Spring 2024

材料科学计算方法综述

计算机已经成为一种常见的工具，在努力弥合原子之间的差距 and macroscopic Materials properties. Examples selected from the literature are used 向学生介绍该领域使用的主要技术. Topics covered 包括:聚合物、金属、陶瓷、磁性材料、水、相平衡、 蛋白质折叠，自组装单层，凝胶，玻璃化转变，流变学， and dielectric relaxation.

5043/5034D Advanced Mechanical Metallurgy

Theory of elasticity/plasticity; dislocation theory; strengthening mechanisms; tensile testing; fracture and related failure phenomena; principal features of fatigue and creep; metalworking; related strain state- strain rate phenomena, including shock deformation and high energy rate forming. 

 

Fall 2023

4045/4045D Introduction to Composite Materials

增强材料:玻璃、凯夫拉、聚乙烯、碳、硼、碳化硅、 alumina, metallic fibers. Interface between the matrix and fiber. Polymer matrix, metal matrix, and ceramic matrix composites. Mechanism of fiber strengthening. Micromechanics 复合材料的宏观力学，强度和断裂行为

4083 Scanning Electron Microscopy

扫描电子显微镜的基本理论和实验技术. Electron 光学，电子束与固体的相互作用，信号检测与处理. Chemical X-ray microanalysis. 材料工程专业本科学生 required to take MTLS 483 and MTLS 483L concurrently.

5031/5031D Fundametal of Manufacturing processes

Introduction to Materials design; flow theories and work of deformation, microstructure-property relationships for different Materials; fracture; casting and heat-flow/mass-transfer issues; bulk deformation processing with applications to rolling and extrusion; powder metallurgy and sintering of metal and ceramic powders.

5034/5034D Phase Equilibria in Materials Systems

金属与陶瓷多组分相平衡的理论与实践 systems will be examined in detail. The thermodynamics and experimental methods of 确定这些系统的相平衡将被研究. Particular emphasis 到吉布斯相律，相图的构造和解释，以及 研究金属和陶瓷中非平衡态的重要性. Thermodynamic 将进行与相稳定性和相图预测有关的计算 using the modeling software, Thermo-Calc.

Spring 2023

420/520 Biomedical Materials

本课程涵盖了材料在医疗器械中的应用. Mechanical properties of hard and soft tissues are reviewed. Applications of biomaterials in orthopedics 重点讨论了材料-组织相互作用的问题. Other biomedical Materials 在皮肤移植，眼科手术，心脏起搏器，组织工程， and neural prostheses. 宿主反应包括适应，炎症，凝血， 异物的影响，以及组织和器官功能的改变. Methods for biological and clinical testing are highlighted. Regulatory, ethical and business issues are discussed. MTLS 420股票讲座与MTLS 520与额外的期望 graduate credit.

446  Survey of Computational Methods in Materials Science

计算机已经成为一种常见的工具，在努力弥合原子之间的差距 and macroscopic Materials properties. Examples selected from the literature are used 向学生介绍该领域使用的主要技术. Topics covered 包括:聚合物、金属、陶瓷、磁性材料、水、相平衡、 蛋白质折叠，自组装单层，凝胶，玻璃化转变，流变学， and dielectric relaxation.

 560 Failure Analysis

失败分析是一门揭示产品意外失败原因的科学. The 失效分析的结果可用于设计更好的产品，或作为证据 in litigation. 本课程将涵盖调查失败的正确方法， 结构和机器的常见失效模式，断口学，程序 撰写故障分析报告，以及法律含义.

550 Microstructures & Properties of Steel

随着钢铁在我们生活中无处不在的存在以及成千上万的钢铁 成分和热处理，以及强度-延展性组合，涵盖 a very wide range, it is natural to ask why that is so. This course intends to answer 其中一些问题主要集中在微观结构和力学性能上 of steels. 题目包括:c -间隙对铁晶格畸变的影响; 铁碳相图，奥氏体向铁素体的异三晶转变; Widmanstätten铁素体，珠光体，转化动力学和影响机制 取代溶质对相变的影响 动力学，马氏体的结晶学，马氏体的形核和生长 影响机械性能，相变诱发增韧，贝氏体相变 和显微组织，热处理钢，微合金钢，不锈钢 steels, fracture and embrittlement.

