Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer/Micelle Structure
- Author
- JIANGSHENG XU1 ; FANG ZENG1 ; HAO WU1 ; CAIPING HU1 ; SHUIZHU WU1
[1] College of Materials Science and Engineering, State Key Laboratory of Luminescent Materials and Devices, South China University of Technology, Guangzhou 510640, China - Source
Biomacromolecules. 2014, Vol 15, Num 11, pp 4249-4259, 11 p ; ref : 69 ref
- ISSN
- 1525-7797
- Scientific domain
- Biochemistry, molecular biology, biophysics; Polymers, paint and wood industries
- Publisher
- American Chemical Society, Washington, DC
- Publication country
- United States
- Document type
- Article
- Language
- English
- Keyword (fr)
- Activité biologique Amine copolymère Apoptose Base nucléique Cellule tumorale Ciblage Cinétique Copolymère triséquencé Ethylène oxyde copolymère Etude expérimentale Groupe latéral In vitro Internalisation Libération Micelle Mitochondrie Méthacrylate copolymère Nanoencapsulation Photosensibilisant Photothérapie dynamique Polymère amphiphile Polyélectrolyte Porphyrine Solution aqueuse Solution micellaire Synthèse chimique pH Adénine dérivé copolymère Méthacrylate de 2-diéthylaminoéthyle copolymère Séquence greffée Séquence linéaire
- Keyword (en)
- Biological activity Amine copolymer Apoptosis Nucleic base Tumor cell Targeting Kinetics Triblock copolymer Ethylene oxide copolymer Experimental study Lateral group In vitro Internalization Release Micelle Mitochondria Methacrylate copolymer Nanoencapsulation Photosensitizer Photodynamic therapy Amphiphilic polymer Polyelectrolyte Porphyrin Aqueous solution Micellar solution Chemical synthesis pH
- Keyword (es)
- Actividad biológica Amina copolímero Apoptosis Base nucleica Célula tumoral Blancado Cinética Copolímero trisecuencia Etileno óxido copolímero Estudio experimental Grupo lateral In vitro Internalización Liberación Micela Mitocondria Metacrilato copolímero Nanoencapsulación Fotosensibilizante Fototerapia dinamica Polímero amfifilo Polielectrolito Porfirina Solución acuosa Solución micelar Síntesis química pH
- Classification
- Pascal
- 001 Exact sciences and technology / 001D Applied sciences / 001D09 Physicochemistry of polymers / 001D09D Organic polymers / 001D09D04 Properties and characterization / 001D09D04I Special properties (catalyst, reagent or carrier)
- Pascal
- 002 Biological and medical sciences / 002B Medical sciences / 002B04 Tumors / 002B04H Treatment. General aspects / 002B04H02 Treatment with physical agents / 002B04H02B Photoradiation therapy and photosensitizing agent
- Discipline
- Physical chemistry of polymers Tumours
- Origin
- Inist-CNRS
- Database
- PASCAL
- INIST identifier
- 29036905
Sauf mention contraire ci-dessus, le contenu de cette notice bibliographique peut être utilisé dans le cadre d’une licence CC BY 4.0 Inist-CNRS / Unless otherwise stated above, the content of this bibliographic record may be used under a CC BY 4.0 licence by Inist-CNRS / A menos que se haya señalado antes, el contenido de este registro bibliográfico puede ser utilizado al amparo de una licencia CC BY 4.0 Inist-CNRS
Access to the document
Install on your browser
DOI
10.1021/bm501270e 
https://dx.doi.org/10.1021/bm501270e
