This paper describes the use of a  catalytic nickel system for the hydrodefluorination of aryl amides. While organofluorine compounds are extremely useful because of their unique properties, there are growing concerns about the impact of these compounds on the environment. Carbon-fluorine bonds are extremely strong, and so getting them to react is a significant challenge for chemists.

This paper describes work from the Milstein group in which ruthenium catalysts with pincer ligands are used to depolymerize nylons by breaking the C-N bond and hydrogenating the resulting products to amines and alcohols. Waste plastic is a serious environmental concern that needs a solution. Organometallic chemists put significant effort into finding ways to convert monomers into polymers, and now we must figure out ways to do the reverse.

This literature discussion was created to accompany the coordination chemistry chapter of a foundation-level inorganic course. It introduces the concept of cyclopentadienyl (Cp) ring slippage as a mechanism for ligand substitution.

This 1FLO focuses on the fundamentals of catalysis and the interpretation of catalytic data. The questions guide students through the definition of catalysts, turnover frequency, turnover number, and require the students to extract information from a table of catalytic data. The data set comes from the unprecedented activity of carba-closo-dodecaborate ligated gold catalysts in hydroamination reported by Lavallo and coworkers in 2013 (Lavallo, V.; Wright II, J. H.; Tham, F. S.; Quinlivan, S. Angew. Chem. Int. Ed. 2013, 52, 3172.

This LO was developed in 2022 as part of a collection celebrating the “Out in Inorganic Chemistry: A Celebration of LGBTQIAPN+ Inorganic Chemists” Inorganic Chemistry special issue. Check out the editorial and issue here: Editorial  Special Issue

The questions below refer to the following 2020 publication by Dr. Jonathan Kuo and Dr. Karen Goldberg