This project uses density-functional theory to design ligands for two-coordinate dysprosium(III) complexes, aiming to enhance single-molecule magnets that store data at high temperatures. It builds on a proven blueprint to push the limits of molecular magnetic information storage.

This project aims to design and build an electric-field cell for nanoscale manipulation of molecular qubits using pulsed electric fields. Integrated with EPR spectroscopy, the device will enable precise quantum control, advancing scalable quantum information technologies.

This project develops high-frequency molecular qubits using heavy p-block radicals to enhance quantum coherence and sensitivity. It involves synthesis under anaerobic conditions, EPR and NMR spectroscopy, and computational analysis to advance quantum computing technologies.

Exploring molecular magnets, this project uses quantum chemistry to study how iodide modifications affect magnetic communication in metal-metal half-bonds, aiming to design new high-performance magnetic molecules.