Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go?
Activation of anticancer therapeutics such as ruthenium (Ru) complexes is currently a topic of intense investigation. The success of phototherapy relies on photoactivation of therapeutics after the light passes through skin and tissue. In this paper, the photoactivation of anticancer Ru complexes wi...
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2017
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| Acceso en línea: | https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_09476539_v23_n45_p10832_Sun http://hdl.handle.net/20.500.12110/paper_09476539_v23_n45_p10832_Sun |
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paper:paper_09476539_v23_n45_p10832_Sun2023-06-08T15:54:00Z Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go? anticancer metallodrug photochemistry phototherapy ru complex Photochemical reactions Ruthenium Ruthenium compounds Synthesis (chemical) Absorption wavelengths Anti-cancer therapeutics Anticancer Metallodrug Photo activations Photoactivatable Phototherapy Ru complexes Tissue antineoplastic agent coordination compound ruthenium cell survival chemistry drug effects HeLa cell line human infrared radiation spectrophotometry Antineoplastic Agents Cell Survival Coordination Complexes HeLa Cells Humans Infrared Rays Ruthenium Spectrophotometry Activation of anticancer therapeutics such as ruthenium (Ru) complexes is currently a topic of intense investigation. The success of phototherapy relies on photoactivation of therapeutics after the light passes through skin and tissue. In this paper, the photoactivation of anticancer Ru complexes with 671-nm red light through tissue of different thicknesses was studied. Four photoactivatable Ru complexes with different absorption wavelengths were synthesized. Two of them (Ru3 and Ru4) were responsive to wavelengths in the “therapeutic window” (650–900 nm) and could be activated using 671-nm red light after passing through tissue up to 16-mm-thick. The other two (Ru1 and Ru2) could not be activated using red light. Additionally, activated Ru4 caused inhibition of cancer cells. These results suggest that photoactivatable Ru complexes are promising for applications in deep-tissue phototherapy. © 2017 Wiley-VCH Verlag GmbH & Co. KGaA, Weinheim 2017 https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_09476539_v23_n45_p10832_Sun http://hdl.handle.net/20.500.12110/paper_09476539_v23_n45_p10832_Sun |
| institution |
Universidad de Buenos Aires |
| institution_str |
I-28 |
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R-134 |
| collection |
Biblioteca Digital - Facultad de Ciencias Exactas y Naturales (UBA) |
| topic |
anticancer metallodrug photochemistry phototherapy ru complex Photochemical reactions Ruthenium Ruthenium compounds Synthesis (chemical) Absorption wavelengths Anti-cancer therapeutics Anticancer Metallodrug Photo activations Photoactivatable Phototherapy Ru complexes Tissue antineoplastic agent coordination compound ruthenium cell survival chemistry drug effects HeLa cell line human infrared radiation spectrophotometry Antineoplastic Agents Cell Survival Coordination Complexes HeLa Cells Humans Infrared Rays Ruthenium Spectrophotometry |
| spellingShingle |
anticancer metallodrug photochemistry phototherapy ru complex Photochemical reactions Ruthenium Ruthenium compounds Synthesis (chemical) Absorption wavelengths Anti-cancer therapeutics Anticancer Metallodrug Photo activations Photoactivatable Phototherapy Ru complexes Tissue antineoplastic agent coordination compound ruthenium cell survival chemistry drug effects HeLa cell line human infrared radiation spectrophotometry Antineoplastic Agents Cell Survival Coordination Complexes HeLa Cells Humans Infrared Rays Ruthenium Spectrophotometry Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go? |
| topic_facet |
anticancer metallodrug photochemistry phototherapy ru complex Photochemical reactions Ruthenium Ruthenium compounds Synthesis (chemical) Absorption wavelengths Anti-cancer therapeutics Anticancer Metallodrug Photo activations Photoactivatable Phototherapy Ru complexes Tissue antineoplastic agent coordination compound ruthenium cell survival chemistry drug effects HeLa cell line human infrared radiation spectrophotometry Antineoplastic Agents Cell Survival Coordination Complexes HeLa Cells Humans Infrared Rays Ruthenium Spectrophotometry |
| description |
Activation of anticancer therapeutics such as ruthenium (Ru) complexes is currently a topic of intense investigation. The success of phototherapy relies on photoactivation of therapeutics after the light passes through skin and tissue. In this paper, the photoactivation of anticancer Ru complexes with 671-nm red light through tissue of different thicknesses was studied. Four photoactivatable Ru complexes with different absorption wavelengths were synthesized. Two of them (Ru3 and Ru4) were responsive to wavelengths in the “therapeutic window” (650–900 nm) and could be activated using 671-nm red light after passing through tissue up to 16-mm-thick. The other two (Ru1 and Ru2) could not be activated using red light. Additionally, activated Ru4 caused inhibition of cancer cells. These results suggest that photoactivatable Ru complexes are promising for applications in deep-tissue phototherapy. © 2017 Wiley-VCH Verlag GmbH & Co. KGaA, Weinheim |
| title |
Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go? |
| title_short |
Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go? |
| title_full |
Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go? |
| title_fullStr |
Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go? |
| title_full_unstemmed |
Photoactivation of Anticancer Ru Complexes in Deep Tissue: How Deep Can We Go? |
| title_sort |
photoactivation of anticancer ru complexes in deep tissue: how deep can we go? |
| publishDate |
2017 |
| url |
https://bibliotecadigital.exactas.uba.ar/collection/paper/document/paper_09476539_v23_n45_p10832_Sun http://hdl.handle.net/20.500.12110/paper_09476539_v23_n45_p10832_Sun |
| _version_ |
1768545607812644864 |