This course lays a foundation in the subjects of atomic structure, bonding theory, symmetry theory, and acid-base chemistry, which is then used to explore advanced topics involving crystalline compounds, coordination compounds, and organometallic compounds. Topics include bonding, spectroscopy, and kinetics.
The goal of this course is to provide an in-depth introduction to the broad subject of organometallic chemistry. Selected topics include: main group organometallics, oxidation states, ligands, structure and bonding, mechanism and mechanistic analysis, cross coupling, hydrogenation, hydroformylation, olefin polymerization, olefin metathesis, and other applications in homogeneous catalysis and organic synthesis.
This course (CHM 599) offers a brief introduction to the study of Nuclear Chemistry, one of the key areas of chemistry. Success in this course requires mastery of chemical vocabulary, principles, and concepts as stated in the degree program’s learning outcomes. In CHM 599, students learn how nucleons interact within the nucleus, half-lives, decay pathways and mechanisms, and nuclear cross-sections and understand the importance of the sub-atomic particles in the nucleus.
This In-Class Activity is meant to follow up discussions of ligand field theory toward the end of MO theory including the effects of sigma donors, pi donors, and pi acceptors, and how it relates to absorption spectra and observed color of some transition metal complexes. Students have learned crystal field theory and the effects of geometry/symmetry on ∆, then we extend to LFT and how the chemistries of different ligands affect ∆.
This LO uses borane and carborane clusters to practice assigning point groups and counting electrons. It also asks students to recall electronegativity trends to predict dipoles, and they can check their predictions against calculated Mulliken charges.
CHEM 405 Advanced Inorganic Chemistry – 4 Credit Hours
This Lattice Structures Visualizer is useful to see simple cubic, body-centered cubic, face-centered cubic, NaCl, CaF2, and hcp lattice structures. You can add atoms/ions layer by layer, break them apart into individual unit cells, and perform other modifications to better observe the structures without physical models. I use this routinely in my general and inorganic chemistry classes.
The second cohort of VIPEr fellows pulled together learning objects that they've used and liked or want to try the next time they teach their inorganic courses.