Michele Arcangelo Quinto is a research scientist in theoretical atomic physics at the Instituto de Física Rosario (IFIR), CONICET / Universidad Nacional Rosario, Argentina. In 2008, he earned a double Master’s degree in Communication Systems Engineering from Politecnico di Torino (Italy) and Institut Polytechnique de Grenoble (France). In 2013, he received a Ph.D. in Signal, Image, and Telecommunications from Université Grenoble Alpes, France, where his doctoral work focused on computational modeling of tomographic image reconstruction. His current research bridges computational physics and atomic/molecular science, with a focus on simulating ionization, excitation, and scattering processes in atoms and molecules under intermediate- to high-energy regimes. In collaboration with colleagues, he developed an advanced Monte Carlo method called TILDA-V, designed for radiation transport and radiodosimetry applications. TILDA-V enables high-fidelity modeling of ion and electron interactions with matter at micro- and nanoscales, down to the cellular level. His work contributes to the fundamental understanding of atomic collision dynamics and has potential applications in medical physics (e.g., proton therapy dosimetry), space radiation shielding, and plasma diagnostics. With a strong foundation in engineering systems and deepening expertise in theoretical physics, Dr. Quinto brings a unique interdisciplinary perspective to his research.
Michele Arcangelo Quinto is a research scientist in theoretical atomic physics at the Instituto de Física Rosario (IFIR), CONICET / Universidad Nacional Rosario, Argentina. In 2008, he earned a double Master’s degree in Communication Systems Engineering from Politecnico di Torino (Italy) and Institut Polytechnique de Grenoble (France). In 2013, he received a Ph.D. in Signal, Image, and Telecommunications from Université Grenoble Alpes, France, where his doctoral work focused on computational modeling of tomographic image reconstruction. His current research bridges computational physics and atomic/molecular science, with a focus on simulating ionization, excitation, and scattering processes in atoms and molecules under intermediate- to high-energy regimes. In collaboration with colleagues, he developed an advanced Monte Carlo method called TILDA-V, designed for radiation transport and radiodosimetry applications. TILDA-V enables high-fidelity modeling of ion and electron interactions with matter at micro- and nanoscales, down to the cellular level. His work contributes to the fundamental understanding of atomic collision dynamics and has potential applications in medical physics (e.g., proton therapy dosimetry), space radiation shielding, and plasma diagnostics. With a strong foundation in engineering systems and deepening expertise in theoretical physics, Dr. Quinto brings a unique interdisciplinary perspective to his research.