Multidimensional ultrafast spectroscopies are one of the premier tools to investigate
condensed phase dynamics of biological, chemical and functional nanomaterial systems. As …

Strong cavity coupling to molecular vibrations creates vibration-polaritons capable of
modifying chemical reaction kinetics, product branching ratios, and charge transfer …

Abstract Two-dimensional infrared (2D-IR) spectroscopy is a powerful technique capable of
accessing structure and dynamics with ultrafast time resolution in a wide range of chemical …

The dynamically flexible lattices in lead halide perovskites may play important roles in
extending carrier recombination lifetime in 3D perovskite solar-cell absorbers and in exciton …

We demonstrate two-quantum (2Q) coherent two-dimensional (2D) electronic spectroscopy
using a shot-to-shot-modulated pulse shaper and fluorescence detection. Broadband …

Coherence delocalization has been investigated on a coupled‐cavity molecular polariton
platform in time, frequency, and spatial domains, enabled by ultrafast two‐dimensional …

Two-dimensional infrared (2D IR) spectroscopy has grown in prominence, since its inception
in the 1990s. With it's ability to report on the structure and dynamics of chemical systems with …

Self-assembled coordination cages form host–guest complexes through weak noncovalent
interactions. Knowledge of how these weak interactions affect the structure, reactivity, and …

Within the conceptual framework of Redfield theory, the optical response function arises
from the dynamical evolution of the system's density operator, where nonunitary relaxation is …

The infrared pulses used to generate nonlinear signals from a vibrational probe can cause
heating via solvent absorption. Solvent absorption followed by rapid vibrational relaxation …