"O:13:\"PanistOpenUrl\":36:{s:10:\"\u0000*\u0000openUrl\";N;s:6:\"\u0000*\u0000idc\";N;s:6:\"\u0000*\u0000fmt\";s:7:\"journal\";s:6:\"\u0000*\u0000doi\";s:17:\"10.1021\/bm501270e\";s:6:\"\u0000*\u0000pii\";s:0:\"\";s:7:\"\u0000*\u0000pmid\";s:0:\"\";s:9:\"\u0000*\u0000atitle\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:9:\"\u0000*\u0000jtitle\";s:17:\"Biomacromolecules\";s:9:\"\u0000*\u0000stitle\";s:17:\"Biomacromolecules\";s:7:\"\u0000*\u0000date\";s:4:\"2014\";s:9:\"\u0000*\u0000volume\";s:2:\"15\";s:8:\"\u0000*\u0000issue\";s:2:\"11\";s:8:\"\u0000*\u0000spage\";s:4:\"4249\";s:8:\"\u0000*\u0000epage\";s:4:\"4259\";s:8:\"\u0000*\u0000pages\";s:0:\"\";s:7:\"\u0000*\u0000issn\";s:9:\"1525-7797\";s:8:\"\u0000*\u0000eissn\";s:0:\"\";s:9:\"\u0000*\u0000aulast\";s:13:\"JIANGSHENG XU\";s:10:\"\u0000*\u0000aufirst\";s:0:\"\";s:9:\"\u0000*\u0000auinit\";s:0:\"\";s:10:\"\u0000*\u0000auinitm\";s:0:\"\";s:5:\"\u0000*\u0000au\";a:4:{i:0;s:9:\"FANG ZENG\";i:1;s:6:\"HAO WU\";i:2;s:10:\"CAIPING HU\";i:3;s:10:\"SHUIZHU WU\";}s:9:\"\u0000*\u0000aucorp\";s:0:\"\";s:7:\"\u0000*\u0000isbn\";s:0:\"\";s:8:\"\u0000*\u0000coden\";s:0:\"\";s:8:\"\u0000*\u0000genre\";s:7:\"article\";s:7:\"\u0000*\u0000part\";s:0:\"\";s:9:\"\u0000*\u0000btitle\";s:0:\"\";s:8:\"\u0000*\u0000title\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:8:\"\u0000*\u0000place\";s:14:\"Washington, DC\";s:6:\"\u0000*\u0000pub\";s:25:\"American Chemical Society\";s:10:\"\u0000*\u0000edition\";s:0:\"\";s:9:\"\u0000*\u0000tpages\";s:2:\"11\";s:9:\"\u0000*\u0000series\";s:0:\"\";s:8:\"\u0000*\u0000proxy\";s:30:\"http:\/\/proxyout.inist.fr:8080\/\";s:12:\"\u0000*\u0000integrite\";b:1;}"
Panist access
"O:12:\"IstexOpenUrl\":35:{s:10:\"\u0000*\u0000openUrl\";N;s:6:\"\u0000*\u0000fmt\";s:7:\"journal\";s:6:\"\u0000*\u0000doi\";s:17:\"10.1021\/bm501270e\";s:6:\"\u0000*\u0000pii\";s:0:\"\";s:7:\"\u0000*\u0000pmid\";s:0:\"\";s:9:\"\u0000*\u0000atitle\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:9:\"\u0000*\u0000jtitle\";s:17:\"Biomacromolecules\";s:9:\"\u0000*\u0000stitle\";s:17:\"Biomacromolecules\";s:7:\"\u0000*\u0000date\";s:4:\"2014\";s:9:\"\u0000*\u0000volume\";s:2:\"15\";s:8:\"\u0000*\u0000issue\";s:2:\"11\";s:8:\"\u0000*\u0000spage\";s:4:\"4249\";s:8:\"\u0000*\u0000epage\";s:4:\"4259\";s:8:\"\u0000*\u0000pages\";s:0:\"\";s:7:\"\u0000*\u0000issn\";s:9:\"1525-7797\";s:8:\"\u0000*\u0000eissn\";s:0:\"\";s:9:\"\u0000*\u0000aulast\";s:13:\"JIANGSHENG XU\";s:10:\"\u0000*\u0000aufirst\";s:0:\"\";s:9:\"\u0000*\u0000auinit\";s:0:\"\";s:10:\"\u0000*\u0000auinitm\";s:0:\"\";s:5:\"\u0000*\u0000au\";a:4:{i:0;s:9:\"FANG ZENG\";i:1;s:6:\"HAO WU\";i:2;s:10:\"CAIPING HU\";i:3;s:10:\"SHUIZHU WU\";}s:9:\"\u0000*\u0000aucorp\";s:0:\"\";s:7:\"\u0000*\u0000isbn\";s:0:\"\";s:8:\"\u0000*\u0000coden\";s:0:\"\";s:8:\"\u0000*\u0000genre\";s:7:\"article\";s:7:\"\u0000*\u0000part\";s:0:\"\";s:9:\"\u0000*\u0000btitle\";s:0:\"\";s:8:\"\u0000*\u0000title\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:8:\"\u0000*\u0000place\";s:14:\"Washington, DC\";s:6:\"\u0000*\u0000pub\";s:25:\"American Chemical Society\";s:10:\"\u0000*\u0000edition\";s:0:\"\";s:9:\"\u0000*\u0000tpages\";s:2:\"11\";s:9:\"\u0000*\u0000series\";s:0:\"\";s:8:\"\u0000*\u0000proxy\";s:30:\"http:\/\/proxyout.inist.fr:8080\/\";s:12:\"\u0000*\u0000integrite\";b:1;}"
Istex access
