Theodor Agapie
Assistant: Margarita Davis
Research in the Agapie laboratory is targeted toward developing new, practical catalysts by using inspiration from biological systems. Some of the most fascinating catalysts in Nature display complex inorganic cofactors, sometimes in combination with organic cofactors, and perform chemical transformations (water reduction and oxidation, carbon dioxide reduction, dinitrogen reduction, dioxygen reduction) that are arguably prerequisites for the advance of society in the current context of limiting energy resources and environmental concerns. The group's approach to these chemical transformations is centered on the synthesis and study of metal complexes relevant to catalysis. Given the scale of the potential applications, we focus on studies of inexpensive and abundant first-row transition metals. To these ends we have developed new methodologies for the synthesis of complex inorganic targets and have performed mechanistic studies to understand the properties and reactivity of these compounds. Our research focuses on three general topics:
- aspects of metal oxide clusters relevant to water oxidation and dioxygen reduction;
- transition metal complexes supported by hemi-labile, redox and acid-base non-innocent ligands for small molecule conversion;
- multimetallic catalysts for olefin polymerization.
Publications
- He, Tianyi;Bruening, Meaghan A. et al. (2025) Novel Silicate Platform as Weakly‐Coordinating Anions for Diverse Organometallic and Electrochemical ApplicationsAngewandte Chemie International Edition
- Ghana, Priyabrata;Xiong, Shuoyan et al. (2024) Catalyst Editing via Post-Synthetic Functionalization by Phosphonium Generation and Anion Exchange for Nickel-Catalyzed Ethylene/Acrylate CopolymerizationJournal of the American Chemical Society
- Heim, Gavin P.;Hirahara, Masanari et al. (2024) Synthesis and Electronic Properties of Nitrogen-Rich NanographeneChemical Communications
- Heim, Gavin P.;Bruening, Meaghan A. et al. (2024) Potassium ion modulation of the Cu electrode-electrolyte interface with ionomers enhances CO₂ reduction to C₂₊ productsJoule
- Watkins, Nicholas B.;Lai, Yungchieh et al. (2024) Electrode Surface Heating with Organic Films Improves CO₂ Reduction Kinetics on CopperACS Energy Letters
- Xiong, Shuoyan;Spinney, Heather A. et al. (2024) Switchable Synthesis of Ethylene/Acrylate Copolymers by a Dinickel Catalyst: Evidence for Chain Growth on Both Nickel Centers and Concepts of Cation Exchange PolymerizationACS Catalysis
- Le, Linh N. V.;Joyce, Justin P. et al. (2024) Highly Activated Terminal Carbon Monoxide Ligand in an Iron–Sulfur Cluster Model of FeMco with Intermediate Local Spin State at FeJournal of the American Chemical Society
- Lionetti, Davide;Suseno, Sandy et al. (2024) Redox Processes Involving Oxygen: The Surprising Influence of Redox-Inactive Lewis AcidsJACS Au
- Aitbekova, Aisulu;Watkins, Nicholas et al. (2024) Molecular Additives Improve the Selectivity of CO₂ Photoelectrochemical Reduction over Gold Nanoparticles on Gallium NitrideNano Letters
- Xiong, Shuoyan;Hong, Alexandria et al. (2023) Acrylate-Induced β-H Elimination in Coordination Insertion Copolymerizaton Catalyzed by NickelJournal of the American Chemical Society
2022-23
Instructor: Agapie
Instructors: Agapie (b), Nelson (a)
Instructors: Agapie, staff
2019-20
Instructors: Agapie, Hadt
Instructors: Peters, Agapie (a)