DNA nanotechnology has now enabled the self-assembly of almost any prescribed 3-
dimensional nanoscale structure in large numbers and with high fidelity. These structures …

Exciton-coupled chromophore dimers are an emerging class of optical probes for studies of
site-specific biomolecular interactions. Applying accurate theoretical models for the …

Control over the strength of excitonic coupling in molecular dye aggregates is a substantial
factor for the development of technologies such as light harvesting, optoelectronics, and …

Local fluctuations of the sugar–phosphate backbones and bases of DNA (often called DNA
'breathing') play a variety of critical roles in controlling the functional interactions of the DNA …

Molecular materials for light harvesting, computing, and fluorescence imaging require
nanoscale integration of electronically active subunits. Variation in the optical absorption …

Molecular excitons, which propagate spatially via electronic energy transfer, are central to
numerous applications including light harvesting, organic optoelectronics, and nanoscale …

Molecular excitons play a foundational role in chromophore aggregates found in light-
harvesting systems and offer potential applications in engineered excitonic systems …

Cyanine dyes represent a family of organic fluorophores with widespread utility in biological-
based applications ranging from real-time PCR probes to protein labeling. One burgeoning …

Molecular excitons are useful for applications in light harvesting, organic optoelectronics,
and nanoscale computing. Electronic energy transfer (EET) is a process central to the …

Understanding and controlling exciton coupling in dye aggregates has become a greater
focus as potential applications such as coherent exciton devices, nanophotonics, and …