Fall 2022

445 Introduction to Composite Materials

增强材料:玻璃、凯夫拉、聚乙烯、碳、硼、碳化硅、 alumina, metallic fibers. Interface between the matrix and fiber. Polymer matrix, metal matrix, and ceramic matrix composites. Mechanism of fiber strengthening. Micromechanics 复合材料的宏观力学，强度和断裂行为

452 Solid State Physics for Engineers

讨论金属、半导体和电介质的物理性质 the viewpoint of solid-state theory. Electron dynamics, electronic transport, interaction 电磁波与固体，波动力学，量子力学，自由电子 theory, band theory of solids. Application of semiconductor and quantum physics to modern electronic and opto-electronic devices

483 Scanning Electron Microscopy

扫描电子显微镜的基本理论和实验技术. Electron 光学，电子束与固体的相互作用，信号检测与处理. Chemical X-ray microanalysis. 材料工程专业本科学生 required to take MTLS 483 and MTLS 483L concurrently.

509 Statistical Mechanics of Simple Materials

简要回顾热力学之后，介绍统计力学的基础知识 and applied to a number of cases of interest. These include solid state heat capacity, 气体在表面的吸附，玻色-爱因斯坦统计，黑体辐射， 磁学，超流动性，费米-狄拉克统计，电子气体，相理论 transitions, and the Monte Carlo method.

543 Advanced Mechanical Metallurgy

Theory of elasticity/plasticity; dislocation theory; strengthening mechanisms; tensile testing; fracture and related failure phenomena; principal features of fatigue and creep; metalworking; related strain state- strain rate phenomena, including shock deformation and high energy rate forming. 

564  Nano-Optics

纳米光学——一个新兴的领域，作为纳米科学的一部分正在迅速发展 and
纳米技术需要制造、操作和表征的工具和技术 at nanoscale. 本课程涵盖传播与聚焦的理论基础 of optical fields; methods of nanoscale optical microscopy: near-field optical probes and nanoscale distance control; features of optical interaction in nanoscale environments. 纳米光学的现代应用包括量子发射体、光子晶体和 谐振器，表面等离子体结构和器件，将在框架中讨论 of this class.

580  Dislocation Theory

Dislocations in isotropic continua; effects of dislocations on crystal structure; point defects and physical properties; point defects and mechanical properties; dislocation-point-defect interactions and groups of dislocations; dislocation interactions.

589 Surface Characterization Techniques

表面是一种材料与另一种材料之间的界面，在许多材料中起着关键作用 chemical engineering processes. 本课程是学习表面表征的原理 techniques and corresponding instrumentation. Relevant research papers will be discussed 用于各种系统，如聚合物，半导体材料和生物材料. Topics include surface topography (e.g., profilometers, ellipsometers, AFM, etc.); spectroscopy (e.g., NMR, UV-Vis spectroscopy, IR spectroscopy, etc.); microscopy (e.g., SEM, TEM, etc.); and X-ray scattering (e.g., XRD, GIXDS, XPS, NEXAFS, etc.).

 

Spring 2022

327 Introduction to Physical Metallurgy

>> Typically an undergraduate course, 327 is offered for graduate students with non-Materials backgrounds.  考试将在上课期间在线进行(通过Canvas). Distance students must make arrangements to take exams at those times<<

Prerequisite: MATE or MTLS 202
Mechanisms of deformation and fracture in metals. Binary phase diagrams. Phase transformations, 时效硬化、钢的热处理、TTT图、CT图、马氏体相变、 shape-memory effects. Common ferrous and non-ferrous alloys.

351 Introduction to Polymeric Materials

>> Typically an undergraduate course, 351 is offered for graduate students with non-Materials backgrounds.  考试将在上课期间在线进行(通过Canvas). Distance students must make arrangements to take exams at those times<<

Prerequisites: (MATE or MTLS 202); or (MATE or MTLS 235); MATH 231 or MATH 335
Basic concepts of polymer science; polymerization reactions and mechanisms, as well as kinetics involved; polymer solutions, molecular-weight determinations,
analysis and testing of polymers; structural properties of polymers; properties of commercial polymers; processing of polymers.

420/520 Biomedical Materials

Prerequisite: (MATE or MTLS 202) or (MATE or MTLS 235) or consent of instructor and advisor
This course covers the application of Materials in medical devices. Mechanical properties of hard and soft tissues are reviewed. Applications of biomaterials in orthopedics are discussed with emphasis on problems of material-tissue interactions. Other biomedical Materials are covered with applications in skin transplants, eye surgery, pacemakers, tissue engineering, and neural prostheses. Host responses are surveyed including adaptation, inflammation, coagulation, foreign body effects, and changes in tissue and organ functions. Methods for biological and clinical testing are highlighted. Regulatory, ethical and business issues are discussed. MTLS 420 shares lecture with MTLS 520 with additional expectations for graduate credit.

