Over the past few decades, coherent broadband spectroscopy has been widely used to
improve our understanding of ultrafast processes (eg, photoinduced electron transfer, proton …

Coherence refers to correlations in waves. Because matter has a wave-particle nature, it is
unsurprising that coherence has deep connections with the most contemporary issues in …

Crossings of electronic potential energy surfaces in nuclear configuration space, known as
conical intersections, determine the rates and outcomes of a large class of photochemical …

Ultrafast optical microscopy, generally employed by incorporating ultrafast laser pulses into
microscopes, can provide spatially resolved mechanistic insight into scientific problems …

Femtosecond laser pulses readily produce coherent quantum beats in transient–absorption
spectra. These oscillatory signals often arise from molecular vibrations and therefore may …

The low-frequency collective vibrational modes in proteins as well as the protein–water
interface have been suggested as dominant factors controlling the efficiency of biochemical …

We concisely review the main methodological approaches to model nonadiabatic dynamics
in isotropic solutions and their applications. Three general classes of models are identified …

The efficiency of two-dimensional Dion–Jacobson-type materials relies on the complex
interplay between electronic and lattice dynamics; however, questions remain about the …

Photosynthetic organisms convert sunlight to electricity with near unity quantum efficiency.
Absorbed photoenergy transfers through a network of chromophores positioned within …

Launching and tracking wavepacket dynamics with two-dimensional electronic spectroscopy
(2DES) provides insight into the complex interactions that underlie coherent processes …