We develop novel quantum chemical methods and apply them to study phenomena related to sustainable energies. We are interested in modeling molecular species, materials, and interfaces. We develop electronic structure theories, machine learning protocols, and combine quantum and classical simulation techniques.
We model actinide and transactinide chemistry, with the aim of understanding the electronic structure and chemical bonding of molecular species both in their ground and excited states.
We model catalysis, spectroscopy and photochemistry of molecular systems containing transition metals and catalytic phenomena involving metal or metal-oxide clusters attached to a support, such as metal-organic frameworks (MOFs).
Classical force field-based simulation methods overcome the system size limitations of quantum chemical simulation methods to model several phenomenal.
We develop electronic structure methods to model strongly correlated systems, including organic compounds, transition-metal, actinide and lanthanide complexes, and qubit candidates.
We use machine learning algorithms to parameterize models to make useful predictions from theoretical and experimental data.
Metal-organic frameworks (MOFs) are crystalline, porous, extended structures, which link transition metal ions by anionic organic linkers.
We develop electronic structure protocols to study magnetic properties of molecular systems and materials and to assess their potential as spin-qubits.
Quantum computers are inherently powerful tools in quantum chemistry because of their ability to prepare superpositions of states and perform unitary transformations.
Photoinduced physical and chemical processes in molecules are central to many applications in the chemical industry including photoredox catalysis, organic synthesis, and design of photosensitizers and photoluminescent materials.
What We Do
We develop and employ advanced quantum and classical simulations as well as data science to discover and understand the next generation of chemical systems and materials: catalysts that are more sustainable, photovoltaics that are more efficient, and qubits that are more reliable.
Abhishek Mitra receives the IBM-Zerner Graduate Student Award from Professor Richard G. Hennig at the 63rd Sanibel Symposium for his poster presentation, Towards Practical Quantum Chemistry on Quantum Computers using Continue reading Abhishek Mitra Wins IBM-Zerner Graduate Student Award
The Gagliardi Group congratulates Joanna Wang for successfully passing her candidacy exam! Joanna’s work focuses on “Unraveling chemical processes through hybrid quantum-classical algorithms with localized wave functions.” Her primary research interests Continue reading Joanna Wang passes her candidacy exam
The Gagliardi Research Group welcomes Ruijie (Ray) Zhu to the team.