474 Polymer Processing & Characterization

Prerequisite: Consent of instructor
流变学，量热学和力学测试的基础知识. A specific polymer is used (e.g.(环氧树脂)在整个过程和加工过程中 polymer is covered. 学生应掌握仪器的使用知识 and analysis tools used in the course. These include rheometers, calorimeters, and mechanical testing. The primary analysis tool is Kaleidagraph software.

505 Electronic Materials

Prerequisite: MATE or MTLS 235 and graduate standing; or consent of instructor and 电子、原子和控制电气的缺陷结构的综述 behavior of ceramics and metals. Bulk and printed (thick film) electronic sensors and components. 固体电解质电池中使用的超离子导体及其发展 in new high-temperature superconducting ceramics. Polarization mechanisms and relaxation 介质中的现象，并讨论了低介电常数和微波介质.

540 Electrochemical Techniques & Process

先决条件:研究生资格或导师和顾问同意本课程 是对不断发展的电化学领域的概述，以及众多的电化学 techniques and processes. The lectures and assignments will review the theory and 电池科学，电镀，燃料电池，电催化，电精炼， 腐蚀，生物电化学，有机电合成. In addition to the applications, 电化学技术也将被介绍，包括开路电位， 线性极化，动电位极化，循环伏安法，ζ电位， 电化学阻抗谱和光电化学.

575 Introduction to Nano Materials

前提条件:研究生站或同意的导师和顾问
介绍纳米系统的物理基础，纳米结构的物理和化学 synthesis and fabrication. 其他主题包括:半导体纳米结构，磁性 纳米结构和自旋电子学，分子纳米结构，纳米系统中的电子传递， 纳米系统中的光学效应，纳米机器，纳米生物组件，纳米复合材料 Materials.

589 Transport Process Modeling

589 Bioprocess Engineering 

Fall 2021

350 Materials Thermodynamics

>> Typically an undergraduate course, 350 is offered for graduate students with non-Materials backgrounds.  考试将在上课期间在线进行(通过Canvas). Distance students must make arrangements to take exams at those times<<

热力学的数学结构是基于输运过程发展和阐明的 perspective. 诸如热量和温度之类的基本量是仔细定义的. 第一定律的守恒性质和第二定律的非守恒性质 are emphasized. 探讨了随之而来的稳定条件的后果 in the area of phase equilibrium in multicomponent mixtures.

446  Survey of Computational Methods in Materials Science

计算机已经成为一种常见的工具，在努力弥合原子之间的差距 and macroscopic Materials properties. Examples selected from the literature are used 向学生介绍该领域使用的主要技术. Topics covered 包括:聚合物、金属、陶瓷、磁性材料、水、相平衡、 蛋白质折叠，自组装单层，凝胶，玻璃化转变，流变学， and dielectric relaxation.

452 Solid State Physics for Engineers

讨论金属、半导体和电介质的物理性质 the viewpoint of solid-state theory. Electron dynamics, electronic transport, interaction 电磁波与固体，波动力学，量子力学，自由电子 theory, band theory of solids. Application of semiconductor and quantum physics to modern electronic and opto-electronic devices

483 Scanning Electron Microscopy

扫描电子显微镜的基本理论和实验技术. Electron 光学，电子束与固体的相互作用，信号检测与处理. Chemical X-ray microanalysis. 材料工程专业本科学生 required to take MTLS 483 and MTLS 483L concurrently.

531 Fundamentals in Manufacturing Processes of Materials

Introduction to Materials design; flow theories and work of deformation, microstructure-property relationships for different Materials; fracture; casting and heat-flow/mass-transfer issues; bulk deformation processing with applications to rolling and extrusion; powder metallurgy and sintering of metal and ceramic powders.

534  Phase Equilibria in Materials Systems

金属与陶瓷多组分相平衡的理论与实践 systems will be examined in detail. The thermodynamics and experimental methods of 确定这些系统的相平衡将被研究. Particular emphasis 到吉布斯相律，相图的构造和解释，以及 研究金属和陶瓷中非平衡态的重要性. Thermodynamic 将进行与相稳定性和相图预测有关的计算 using the modeling software, Thermo-Calc.

