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INTRODUCTION TO CERAMIC MATERIALS

MS&E 451
과목 설명

Primary objectives are to: 1) analyze how atoms and ions combine to form 3D crystals and glasses; 2) examine phase equilibria to understand the driving forces for the formation of particular ceramic phases; 3) introduce and discuss the nature of defects in ceramics; 4) discuss the migration of matter and of charge in ceramics; and 5) discuss properties and processing technologies of ceramics.

선수과목

MS&E 352 and (MS&E 330 or concurrent enrollment), or graduate/professional standing, or member of Engineering Guest Students

충족 요건
학점

미보고

개설 시기

미보고

평점
3.48

5.54% 과거 데이터 대비

수료율
100%

1.49% 과거 데이터 대비

A 비율
39.29%

52.42% 과거 데이터 대비

학급 규모
28

-13.21% 과거 데이터 대비

Cumulative Grade Distribution

강사 (2026 Summr)

다음 사이트의 평점순으로 정렬 Rate My Professors

유사 과목

INTRODUCTION TO MATERIALS SCIENCE

MS&E 350

The basic structures and resulting properties of solid materials, including phase equilibria, meta-stability, mechanical properties, failure, corrosion, and materials selection.

MATERIALS FUNDAMENTALS

MS&E 550

Accelerated introduction to foundational materials concepts and the materials paradigm approach to problem solving and research. Atomic scale structure of materials; defects in crystalline materials; alloy phase diagrams, solid-state diffusion, phase transformations, microstructure development, micro/nano/atomic-scale structure-property relationships.

CHEMISTRY OF INORGANIC MATERIALS

CHEM 652

Materials chemistry of inorganic solids. Focuses on the application of chemical concepts to an understanding of properties of solids and how these properties are manifested in practical applications.

THERMODYNAMICS OF SOLIDS

MS&E 530

Thermodynamics of condensed matters as applied to materials science and engineering.

INTRODUCTION TO COMPUTATIONAL MATERIALS SCIENCE AND ENGINEERING

MS&E 460

An introduction to the theoretical and computational tools for computational materials, with hands on homework and laboratories. Topics may include atomistic simulation (e.g., molecular dynamics), mesoscale simulation (e.g,. Phase field method), macroscale simulation (e.g., finite element method), thermodynamic and kinetic modeling (CALPHAD method), informatics (e.g., machine learning), and special topics (e.g., solar cell design, electronic device simulation, etc.)