Angle-resolved photoemission spectroscopy (ARPES), with its exceptional sensitivity to both
the binding energy and the momentum of valence electrons in solids, provides unparalleled …

Excitons–two-particle correlated electron-hole pairs–are the dominant low-energy optical
excitation in the broad class of semiconductor materials, which range from classical silicon …

Ultrafast nonlinear optical phenomena in solids have been attracting a great deal of interest
as novel methodologies for the femtosecond spectroscopy of electron dynamics and control …

Electron transfer is a fundamental energy conversion process widely present in synthetic,
industrial, and natural systems. Understanding the electron transfer process is important to …

Associating atomic vacancies to excited-state transport phenomena in two-dimensional
semiconductors demands a detailed understanding of the exciton transitions involved. We …

We study low-frequency linearly polarized laser-dressing in materials with valley (graphene
and hexagonal-Boron-Nitride) and topological (Dirac-and Weyl-semimetals) properties. In …

Optical properties of heterostructures composed of layered 2D materials, such as transition
metal dichalcogenides (TMDs) and graphene, are broadly explored. Of particular interest …

Microscopic many-body models based on inputs from first-principles density functional
theory are used to calculate the carrier losses due to free carrier Auger–Meitner …

The emergent electronic, spin, and other quantum properties of 2D heterostructures of
graphene and transition metal dichalcogenides are controlled by the underlying interlayer …

The modulation of energy transfer processes in transition metal dichalcogenide
heterostructures signifies a promising avenue for the precise control of energy distribution …