Fall 2022

Chemical bonding and structure in crystalline, amorphous and molecular solids; tendency and mechanisms for chemical change; homogeneous and heterogeneous equilibria.

Mechanical behavior of metals, polymers, ceramics, and composites. Structure-process-property relationships. Mechanical testing, stress-strain relationships, microstructural characteristics and analysis. Material failure (fracture, fatigue, creep) and degradation.

Basic material science, atomic bonding, crystalline structures, structural and mechanical behavior and characterization of metals, concrete, wood, composites and asphalt.

Structure, properties, synthesis, processing and design of metallic, ceramic, polymeric, electronic, photonic, composite, nanophase and biomaterials; nanostructures, microfabrication and smart materials.

Introductory quantum mechanics and applications. Schrodinger equation, atomic and molecular processes, time-dependent perturbation theory. Applications to lasers, solid-state demos and gaseous devices.

Classical thermodynamics, chemical potential, pure phases and mixtures; interphase relationships; binary and ternary solutions; free energy and activity; galvanic cell, electrochemical potential and Pourbaix diagram.

Stereographic projection; Laue back reflection method; crystal orientation; line and planar crystalline defects; tensors; susceptibility; permeability and permittivity; stress and strain; piezoelectricity; elasticity.

Semiconductor bonds, crystallography, band structure assumptions, group theory, band structure results, k.p. method, quantum wells, wires and dots, superlattices, amorphous, organic semiconductors, defects, statistics, surfaces.

Introduction to machine learning, basics of python programming and data science tools; hands-on projects of materials and process modeling based on machine learning methods.

Understanding deep learning: for students in engineering, physical and life sciences and computer science with mathematical background.

Characterization of solid structure by X-ray diffraction, electron microscopy, atomic force and tunneling microscopy and elemental analysis by photoemission, X-ray fluorescence, Auger, energy loss spectroscopies.

Quantum mechanics for engineering majors who work with solid-state devices, quantum electronics, and photonics. Schroedinger equation, perturbation theory, electronic and optical processes.

Mechanical properties of materials; macroscopic mechanical behavior related to structure and microstructure of the material; elementary dislocation theory related to basic strengthening mechanisms; fatigue and fracture; nanomaterials.

Introduction to atomistic modeling and simulations of materials usingMolecular Dynamics and Monte Carlo methods, basic concepts and how tocharacterize materials properties.

Materials selection in relationship to design and fabrication, economic considerations, methodology of selection, performance parameters; case studies.

Research leading to the Master's Degree. Maximum units which may be applied to the degree to be determined by the department. Graded CR/NC.

Credit on acceptance of Thesis.

Credit on acceptance of Thesis.

Credit on acceptance of Thesis.

Seminar in Materials Science research.

Research leading to the doctorate. Maximum units which may be applied to the degree to be determined by the department. Graded CR/NC.

Credit on acceptance of Dissertation.

Credit on acceptance of Dissertation.

Credit on acceptance of Dissertation.

Credit on acceptance of Dissertation.

Credit on acceptance of Dissertation.