Photostability of 4,4′-Dihydroxythioindigo, a Mimetic of Indigo
The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecu...
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Published in | Angewandte Chemie International Edition Vol. 53; no. 2; pp. 591 - 594 |
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Main Authors | , , , , , , , |
Format | Journal Article |
Language | English |
Published |
Weinheim
WILEY-VCH Verlag
07.01.2014
WILEY‐VCH Verlag Wiley Wiley Subscription Services, Inc |
Edition | International ed. in English |
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Online Access | Get full text |
ISSN | 1433-7851 1521-3773 1521-3773 |
DOI | 10.1002/anie.201307016 |
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Abstract | The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecular proton transfer followed by a nonradiative relaxation to the ground state promote photostability. In indigo the hydrogen bond and the proton transfer occur between the opposing hemiindigo parts. Here, we provide experimental and theoretical evidence that a hydrogen transfer within one hemiindigo or hemithioindigo part is sufficient to attain photostability. This concept can serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum.
Beyond the blue: The vastly different photochemical properties of 4,4′‐dihydroxythioindigo and its dimethoxy derivative demonstrate that excited‐state proton transfer within the rigid ring system of only one hemithioindigo moiety improves photostability. This promoting mechanism is the same as that in indigo and in many UV stabilizers. This concept may serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. |
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AbstractList | The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecular proton transfer followed by a nonradiative relaxation to the ground state promote photostability. In indigo the hydrogen bond and the proton transfer occur between the opposing hemiindigo parts. Here, we provide experimental and theoretical evidence that a hydrogen transfer within one hemiindigo or hemithioindigo part is sufficient to attain photostability. This concept can serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. Beyond the blue: The vastly different photochemical properties of 4,4'-dihydroxythioindigo and its dimethoxy derivative demonstrate that excited-state proton transfer within the rigid ring system of only one hemithioindigo moiety improves photostability. This promoting mechanism is the same as that in indigo and in many UV stabilizers. This concept may serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecular proton transfer followed by a nonradiative relaxation to the ground state promote photostability. In indigo the hydrogen bond and the proton transfer occur between the opposing hemiindigo parts. Here, we provide experimental and theoretical evidence that a hydrogen transfer within one hemiindigo or hemithioindigo part is sufficient to attain photostability. This concept can serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum.The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecular proton transfer followed by a nonradiative relaxation to the ground state promote photostability. In indigo the hydrogen bond and the proton transfer occur between the opposing hemiindigo parts. Here, we provide experimental and theoretical evidence that a hydrogen transfer within one hemiindigo or hemithioindigo part is sufficient to attain photostability. This concept can serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecular proton transfer followed by a nonradiative relaxation to the ground state promote photostability. In indigo the hydrogen bond and the proton transfer occur between the opposing hemiindigo parts. Here, we provide experimental and theoretical evidence that a hydrogen transfer within one hemiindigo or hemithioindigo part is sufficient to attain photostability. This concept can serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecular proton transfer followed by a nonradiative relaxation to the ground state promote photostability. In indigo the hydrogen bond and the proton transfer occur between the opposing hemiindigo parts. Here, we provide experimental and theoretical evidence that a hydrogen transfer within one hemiindigo or hemithioindigo part is sufficient to attain photostability. This concept can serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. [PUBLICATION ABSTRACT] The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the high photostability of indigo has been the subject of intensive research. Recently, it was proposed that after photoexcitation an intramolecular proton transfer followed by a nonradiative relaxation to the ground state promote photostability. In indigo the hydrogen bond and the proton transfer occur between the opposing hemiindigo parts. Here, we provide experimental and theoretical evidence that a hydrogen transfer within one hemiindigo or hemithioindigo part is sufficient to attain photostability. This concept can serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. Beyond the blue: The vastly different photochemical properties of 4,4′‐dihydroxythioindigo and its dimethoxy derivative demonstrate that excited‐state proton transfer within the rigid ring system of only one hemithioindigo moiety improves photostability. This promoting mechanism is the same as that in indigo and in many UV stabilizers. This concept may serve as an interesting strategy towards new photostable dyes for the visible part of the spectrum. |
Author | Lüttke, Wolfgang Zinth, Wolfgang Maerz, Benjamin Dittmann, Marc Oesterling, Sven Engelhard, Martin Graupner, Franziska F. de Vivie-Riedle, Regina |
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Copyright | Copyright © 2014 WILEY‐VCH Verlag GmbH & Co. KGaA, Weinheim Copyright © 2014 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim. Copyright © 2014 WILEY-VCH Verlag GmbH & Co. KGaA, Weinheim |
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Keywords | thioindigo pigments SPECTROSCOPY CHROMOPHORE photochemistry ultrafast spectroscopy EXPEDIENT SYNTHESIS proton transfer dyes DIRECTED METALATION dyes/pigments |
Language | English |
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Notes | ark:/67375/WNG-7NXD2BFX-B ArticleID:ANIE201307016 istex:E5F1C8B0E052ADC37054F2D3DAE9F4B6C71FA500 DFG This work was supported by the DFG through the SFB "Dynamics and intermediates of molecular transformations" (SFB 749, A5 and C2) and the Cluster of Excellence "Munich Center for Advanced Photonics" (MAP). W.Z. and F.F.G. thank C. Nehls for help with the time-resolved emission experiments. Scholarships from the International Max Planck Research School (IMPRS) in Chemical Biology and the Studienstiftung des deutschen Volkes are gratefully acknowledged (M.D.). This work was supported by the DFG through the SFB “Dynamics and intermediates of molecular transformations” (SFB 749, A5 and C2) and the Cluster of Excellence “Munich Center for Advanced Photonics” (MAP). W.Z. and F.F.G. thank C. Nehls for help with the time‐resolved emission experiments. Scholarships from the International Max Planck Research School (IMPRS) in Chemical Biology and the Studienstiftung des deutschen Volkes are gratefully acknowledged (M.D.). ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 14 content type line 23 |
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Snippet | The photochemical properties of indigo, a widely used industrial dye, has attracted both experimentalists and theoreticians from the beginning. Especially the... |
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SubjectTerms | Chemistry Chemistry, Multidisciplinary Derivatives Drug Stability Dyes dyes/pigments Hydrogen bonds Indigo Indigo Carmine - analogs & derivatives Indigo Carmine - chemistry Indigo Carmine - radiation effects Isomerism Models, Chemical Models, Molecular Photochemical Photochemicals Photochemistry Photoexcitation Physical Sciences proton transfer Protons Science & Technology Strategy thioindigo ultrafast spectroscopy Ultraviolet Rays UV stabilizers |
Title | Photostability of 4,4′-Dihydroxythioindigo, a Mimetic of Indigo |
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