This collection of learning objects was created to celebrate the National ACS Award Winners 2022 who are members of the Division of Inorganic Chemistry. The list of award winners is shown below.
A collection of all of the IONiC VIPEr SLiThErs (Supporting Learning with Interactive Teaching: a Hosted, Engaging Roundtable). These events are short presentations on a topic followed by a period of discussion between the presenter and live participants. Each of these events is recorded and posted to the IONiC VIPEr YouTube Channel.
This is a really interesting paper in J. Am. Chem. Soc. (2025, 147, 34641-34646) involving a complex salt in which both the cation and anion are metallocenes. While a majority of the paper is focused on the characterization of two new compounds, it presents some excellent opportunities to practice counting electrons, one of which was a challenge to this author.
Kyle Grice (DePaul) and Jacob Lutter (University of Southern Indiana) will present on how they have been successful in designing and publishing research at their respective PUI.
A discussion about the 2023 ACS Guidelines for Undergraduate Chemistry Programs with Michelle Brooks (Assistant Director of the Office of Higher Education at ACS), Cora MacBeth (Emory University) and Barb Reisner (James Madison University). Additional discussion is available to registered faculty users.
This goes back to SLiThEr #14 when we interviewed two senior undergraduates in the midst of the COVID pandemic. At the time of this SLiThEr, both are in graduate school and getting close to their PhD.
Reilly Gwinn (Virginia Tech) and Sydney Towell (UNC - Chapel Hill) update us on their career paths.
This two-part activity offers an integrated approach to understanding molecular orbitals and molecular geometry. In class, students will first engage in a hands on, qualitative construction of the H2O molecular orbital diagram using symmetry principles and a whiteboard.
The website entitled COMFORT (https://ipc.iisc.ac.in/~ags/ip312/comfort.html) is a easy way to visualise fragment molecular orbitals of many different organic ligands and also metal fragments. One can match the frontier orbitals of the fragments to see if they can form stable molecules. It helps one to see how fragments of an octahedral organometallic complex can be stripped of its ligands one by one to generate fragments that can match organic ligands with multiple "pi" bonds.
I was lecturing along today, teaching the basics of the theory and how to interpret Tanabe-Sunago diagrams, and I got to my slides where I show them how to calculate ∆o from Co(en)3, and it just fell apart. I had done V(III) as a first example, and then I wanted the students to practice the calculations, but my slides were not up to the task. I thought to myself, in the moment, this would be a good opportunity to do an in-class activity, I should write it. So, in the spirit of making next year easier, I did. I have not used this in class, but I wish I had had it this morning.