564  Nano-Optics

纳米光学——一个新兴的领域，作为纳米科学的一部分正在迅速发展 and
纳米技术需要制造、操作和表征的工具和技术 at nanoscale. 本课程涵盖传播与聚焦的理论基础 of optical fields; methods of nanoscale optical microscopy: near-field optical probes and nanoscale distance control; features of optical interaction in nanoscale environments. 纳米光学的现代应用包括量子发射体、光子晶体和 谐振器，表面等离子体结构和器件，将在框架中讨论 of this class.

566 Interfacial Phenomena

界面热力学(液体/液体，液体/蒸汽，液体/固体，固体/固体， solid/vapor); interfacial equilibria; interfacial free energy (surface tension measurements in liquids; specific surface free energy in solid systems); structure of solid surfaces and interfaces; properties of interfaces. 

580  Dislocation Theory

Dislocations in isotropic continua; effects of dislocations on crystal structure; point defects and physical properties; point defects and mechanical properties; dislocation-point-defect interactions and groups of dislocations; dislocation interactions.

589 Surface Characterization Techniques

表面是一种材料与另一种材料之间的界面，在许多材料中起着关键作用 chemical engineering processes. 本课程是学习表面表征的原理 techniques and corresponding instrumentation. Relevant research papers will be discussed 用于各种系统，如聚合物，半导体材料和生物材料. Topics include surface topography (e.g., profilometers, ellipsometers, AFM, etc.); spectroscopy (e.g., NMR, UV-Vis spectroscopy, IR spectroscopy, etc.); microscopy (e.g., SEM, TEM, etc.); and X-ray scattering (e.g., XRD, GIXDS, XPS, NEXAFS, etc.).

Spring 2021

314 Transport Processes

Prerequisites: MATH 1510, MATH 1520; PHYS 1310
Introduction to the concepts of fluid dynamics and mass
and heat transfer.

327 Introduction to Physical Metallurgy

Prerequisite: MATE or MTLS 202
Mechanisms of deformation and fracture in metals. Binary phase diagrams. Phase transformations, 时效硬化、钢的热处理、TTT图、CT图、马氏体相变、 shape-memory effects. Common ferrous and non-ferrous alloys.

351 Introduction to Polymeric Materials

Prerequisites: (MATE or MTLS 202); or (MATE or MTLS 235); MATH 231 or MATH 335
Basic concepts of polymer science; polymerization reactions and mechanisms, as well as kinetics involved; polymer solutions, molecular-weight determinations,
analysis and testing of polymers; structural properties of polymers; properties of commercial polymers; processing of polymers.

420/520 Biomedical Materials

Prerequisite: (MATE or MTLS 202) or (MATE or MTLS 235) or consent of instructor and advisor
This course covers the application of Materials in medical devices. Mechanical properties of hard and soft tissues are reviewed. Applications of biomaterials in orthopedics are discussed with emphasis on problems of material-tissue interactions. Other biomedical Materials are covered with applications in skin transplants, eye surgery, pacemakers, tissue engineering, and neural prostheses. Host responses are surveyed including adaptation, inflammation, coagulation, foreign body effects, and changes in tissue and organ functions. Methods for biological and clinical testing are highlighted. Regulatory, ethical and business issues are discussed. MTLS 420 shares lecture with MTLS 520 with additional expectations for graduate credit.

509 Statistical Mechanics of Simple Materials

先决条件:(MATE或MTLS 350)或ChE 349或研究生站或导师同意 and advisor
简要回顾热力学之后，介绍统计力学的基础知识 and applied to a number of cases of interest. These include solid state heat capacity, 气体在表面的吸附，玻色-爱因斯坦统计，黑体辐射， 磁学，超流动性，费米-狄拉克统计，电子气体，相理论 transitions, and the Monte Carlo method.

570 Corrosion Phenomena

前提条件:研究生站或同意的导师和顾问
Theory of aqueous corrosion (thermodynamics and kinetics); forms of corrosion; corrosion testing and evaluation; designing to minimize corrosion; methods of corrosion prevention; corrosion in specific systems; case studies.

589 Materials Applications of Density Functional Theory

前提条件:研究生站或同意的导师和顾问
本课程介绍了使用材料量子理论的材料建模 and first-principles computational techniques. Specifically, the use of density functional 理论将探讨解决一个近似版本的薛定谔方程 为了获得金属及其合金的材料性能. The course will 探索密度泛函理论的理论方面，包括夹紧核 近似，不相容原理，和平均场近似. The Hartree-Fock and Kohn-Sham equations are studied. All course material will be strongly coupled 使用Vienna ab-initio Simulation Package进行动手计算.

