As Computational Chemist I have worked in different fields of Chemical Physics and Physical Chemistry. The difference is subtle: practically, it means that I have studied chemical and physical phenomena using the point of view of both the chemist and the physicist.
The common point of my research works is the interaction between light and matter. Of course, I have just scratched a tiny portion of the phenomena that can arise when something (a molecule, a crystal, an amorphous material) interacts with photons (the light particles). The possible outcomes of these interactions are virtually infinite and they depend on many factors: the photons energy, the number of photons, the number of interactions, the chemical and physical nature of the interacting material, the external temperature, the presence of other molecules, and probability.
I have principally focused my attention on the following three main phenomena:
Interaction between X-ray radiation and photo-excited metal-organic complexes
Ultrafast dynamics of metal-organic complexes
Electronic and Optical properties of metal-organic frameworks (MOFs)
Solvent-induced luminescence quenching: Static and time-resolved x-ray absorption spectroscopy of a copper (I) phenanthroline complex
The Journal of Physical Chemistry A 117 (22), 4591-4601, 89, 2013
The role of Hartree–Fock exchange in the simulation of x-ray absorption spectra: a study of photoexcited [Fe (bpy) 3] 2+
Chemical Physics Letters 580, 179-184 38, 2013
A vibronic coupling hamiltonian to describe the ultrafast excited state dynamics of a Cu (I)-phenanthroline complex
CHIMIA International Journal for Chemistry 68 (4), 227-230 29, 2014
A quantum dynamics study of the ultrafast relaxation in a prototypical Cu (I)–phenanthroline
The Journal of Physical Chemistry A 118 (42), 9861-9869 55, 2014
Theoretical rationalization of the emission properties of prototypical Cu (I)–phenanthroline complexes
The Journal of Physical Chemistry A 119 (27), 7026-7037 40, 2015
Probing wavepacket dynamics using ultrafast x-ray spectroscopy
Journal of Physics B: Atomic, Molecular and Optical Physics 48 (21), 214001 31, 2015
Photophysics of a copper phenanthroline elucidated by trajectory and wavepacket-based quantum dynamics: a synergetic approach
Physical Chemistry Chemical Physics 19 (30), 19590-19600 28, 2017
Localized holes and delocalized electrons in photoexcited inorganic perovskites: Watching each atomic actor by picosecond X-ray absorption spectroscopy
Structural Dynamics 4 (4), 044002 35, 2017
Vibrational coherence transfer in the ultrafast intersystem crossing of a diplatinum complex in solution
Proceedings of the National Academy of Sciences 115 (28), E6396-E6403 16, 2018
Photocatalytic hydrogen generation from a visible-light responsive metal–organic framework system: the impact of nickel phosphide nanoparticles
Journal of Materials Chemistry A 6 (6), 2476-2481 40, 2018
Lanthanide-based near-infrared emitting metal–organic frameworks with tunable excitation wavelengths and high quantum yields
Chemical Communications 54 (50), 6816-6819 14, 2018
On the Electronic and Optical Properties of Metal–Organic Frameworks: Case Study of MIL-125 and MIL-125-NH2
The Journal of Physical Chemistry C 124 (7), 4065-4072, 2020
Insights into the Electronic Properties and Charge Transfer Mechanism of a Porphyrin Ruthenium-Based Metal–Organic Framework
Chemistry of Materials 32 (10), 4194-4204, 2020
Energy-based descriptors for photo-catalytically active metal–organic framework discovery
Journal of Materials Chemistry A 8 (8), 4473-4482, 2020
Taking lanthanides out of isolation: tuning the optical properties of metal–organic frameworks
Chemical Science 11 (16), 4164-4170, 2020