Publications

The coherent optical response of materials plays a crucial role in advancing quantum information applications. Two-dimensional coherent spectroscopy (2DCS) serves as a powerful tool for investigating these properties across a wide range of systems. Traditionally, such experiments are conducted in the low-excitation regime, mainly due to theoretical challenges in interpreting data at high excitation intensities. In this work, we present a technique that enables exact calculations of 2D spectra even in the high-intensity regime. Our simulations are used to model experiments on semiconductor nanostructures, including both our own measurements and previously reported results from other research groups. These findings are highly relevant for researchers conducting spectroscopy with intense light fields.