The course introduces the basics of materials interactions with electric and magnetic fields, including electromagnetic radiation. It describes the classes of materials that exhibit useful electronic, optical, and magnetic properties. Particular attention will be devoted to the intrinsic (structure, chemistry) and extrinsic (processing, microstructure) material features that determine these properties. Prerequisite: PHYS 2415 or equivalent.

This course introduces state-of-the-art additive manufacturing techniques for metallic materials, processing considerations, unresolved challenges and future opportunities. The course focuses on the underlying mechanisms such as energy-matter interaction, solidification, melt pool characteristics, defects, as well as the impact on resulting materials properties based on the processing-structure-property relationships. Prerequisite: MSE 3070

This course examines the fundamental principles of physics, chemistry, materials science, and manufacturing which underlie the making, shaping, and fabrication of engineering components from casting and deformation processing (e.g. rolling, extrusion, forging) of metals, to powder processing of metals and ceramics, to polymer injection molding, to thin-film processing and lithography relevant to microelectronic circuit fabrication. Prerequisite: MSE 3070 or Instructor Permission

This course provides a rigorous understanding of polymers and polymeric materials from molecule to macroscopic viewpoint. Topics covered include single polymers, solutions, melts, gels, and networks. The knowledge obtained is universal to all polymeric systems across various length scales and can be applied to both synthetic and biopolymers. Thus, this course can serve as general guidance for the design and development of soft (bio) materials. Pre-requisite: MSE 3050 or CHE 3316 or MAE 2100 or instructor permission

Introduction to classical atomic-level simulation techniques (molecular dynamics, Metropolis and kinetic Monte Carlo). The basic concepts, capabilities and limitations of the methods are discussed, an overview of the state-of-the-art is provided, and examples of recent success stories are considered. The emphasis is on getting practical experience in designing and performing simulations. Prerequisite: 3rd year standing or instructor permission. Prerequisite: 3rd year standing or instructor permission.

Explores the microstructural origins of material deformation and fracture in response to mechanical loading. Deformation and creep are understood based on elasticity theory and dislocation concepts. Fatigue and fracture are understood based on continuum fracture mechanics and microstructural damage mechanisms. Prerequisite: MSE 3060

Advanced undergraduate course on topics not normally covered in other course offerings. The topic usually reflects new developments in the materials science and engineering field. Offerings are based on student and faculty interests.

A fourth-year project in MSE, under the supervision of a faculty member, is designed to give undergraduate students an application of principles learned in the classroom. The work may be experimental or computational, and the student is expected to become proficient in techniques used to process, characterize, or model materials. The project should make use of design principles in the solution of a problem. Prerequisite: Instructor permission.

Provides a fundamental understanding of the structure of crystalline and non-crystalline engineering materials from electronic to macroscopic properties. Topics include symmetry and crystallography, the reciprocal lattice and diffraction, quantum physics, bonding and band theory. Prerequisite: Instructor permission.

Basic course designed to provide a foundation for correlating defect structure and microstructure with physical, mechanical and chemical properties of engineering materials. The fundamental properties of point, line and surface defects in ordered media will be formulated. The thermodynamics of point defects in various types of solids will be discussed as well as the geometry and mechanics of crystal dislocations and their role in crystal plasticity elucidated. The essential elements of microstructure will be characterized emphasizing the concepts of phase constitution, microconstituent, polycrystalline aggregate and multiphase materials. The concept of real materials embodying a hierarchy of structures is emphasized. The principles governing the genesis and stability of material structure at various levels will be discussed. Prerequisite: MSE 6010.