We develop a model that establishes a quantitative link between the physical properties of molecular aggregates and their constituent building blocks. The relation is built on the coherent potential approximation, calibrated against exact results, and proven reliable for a wide range of parameters. It provides a practical method to compute spectra and transfer rates in multichromophoric systems from experimentally accessible monomer data. Applications to Förster energy transfer reveal optimal transfer rates as functions of both the system-bath coupling and intra-aggregate coherence.National Science Foundation (U.S.) (CHE-1112825
Plants and bacteria both have specialized light-harvesting pigment-protein complexes, composed of a ...
We study the Förster resonant energy transfer rate, absorption and emission spectra in multichromoph...
We study a large number of physically-plausible arrangements of chromophores, generated via a comput...
We compare theoretical methods for calculating excitation energy transfer rates in multichromophoric...
: Electronic couplings are key to understanding exciton delocalization and transport in natural and ...
Recent experiments on light harvesting complexes have shown clear indication of coherent transport o...
The interplay of excitonic and vibronic coupling in coupled chromophores determines the efficiency o...
We study a large number of physically-plausible arrangements of chromophores, generated via a comput...
In the search for enhanced control over the process of resonance energy transfer in multichromophore...
In large photosynthetic chromophore-protein complexes not all chromophores are coupled strongly, and...
This thesis presents an extensive study of charge-transfer (CT) dyes, an interesting class of organ...
Organic materials employed to harvest light consist of multiple chromophoric building blocks which a...
The modeling of supramolecular aggregates is an interesting challenge in the field of computational ...
The excitation energy transfer (EET) process for photosynthetic antenna complexes consisting of subu...
We theoretically study the distance, chain length, and temperature dependence of the electronic coup...
Plants and bacteria both have specialized light-harvesting pigment-protein complexes, composed of a ...
We study the Förster resonant energy transfer rate, absorption and emission spectra in multichromoph...
We study a large number of physically-plausible arrangements of chromophores, generated via a comput...
We compare theoretical methods for calculating excitation energy transfer rates in multichromophoric...
: Electronic couplings are key to understanding exciton delocalization and transport in natural and ...
Recent experiments on light harvesting complexes have shown clear indication of coherent transport o...
The interplay of excitonic and vibronic coupling in coupled chromophores determines the efficiency o...
We study a large number of physically-plausible arrangements of chromophores, generated via a comput...
In the search for enhanced control over the process of resonance energy transfer in multichromophore...
In large photosynthetic chromophore-protein complexes not all chromophores are coupled strongly, and...
This thesis presents an extensive study of charge-transfer (CT) dyes, an interesting class of organ...
Organic materials employed to harvest light consist of multiple chromophoric building blocks which a...
The modeling of supramolecular aggregates is an interesting challenge in the field of computational ...
The excitation energy transfer (EET) process for photosynthetic antenna complexes consisting of subu...
We theoretically study the distance, chain length, and temperature dependence of the electronic coup...
Plants and bacteria both have specialized light-harvesting pigment-protein complexes, composed of a ...
We study the Förster resonant energy transfer rate, absorption and emission spectra in multichromoph...
We study a large number of physically-plausible arrangements of chromophores, generated via a comput...