivity, thermal shock resistance, and melting point. Each module connects fundamental principles to practical engineering implications, ensuring a systematic and applied understanding.
This learning path guides undergraduate engineering students through the fundamental concepts of how materials deform elastically and plastically, with a focus on the role of dislocations and the key strengthening mechanisms. It builds from atomic structure and crystal defects to practical methods like grain boundary, solid solution, and precipitation strengthening.
This learning path introduces undergraduate engineering students to the core mechanical properties of materials—stress, strain, elastic modulus, yield strength, tensile strength, ductility, hardness, and toughness. It builds from basic concepts of force and deformation through the standard tensile test, then explores each property and their interrelationships, culminating in practical applications in material selection and design.
This learning path introduces the fundamentals of binary phase diagrams, starting from basic thermodynamics and progressing through key concepts such as phases, components, degrees of freedom, and the Gibbs phase rule. It covers isomorphous and eutectic systems, providing a structured approach to reading and interpreting these diagrams.
This path introduces the major classes of crystal defects—point, line, planar, and volume—and explains how each type influences material properties. Starting from basic crystallography, it builds a systematic understanding of why defects are central to materials science.
This learning path introduces fundamental concepts of crystallography, focusing on unit cells, lattice parameters, coordination number, atomic packing factor, and the three basic crystal structures: BCC, FCC, and HCP. Designed for high school students with basic geometry, the path builds from simple geometric foundations to the comparison of crystal structures and their properties.
This learning path introduces the different types of atomic bonds—ionic, covalent, metallic, and van der Waals—and explains how each bond type influences the physical and chemical properties of materials. Starting with basic atomic structure and electron configuration, learners will build a systematic understanding of primary and secondary bonding and their real-world implications.
This learning path introduces high school students to the field of materials science, covering its definition, scope, and historical importance. Learners will explore the four main classes of materials, the materials tetrahedron concept, and why materials science is fundamental to modern technology and society.
A comprehensive learning path for senior engineering students to systematically master nonlinear control. It covers phase plane analysis, Lyapunov stability methods, and sliding mode control, building from foundational mathematical tools to advanced design techniques.
A comprehensive learning path for graduate students and researchers to develop systematic research skills in computer engineering, covering problem formulation, literature review, experimental design, simulation, data analysis, scientific writing, and ethics.