Chem 548

Materials Chemistry

Fall 2026

Basic Info

Lecturer: Benjamin J. Wiley,

Email: Benjamin.wiley@duke.edu

Lecture place: Biological Sciences 063

Lecture time: MoWe 8:30 AM-9:45 AM

Class Dates: 08-24-26 to 11-24-26 (last class meeting Mon 11-23-26)

Class holidays: 09-07-26 (Labor Day); 10-12-26 (Fall Break — begins Fri 10-09 7:00 PM, classes resume Wed 10-14 8:30 AM)

Course Description

Chem 548 will introduce the student to the fundamentals of materials chemistry. Topics that will be covered include: crystal structure, defects, phases, bonding, electronic band structure as well as other select topics. The method of instruction will include a mixture of lecture and working through problems.

Learning Objectives

This course will help you to understand the relationship between the structure of a material and its properties.

Course Materials

This course uses Solid State Materials Chemistry by Woodward, Evans, and Vogt.

Course Website:

Canvas — Fall 2026 CHEM 548 course page (TBD).

Course Recordings:

Duke Panopto — Fall 2026 CHEM 548 folder (TBD).

Grading

There will be two multiple choice exams. Each one will be 50% of your grade.

Rough Class Schedule:

Lec. Date Topic & Focus Reading (SSMC)
1 Mon 08/24/2026 Ch.1: course overview & logistics; translational symmetry, lattices, and unit cells. Ch.1 §§1.1–1.4.
2 Wed 08/26/2026 Ch.1: point symmetry and crystal systems. Ch.1 §§1.1–1.4.
3 Mon 08/31/2026 Ch.1: space groups and crystal systems. Ch.1 §§1.1–1.4.
4 Wed 09/02/2026 Ch.1: Wyckoff sites and representing crystal structures. Ch.1 §1.5.
Mon 09/07/2026 No class — Labor Day (Duke)
5 Wed 09/09/2026 Ch.1: ionic structures and stoichiometry constraints. Ch.1 §1.5.
6 Mon 09/14/2026 Ch.1: network topology, silicates, and microporous solids. Ch.1 §§1.5–1.8.
7 Wed 09/16/2026 Ch.1: ternary structures — spinel, garnet, and perovskites. Ch.1 §1.5.
8 Mon 09/21/2026 Ch.2/Ch.3: intrinsic and extrinsic point defects. Ch.2 §§2.1–2.6; Ch.3 §3.1.
9 Wed 09/23/2026 Ch.4: solid solutions, Vegard’s law, and binary phase diagrams. Ch.4 §§4.1–4.2.
10 Mon 09/28/2026 Ch.4: ternary phase diagrams and the lever rule. Ch.4 §4.3.
11 Wed 09/30/2026 Ch.5: ionic bonding and lattice energy. Ch.5 §5.1.
12 Mon 10/05/2026 Exam 1 review / practice test.
13 Wed 10/07/2026 Exam 1 (MC): Chapters 1–5
Mon 10/12/2026 No class — Fall Break (Duke); classes resume Wed 10/14
14 Wed 10/14/2026 Ch.5: atomic orbitals and molecular orbital theory. Ch.5.
15 Mon 10/19/2026 Ch.5: molecular orbital theory and Jahn–Teller distortions. Ch.5.
16 Wed 10/21/2026 Ch.5: bond valence method. Ch.5.
17 Mon 10/26/2026 Ch.6: 1D band structures and Bloch functions. Ch.6 §§6.1–6.2.
18 Wed 10/28/2026 Ch.6: reciprocal space and 2D band structures. Ch.6 §6.3.
19 Mon 11/02/2026 Ch.6: graphene and 3D band structures. Ch.6.
20 Wed 11/04/2026 Ch.6/Ch.10: transition-metal oxide band structures; intro to conductivity. Ch.6; Ch.10 §10.1.
21 Mon 11/09/2026 Ch.10: electrical conductivity — Drude/free-electron model and Fermi–Dirac. Ch.10 §10.1.
22 Wed 11/11/2026 Ch.10: semiconductors and transition-metal conductivity. Ch.10 §§10.2–10.4.
23 Mon 11/16/2026 Ch.10/Ch.12: organic conductors, nanotubes, and superconductors. Ch.10; Ch.12.
24 Wed 11/18/2026 Ch.12: superconductors — BCS, electron–phonon coupling, and cuprates. Ch.12.
25 Mon 11/23/2026 Exam 2 (MC): Chapters 6, 10, 12 (band structure, conductivity, superconductivity) — last day of class