This page contains links for an introductory graduate course in Solid State physics. For a more complete description of the course, please see the course syllabus. All of the original material is copyrighted to prevent others from publishing it for profit. However, please feel free to use and distribute these course materials (profit free) to your students. Also, email submissions of solutions, chapters, revisions will be gladly accepted and posted on this site (especially those involving computer symbolic manipulation, simulations, and visualization). Presently, the notes and homework assignments are available for the first twelve chapters of the course. Homework solutions will only be posted for two weeks after their due dates; however, they are available by request to Professors at other Universities (please send a regular-mail request written on letterhead to Mark jarrell, Dept. of Physics, ML-0011, University of Cincinnati, Cincinnati OH 45221-0011. Include your email address, and I will send you what I have). A public ftp subdirectory for each chapter can be accessed by clicking on the corresponding graphic. Each of these subdirectories contains at least three files: 



First Quarter 


Chapter 1. Chemical Bonding and Atomic Physics. Download: Latex Source , Full Postscript version , just the figures , the homework assignment or the homework solutions

Chapter 2. Crystal Structures and Symmetry. Download: Latex Source , Full Postscript version , just the figures , or the homework solutions

Chapter3. The Classical Theory of Crystal Diffraction. Download: Latex Source , Full Postscript version , just the figures , or the homework solutions (look at Laurie Robinson's Solution to the Mathematica Scattering Problem)

Chapter4. Crystal Lattice Dynamics and the Quantum Theory of Neutron Scattering. Download: Latex Source , Full Postscript versionjust the figures  or the homework assignment.

Chapter5. Thermal Properties of Crystal Lattices. Download: Latex Source , Full Postscript version , just the figures , or the homework assignment

Chapter6. The Electronic Fermi Liquid. Download: Latex Source , Full Postscript version , just the figures , or the homework assignment



The grade for this quarter will be determined by the homework (50%) the project (20%) and the final (30%). The project is a Materials Review in which you may describe the interesting properties of a material or class of materials in six pages or less, including figures and references but excluding the title page. A LaTeX template for this project, as well as LaTeX guides are available on the main directory for this course. Please take a look at the efforts of your colleagues:


Second Quarter



Chapter 7. Band Structure of Solids Latex Source , Full Postscript version , just the figures , the homework assignment or the homework solutions

A lecture on Density Functional Theory (W. Aulbur)

Chapter 8. Magnetism. Download: Latex Source , Full Postscript version , just the figures , the homework assignment or the homework solutions

Chapter 9. Electronic Transport. Download: Latex Source , Full Postscript version , just the figures , the homework assignment or the homework solutions

Chapter10. Superconductivity. Download: Latex Source , Full Postscript version , just the figures , the homework assignment or the homework solutions.

Chapter 11. Dielectric Properties of Materials. Download: Latex Source , Full Postscript version , just the figures , or the homework assignment

Chapter 12. Semiconductors. Download: Latex Source , Full Postscript version , just the figures , or the homework assignment



The final for this quarter is an Experimental Methods Review in which you must describe an experimental method in in six pages or less, including figures and references but excluding the title page. A LaTeX template for this assignment, as well as LaTeX guides are available on the main directory for this course. Please take a look at the efforts of your colleagues in years past. Please also look at the talk guides on JW Wilkins web page.

E-mail: jarrell@physunc.phy.uc.edu

This work was sponsored by the National Science Foundation grants DMR-9357199 and DMR-9704021, and by the Ohio Supercomputer Center

This work was sponsored by the NSF