Fall 2020

446  Survey of Computational Methods in Materials Science

Computers have become a common tool in the effort to bridge the gap between atomic and macroscopic Materials properties. Examples selected from the literature are used to introduce the student to the principal techniques employed in the field. Topics covered include: polymers, metals, ceramics, magnetic materials, water, phase equilibrium, protein folding, self-assembled monolayers, gelation, the glass transition, rheology, and dielectric relaxation.

483 Scanning Electron Microscopy

Fundamental theory and experimental techniques in scanning electron microscopy. Electron optics, electron beam interactions with solids, signal detection and processing. Chemical X-ray microanalysis. Undergraduate students majoring in Materials Engineering are required to take MTLS 483 and MTLS 483L concurrently.

531 Fundamentals in Manufacturing Processes of Materials

Introduction to Materials design; flow theories and work of deformation, microstructure-property
relationships for different Materials; fracture; casting and heat-flow/mass-transfer issues; bulk deformation processing with applications to rolling and extrusion; powder metallurgy and sintering of metal and ceramic powders.

564  Nano-Optics

纳米光学——一个新兴的领域，作为纳米科学的一部分正在迅速发展 and
纳米技术需要制造、操作和表征的工具和技术 at nanoscale. 本课程涵盖传播与聚焦的理论基础 of optical fields; methods of nanoscale optical microscopy: near-field optical probes and nanoscale distance control; features of optical interaction in nanoscale environments. 纳米光学的现代应用包括量子发射体、光子晶体和 resonators, surface plasmons
结构和设备，将在本课程的框架内讨论.

580  Dislocation Theory

Dislocations in isotropic continua; effects of dislocations on crystal structure; point defects and physical properties; point defects and mechanical properties; dislocation-point-defect interactions and groups of dislocations; dislocation interactions.

589 Metallurgical Phase Transformations

Spring 2020

509 Statistical Mechanics of Simple Materials

420/520 Biomedical Materials

530 Design and Analysis of Experiments

560 Failure analysis 

589 Intro. to Modeling and Simulation of Transport Processes

589 Biomedical Imaging

589 Conjugated Polymers

Fall 2019

452 Solid State Physics for Engineers

483 Scanning Electron Microscopy

531 Fundamentals in Manufacturing Processes of Materials

534 Phase Equilibria in Materials Systems

564 Nano-Optics

Spring 2019

503 Crystal Chemistry and Crystal Physics

530 Design and Analysis of Experiments

570 Corrosion Phenomena

575 Introduction to Nano Materials

576 Drug Delivery Techniques

589 Materials Application of Density Functional Theory

589 Conjugated Polymers

589 Modeling of Chemical Reactions

Fall 2018

446 Survey of Computational Methods in Materials Science 

452 Solid State Physics for Engineers

560 Failure analysis 

589 Aerosol Science and Technology

589 Metallurgy of Steel

589 Bio-Materials Processing

Spring 2018

474 Polymer Processing and Characterization

483 Scanning Electron Microscopy

505 Electronic Materials

575 Introduction to Nano Materials

534 Phase Equilibria in Materials Systems

589 Bio-Materials Processing

Fall 2017 

452 Solid State Physics for Engineers

509 Statistical Mechanics of Simple Materials

531 Fundamentals in Manufacturing Processes of Materials

 516 Biomimetic Materials

534 Phase Equilibria in Materials Systems

540 Electrochemical Techniques & Process

564 Nano-Optics

566 Interfacial Phenomena

589 Bio-Materials

 Spring 2017

483 Scanning Electron Microscopy

572 Advanced Transport Phenomena

589 Bio-Materials Processing

530 Design and Analysis of Experiments

543 Advanced Mechanical Metallurgy

570 Corrosion Phenomena

589 Nano-Structures Nano-Materials

576 Drug Delivery Techniques

Fall 2016

446 Survey of Computational Methods in Materials Science

452 Solid State Physics for Engineers

489 Modeling of Advanced Materials

531 Fundamentals in Manufacturing Processes of Materials

560 Failure analysis 

589 Bio-Materials Processing

Spring 2016

474 Polymer Processing and Characterization

483 Scanning Electron Microscopy

505 Electronic Materials

543 Advanced Mechanical Metallurgy

589 Aerosol Science and Technology

 516 Biomimetic Materials

Fall 2015 

452 Solid State Physics for Engineers

509 Statistical Mechanics of Simple Materials

530 Design and Analysis of Experiments

589 Metallurgy of Steel

589 Bio-Materials Processing