Fall, 2000
Course Objectives:
This course is an advanced quantitative survey of the key principles
that govern engineering materials. At the end of this course students should
understand in a quantitative fashion how materials processing affects microstructrual
development and how microstrucure affects properties. This course is intended
as a transition course for students with a strong technical background
who would like to begin advanced studies in materials science and engineering.
As a result it is a survey where breadth is emphasized over depth.
Meeting time and Place:
Tuesdays and Thursdays, 1-2:48 PM, Room 395 Watts Hall.
Prerequisites:
Junior or senior status (or greater) in a technical discipline.
Students in materials science and engineering are not allowed to take this
course for credit, but graduate students from all other technical disciplines
are welcome.
Evaluation:
30% Assigned homework
30% Midterm examination
40% Final Examination
* On each the midterm and final each student is allowed to prepare one
side of one 8.5" X 11" sheet of paper with any equations or notes they
desire for reference during the exam.
Text: Physical Metallurgy Principles, 3d Edition, R. E. Reed-Hill and R. Abbaschian, PWS-Kent, 1992.
This will be supplemented with course notes and web resources.
Course Operation:
The present plan is to effectively cover the first 18 chapters of Reed-Hill in a one-a-day fashion. Students must read ahead so the course can be as much based on discussion and clearification as on 'lecture'.
In addition, each Tuesday we will discuss homework problems in the last part of the class. Each Thrusday we will have a lab-experience in the last part of class.
Additonal Useful Resources:
Web
See below.
More web resoruces to be added soon....
Very Good Resource books
Ashby and Jones, Engineering Materials I and II, Butterworth-Henimann
(first or second editons are nearly identical)
Barrett, Nix and Tetleman, Principles of Engineering Materials, Prentice-Hall, 1973.
ASM Metals Handbook, ASM International
Shackelford, Introduction to Materials Science and Engineering, Prentice-Hall
1996.
Course Outline:
(Lecture# and Topic with web resources below...)
1 Structure of metals
Penn
State Crystallography Primer
Making
Matter: Laue Institute, Grenoble, France
Crystal
Structures (NRL)
More
Crystal Structures (Java from Iowa)
Crystals
from King's College
3D
crystal structures (you need glasses)
2 Analytical Methods
Metallography.com
Diffraction
primer course
3 Crystal Bonding
4 Introduction to Dislocations - I
5 Introduction to Dislocations - II
Dislocation
Gallery (Kubin's group, France)
Dislocation
simulations of Peter Gumbsch
6 Dislocations and Plastic Deformation
Dislocation
motion through dispersoids
7 Grain Boundaries
8 Vacancies
9 Annealing
10 Solid Solutions
11 Midterm
12 Phases & Phase Diagrams I
Nice
Phase Diagram tutorial (Southampton)
Phase
diagram compilation from GA Tech.
13 Phase Diagrams II
14 Diffusion
15 Solidification
16 Nucleation & Growth Kinetics
17 Precipitation Hardening
18 Steels I
19 Steels II
20 Course review / overview
General Resources
Harry
Bhadeshia's Group site at Cambridge
Bhadeshi's
Teaching of Phase Transformatinons sub-site (great content!)
OSU,
MSE 205 lecture notes of P.M. Anderson
www.asm-intl.org
(ASM International, many bookmarks)
MRS
Materials Research/Education Site List
Johns
Hopkins MSE Demonstration Database
MatWeb
(source of basic materials properties)
Materials
Course from Queensland U.
OSU's Center for the Accellerated Maturation of Materials (CAMM)