Housecroft and Sharpe (Inorganic Chemistry, 3ed): This is a comprehensive inorganic textbook designed primarily for students at the Junior/Senior level. P-Chem would not be needed as a prerequisite for this text, but would be helpful. It includes both theoretical and descriptive material along with special topics, enough for a two semester course though it is easily adaptable to a one-semester "advanced inorganic" course by choosing only some topics. It is written in a clear and generally readable style and the full-color graphic contribute to student understanding. Ancillaries include electronic versions of most figures, and a student site with a limited number of multiple choice review questions for each chapter. The 3rd edition updates the end-of -the-chapter problems, though disappointingly does not draw problems from the recent literature. In general, these are good review problems to make sure students understand the basic concepts, but some faculty will want to supplement student assignments with more challenging problems. The list price for the student text is $175 for a paperback, 1098p version.
Take home writing assignment and in-class discussion.
Students found the kinetics a bit difficult to follow, but "got it" after we went over it in class. They picked up on the catalytic cycle right away and came away with some good "suggestions" for future work.
This is a literature discussion assignment in which students read a paper, come up with their own answers to the provided questions (and submit them). This is followed by a general in-class discussion on the paper. This particular article deals with hydrosilyation of carbonyl compounds by a Re catalyst and describes the mechanism and kinetics in detail. I found it a good paper to help students connect their P-chem (and inorganic) kinetics with a "real" system. As part of the literature assignment, I also ask students to draw an MO diagram of a simple substrate (for review).
Upon completing this LO students should be able to:
- read and extract information from a primary literature article
- develop the MO diagram for SiHCl3 using a fragment orbital approach
- interpret X-ray crystallographic data to explain bond distances and angles
- analyze kinetics data to understand reaction order and kinetic isotope effect for stoichiometric and catalytic reactions
- understand and explain how a reaction can be irreversible yet have labile ligands
Students who are currently enrolled in Thermodynamics and Kinetics may need to be paired with a student who has previously completed the course