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Caprolactone-based bipyridine macroligands for novel ruthenium polypyridyl complexes for applications in dye-sensitized solar cells

Veronica Marin, Elisabeth Holder, Richard Hoogenboom, Ulrich S. Schubert

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Abstract

In an attempt to reduce electrolyte loss in solar cells, the use of sold or quasi-solid state electrolytes is advantageous. The authors synthesized a metal contg. polymer via two synthetic pathways. In the first, a bipyridine-bisphenanthroline ruthenium metal complex with a hydroxy functionality was used as metallo-initiator for a living polymn. reaction with e-caprolactone in order to generate a metal complex with a well-defined polyester macro-ligand. In the second method referred as the macro-ligand chelation approach the synthesis consists of the P(e-caprolactam) polyester-contg. bipyridyl ligand, which was subsequently coordinated to the ruthenium metal. Absorption and emission spectra were used to verify incorporation of the macro-ligands, ruthenium content, the polyester structure, and the hexafluoroantimonate assocn

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In an attempt to reduce electrolyte loss in solar cells, the use of sold or quasi-solid state electrolytes is advantageous. The authors synthesized a metal contg. polymer via two synthetic pathways. In the first, a bipyridine-bisphenanthroline ruthenium metal complex with a hydroxy functionality was used as metallo-initiator for a living polymn. reaction with e-caprolactone in order to generate a metal complex with a well-defined polyester macro-ligand. In the second method referred as the macro-ligand chelation approach the synthesis consists of the P(e-caprolactam) polyester-contg. bipyridyl ligand, which was subsequently coordinated to the ruthenium metal. Absorption and emission spectra were used to verify incorporation of the macro-ligands, ruthenium content, the polyester structure, and the hexafluoroantimonate assocn

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Available abstract

In an attempt to reduce electrolyte loss in solar cells, the use of sold or quasi-solid state electrolytes is advantageous. The authors synthesized a metal contg. polymer via two synthetic pathways. In the first, a bipyridine-bisphenanthroline ruthenium metal complex with a hydroxy functionality was used as metallo-initiator for a living polymn. reaction with e-caprolactone in order to generate a metal complex with a well-defined polyester macro-ligand. In the second method referred as the macro-ligand chelation approach the synthesis consists of the P(e-caprolactam) polyester-contg. bipyridyl ligand, which was subsequently coordinated to the ruthenium metal. Absorption and emission spectra were used to verify incorporation of the macro-ligands, ruthenium content, the polyester structure, and the hexafluoroantimonate assocn

Key concepts: Ruthenium, Polyester, Ligand (biochemistry), Bipyridine, Metal, Chemistry, Electrolyte, Polymer chemistry

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Caprolactone-based bipyridine macroligands for novel ruthenium polypyridyl complexes for applications in dye-sensitized solar cells — Research Paper | ScholarLens