Rational design of supramolecular systems for application in photonic devices requires a clear understanding of both the mechanism of energy and electron transfer processes and how these processes can be manipulated. Central to achieving these goals is a detailed picture of their electronic structure and of the interaction between the constituent components. We review several approaches that have been taken towards gaining such understanding, with particular focus on the physical techniques employed. In the discussion, case studies are introduced to illustrate the key issues under consideration
A procedure for a detailed analysis of excited states in systems of interacting chromophores is prop...
In this work we demonstrate how quantum chemistry (QC) methods and molecular dynamics (MD) simulatio...
The purpose of this contribution is the description of the progress in theoretical investigations on...
Rational design of supramolecular systems for application in photonic devices requires a clear under...
This chapter introduces the supramolecular photochemistry, i.e. photochemistry applied to supramolec...
The development of multicomponent (supramolecular) systems that can perform predetermined functions ...
Photoinduced electron transfer (ET), hole transfer (HT), charge recombination (CR) and energy transf...
Molecules can be used as building blocks for the assembly of multicomponent (supramolecular) structu...
Understanding excited states is vital to photochemistry and spectroscopy, yet the study of excited s...
Devices are systems able to performs specific functions[1] which result from the coordinated operati...
One of the most important aims of photochemistry is the design and construction of artificial molecu...
Photoinduced electronic excitation energy transfer in chromophore complexes is studied by utilizing ...
We report on the recent progress achieved in modeling the electronic processes that take place at in...
Organometallic complexes have potential applications as the optically active components of organic l...
Energy and electron transfer are the subject of continuing attention, as key processes in molecular ...
A procedure for a detailed analysis of excited states in systems of interacting chromophores is prop...
In this work we demonstrate how quantum chemistry (QC) methods and molecular dynamics (MD) simulatio...
The purpose of this contribution is the description of the progress in theoretical investigations on...
Rational design of supramolecular systems for application in photonic devices requires a clear under...
This chapter introduces the supramolecular photochemistry, i.e. photochemistry applied to supramolec...
The development of multicomponent (supramolecular) systems that can perform predetermined functions ...
Photoinduced electron transfer (ET), hole transfer (HT), charge recombination (CR) and energy transf...
Molecules can be used as building blocks for the assembly of multicomponent (supramolecular) structu...
Understanding excited states is vital to photochemistry and spectroscopy, yet the study of excited s...
Devices are systems able to performs specific functions[1] which result from the coordinated operati...
One of the most important aims of photochemistry is the design and construction of artificial molecu...
Photoinduced electronic excitation energy transfer in chromophore complexes is studied by utilizing ...
We report on the recent progress achieved in modeling the electronic processes that take place at in...
Organometallic complexes have potential applications as the optically active components of organic l...
Energy and electron transfer are the subject of continuing attention, as key processes in molecular ...
A procedure for a detailed analysis of excited states in systems of interacting chromophores is prop...
In this work we demonstrate how quantum chemistry (QC) methods and molecular dynamics (MD) simulatio...
The purpose of this contribution is the description of the progress in theoretical investigations on...