Pierre Anthony Pantaleon Peralta

Pantaleon Peralta is a tenure-track Assistant Researcher at IMDEA Nanoscience Institute in Madrid, Spain, where he joined the Theoretical Modelling Group in May 2019. His position is affiliated with the Theory Group, focusing on computational and theoretical investigations of nanoscale quantum phenomena in low-dimensional materials.

His academic background includes:

• Bachelor of Science in Physics from Universidad Autónoma de Baja California (2007)
• Master of Science in Nanoscience and Nanotechnology from Universidad Autónoma de Baja California (2010), specializing in electronic transport in quantum nanowires with embedded impurities
• PhD in Physics from The University of Manchester's School of Physics and Astronomy (2019), researching electronic and transport properties of ferromagnetic spin lattices

Dr. Peralta's work centers on electronic, topological, structural, and superconducting properties of graphene multilayers and 2D material heterostructures. His research particularly addresses twisted systems (moiré patterns) and artificial superlattices, combining ab initio calculations with machine learning optimization to unravel correlated phenomena. This interdisciplinary approach bridges fundamental quantum physics and advanced computational methodology.

Publication analysis (2021-2024) reveals a concentrated focus on graphene heterostructures and moiré superlattices, with recurring themes in substrate interactions, electrostatic control, and topological transport. His output appears predominantly in high-impact journals including Physical Review Letters, Nature Reviews Physics, and Nature NPJ Computational Materials, demonstrating significant contributions to understanding superconductivity mechanisms in engineered 2D systems.

The researcher operates within IMDEA Nanoscience Institute's Theoretical Modelling Group, utilizing institutional high-performance computing resources to simulate quantum material behavior. This group maintains close collaborations with experimental teams to validate theoretical predictions about correlated electron systems in artificially structured nanomaterials.