Class meets MWF 3:30-4:20PM in Wean Hall 7316
Professor Mike Widom, Office 6305 Wean Hall
e-mail: firstname.lastname@example.org, Phone: 412-268-7645
Office Hours: Any time I'm not busy
What you will learn: This course presents an introduction to the physics of solid state materials, with an emphasis on traditional bulk crystalline materials but with occasional examples drawn from modern topics such as quantum wells, graphene, etc. Topics will be broadly separated into two segments. First, in the physics of the solid continuum, you will apply simple classical or quantum mechanical models to examine electronic, magnetic, vibrational, optical and thermal properties of matter. Next, in the physics of the crystal lattice you will learn diffraction techniques for probing the structure and symmetries of crystals and understand how diffraction of phonons and electrons create band structures and enable technologies such as semiconductor devices.
What you should know: Prior familiarity with quantum mechanics is assumed at the level of 33-234 or 33-225, and statistical mechanics/thermodynamics at the level of 33-341.
Books: Several excellent books are available in the E&S library.
1. Simon, The Oxford Solid State Basics, e-book http://search.ebscohost.com/login.aspx?direct=true&scope=site&db=nlebk&db=nlabk&AN=598413
2. Kittel, Introduction to Solid State Physics (8th edition), QC176.K5 2005
3. Guinier, The Structure of Matter: From the blue sky to liquid crystals, QC173.G82613 1984
4. Guinier and Jullien, The Solid State: From superconductors to superalloys, QC176.G8513 1989
5. Ashcroft and Mermin, Solid State Physics, QC176.A83
6. Goodstein, States of Matter, QC173.3.G66
The principal content of the course will be drawn from Simon, including homework assignments. Kittel provides an alternative presentation of these topics. The books by Guinier display a broad view of condensed matter physics emphasizing a qualitative understanding and real-world relevance. Ashcroft and Mermin is a popular graduate level text at an advanced level. Goodstein has excellent background material on thermal physics, a chapter on solids offering a nice "thumbnail sketch" of this course, and a chapter on superconductivity.
Grading: Letter grades will be based on homework, midterm exams and a final exam. You can view your grades on Blackboard. Homework assignments are listed here.
Note this outline is only approximate. Actual class coverage can be found here.