Decoherence is the tendency of a time-evolved reduced density matrix for a subsystem to
assume a form corresponding to a statistical ensemble of states rather than a coherent …

Optical cavities hold great promise to manipulate and control the photochemistry of
molecules. We demonstrate how molecular photochemical processes can be manipulated …

Establishing the fundamental chemical principles that govern molecular electronic quantum
decoherence has remained an outstanding challenge. Fundamental questions such as how …

Electronic coherence is of utmost importance for the access and control of quantum-
mechanical solid-state properties. Using a purely electronic observable, the photocurrent …

We present coupled equations of motion for correlated electron–nuclear dynamics for real-
space and real-time propagation with a proper electron–nuclear correlation (ENC) from the …

We demonstrate that two-photon excitations to bipolariton states created by placing several
molecules in an optical cavity can be manipulated by quantum light. Entangled photons can …

We numerically isolate the limits of validity of the Landauer approximation to describe
charge transport along molecular junctions in condensed phase environments. To do so, we …

Protecting quantum coherences in matter from the detrimental effects introduced by its
environment is essential to employ molecules and materials in quantum technologies and …

Quantum decoherence arises due to uncontrollable entanglement between a system and its
environment. However, the effects of decoherence are often thought of and modeled through …

We introduce a general theory of electronic decoherence for molecules in the condensed
phase that captures contributions coming from pure dephasing effects, electronic transitions …