This set of questions is based on a single figure from Rountree et al. Inorg. Chem. 2019, 58, 6647. In this article (“Decoding Proton-Coupled Electron Transfer with Potential-pKa Diagrams”), Jillian Dempsey’s group from the University of North Carolina examined the mechanism by which a nickel-containing catalyst brings about the reduction of H+ to form H2 in non-aqueous solvent.
An introduction to the chemistry of inorganic compounds and materials. Descriptive chemistry of the elements. A survey of Crystal Field Theory, band theory, and various acid-base theories. Use of the chemical and scientific literature. Introduction to the seminar concept.
Modern theories of bonding and structure, spectroscopy, redox chemistry, and reaction mechanisms. Coordination compounds, organometallic clusters, and catalysis.
Fundamental topics in inorganic chemistry will be explored, among them: atomic theory and periodicity of the elements, bonding and properties of solid state materials, main group chemistry, structure and bonding of coordination compounds, and bio-inorganic systems. The laboratory component of the course will give students experience with a various laboratory techniques used in the synthesis and characterization of inorganic compounds.
Surveys classical and contemporary approaches to the study of coordination compounds, solid-state chemistry and the chemistry of elements based on groups in the periodic table.
An introduction to the chemistry of inorganic compounds and materials. Descriptive chemistry of the elements. A survey of Crystal Field Theory, band theory, and various acid-base theories. Use of the chemical and scientific literature. Introduction to the seminar concept.
CHEM 4654 (CRN: 10411) and the accompanying lab (CHEM 4654L) is worth 4 credit hours. CHEM 4654 covers atomic theory and spectroscopy, periodic properties, descriptive chemistry, inorganic structure and bonding, coordination chemistry, organometallic chemistry, symmetry and group theory. Students must be concurrently enrolled in CHEM 4654L (CRN: 10412).
This site is another excellent resource from Dean Johnston (see also his Symmetry resource).
Important Note: Part of this web resource has recently been replaced by a new site with a new URL. The previous version used JSmol and had some quirks with ion sizes, but this complete revision addresses those and has a much more robust "tutorial" style for students to work through solid state structural types.
During our first fellows workshop, the first 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.
This is the set of guidelines provided for authors by Nature Research. A 6-page PDF gives explicit guidance about rendering molecules using chemical drawing software, and a downloable ChemDraw template (.cds) is provided.