This is a major contribution to the field of charge transport through organic pi-conjugated molecules. Besides its impact on molecular electronics, the work also applies to the design and development of light harvesting, photoconversion and catalytic modules.

The field of molecular electronics and organic photovoltaics is steadily growing. One of the major themes in molecular electronics is the construction, measurement, and understanding of the current-voltage response of an electronic circuit, in which molecules may act as conducting elements. The investigated molecular structures in this thesis have been shown to be suitable for distance-independent charge transport. More precisely, the systems investigated were of particular interest due to their ability to provide efficient electronic coupling between electroactive units, and display wire-like behavior in terms of transferring charges from donors to acceptors. Besides impacting on the field of molecular electronics, the results of this research also has applications in the design and development of light harvesting, photoconversion and catalytic modules. This work is a great asset to the field of charge transport through organic pi-conjugated molecules.

Prize-awarded thesis Nominated by the University of Erlangen for a Springer Theses Prize An outstanding contribution to charge transport through organic pi- conjugated molecules Results of research can be applied in field of molecular electronics and organic photovoltaics Includes supplementary material: sn.pub/extras

Inhalt
and Motivation.- to Molecular Electronics.- MotivationFocusing on Molecular Wires.- Theoretical Concepts.- Concepts of Photoinduced Electron and Energy Transfer Processes Across Molecular Bridges.- Molecule-Assisted Transport of Charges and Energy Across DonorWireAcceptor Junctions.- Examples of Molecular Wire Systems.- Results and Discussion.- Objective.- Instruments and Methods.- Energy Transfer Systems.- Electron Transfer Systems.- Conclusions and Outlook.