Their investigation into how oxygen activation and oxygen atom transfer (OAT) reactivity mechanisms differ across the P, Sb, and Bi triad represents a significant contribution to the field.

Our first TM-based chemistry being accepted in JACS, a new platform for mimicry of Cu-ZSM-5!

Our first paper being accepted in JACS for their endeavor, focusing on four-electron dioxygen reduction and unusual reactive Intermediates via phosphorus-ligand redox cooperativity!

Localized Cation Unlocks Unique Activity–Selectivity Trends in Molecular Oxygen Reduction Catalysis

Direct O2 Activation by Ligand-Constrained Pnictogen Complexes: Contrasting Mechanisms and OAT Reactivity across the P, Sb, and Bi Triad

Coordination Chemistry of Ligands Bearing Heavy Group 14 and 15 Elements: Comparative Analysis of their Influence on Transition Metal Chemistry

Heteromultimetallic Platform for Enhanced C–H Bond Activation: Aluminum-incorporated Dicopper Complex Mimicking Cu-ZSM-5 Structure and Oxidative Reactivity

Phosphorus-Ligand Redox Cooperative Catalysis: Unraveling Four-Electron Dioxygen Reduction Pathways and Reactive Intermediates

Cu-Based Thermoelectrochemical Cells for Direct Conversion of Low-Grade Waste Heat into Electricity

Enthalpy-Controlled Insertion of a “Nonspectator” Tricoordinate Phosphorus Ligand into Group 10 Transition Metal–Carbon Bonds