"O:16:\"UnpaywallOpenUrl\":35:{s:8:\"\u0000*\u0000email\";s:27:\"assistance-portail@inist.fr\";s:6:\"\u0000*\u0000fmt\";N;s:6:\"\u0000*\u0000doi\";s:17:\"10.1021\/bm501270e\";s:6:\"\u0000*\u0000pii\";N;s:7:\"\u0000*\u0000pmid\";N;s:9:\"\u0000*\u0000atitle\";N;s:9:\"\u0000*\u0000jtitle\";N;s:9:\"\u0000*\u0000stitle\";N;s:7:\"\u0000*\u0000date\";N;s:9:\"\u0000*\u0000volume\";N;s:8:\"\u0000*\u0000issue\";N;s:8:\"\u0000*\u0000spage\";N;s:8:\"\u0000*\u0000epage\";N;s:8:\"\u0000*\u0000pages\";N;s:7:\"\u0000*\u0000issn\";N;s:8:\"\u0000*\u0000eissn\";N;s:9:\"\u0000*\u0000aulast\";N;s:10:\"\u0000*\u0000aufirst\";N;s:9:\"\u0000*\u0000auinit\";N;s:10:\"\u0000*\u0000auinitm\";N;s:5:\"\u0000*\u0000au\";N;s:9:\"\u0000*\u0000aucorp\";N;s:7:\"\u0000*\u0000isbn\";N;s:8:\"\u0000*\u0000coden\";N;s:8:\"\u0000*\u0000genre\";N;s:7:\"\u0000*\u0000part\";N;s:9:\"\u0000*\u0000btitle\";N;s:8:\"\u0000*\u0000title\";N;s:8:\"\u0000*\u0000place\";N;s:6:\"\u0000*\u0000pub\";N;s:10:\"\u0000*\u0000edition\";N;s:9:\"\u0000*\u0000tpages\";N;s:9:\"\u0000*\u0000series\";N;s:8:\"\u0000*\u0000proxy\";s:30:\"http:\/\/proxyout.inist.fr:8080\/\";s:12:\"\u0000*\u0000integrite\";N;}"
Unpaywall access
"O:16:\"EuropePMCOpenUrl\":35:{s:10:\"\u0000*\u0000openUrl\";N;s:6:\"\u0000*\u0000fmt\";s:7:\"journal\";s:6:\"\u0000*\u0000doi\";s:17:\"10.1021\/bm501270e\";s:6:\"\u0000*\u0000pii\";s:0:\"\";s:7:\"\u0000*\u0000pmid\";s:0:\"\";s:9:\"\u0000*\u0000atitle\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:9:\"\u0000*\u0000jtitle\";s:17:\"Biomacromolecules\";s:9:\"\u0000*\u0000stitle\";s:17:\"Biomacromolecules\";s:7:\"\u0000*\u0000date\";s:4:\"2014\";s:9:\"\u0000*\u0000volume\";s:2:\"15\";s:8:\"\u0000*\u0000issue\";s:2:\"11\";s:8:\"\u0000*\u0000spage\";s:4:\"4249\";s:8:\"\u0000*\u0000epage\";s:4:\"4259\";s:8:\"\u0000*\u0000pages\";s:0:\"\";s:7:\"\u0000*\u0000issn\";s:9:\"1525-7797\";s:8:\"\u0000*\u0000eissn\";s:0:\"\";s:9:\"\u0000*\u0000aulast\";s:13:\"JIANGSHENG XU\";s:10:\"\u0000*\u0000aufirst\";s:0:\"\";s:9:\"\u0000*\u0000auinit\";s:0:\"\";s:10:\"\u0000*\u0000auinitm\";s:0:\"\";s:5:\"\u0000*\u0000au\";a:4:{i:0;s:9:\"FANG ZENG\";i:1;s:6:\"HAO WU\";i:2;s:10:\"CAIPING HU\";i:3;s:10:\"SHUIZHU WU\";}s:9:\"\u0000*\u0000aucorp\";s:0:\"\";s:7:\"\u0000*\u0000isbn\";s:0:\"\";s:8:\"\u0000*\u0000coden\";s:0:\"\";s:8:\"\u0000*\u0000genre\";s:7:\"article\";s:7:\"\u0000*\u0000part\";s:0:\"\";s:9:\"\u0000*\u0000btitle\";s:0:\"\";s:8:\"\u0000*\u0000title\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:8:\"\u0000*\u0000place\";s:14:\"Washington, DC\";s:6:\"\u0000*\u0000pub\";s:25:\"American Chemical Society\";s:10:\"\u0000*\u0000edition\";s:0:\"\";s:9:\"\u0000*\u0000tpages\";s:2:\"11\";s:9:\"\u0000*\u0000series\";s:0:\"\";s:8:\"\u0000*\u0000proxy\";s:30:\"http:\/\/proxyout.inist.fr:8080\/\";s:12:\"\u0000*\u0000integrite\";b:1;}"
Europe PubMed Central access
"O:11:\"BaseOpenUrl\":35:{s:10:\"\u0000*\u0000openUrl\";N;s:6:\"\u0000*\u0000fmt\";s:7:\"journal\";s:6:\"\u0000*\u0000doi\";s:17:\"10.1021\/bm501270e\";s:6:\"\u0000*\u0000pii\";s:0:\"\";s:7:\"\u0000*\u0000pmid\";s:0:\"\";s:9:\"\u0000*\u0000atitle\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:9:\"\u0000*\u0000jtitle\";s:17:\"Biomacromolecules\";s:9:\"\u0000*\u0000stitle\";s:17:\"Biomacromolecules\";s:7:\"\u0000*\u0000date\";s:4:\"2014\";s:9:\"\u0000*\u0000volume\";s:2:\"15\";s:8:\"\u0000*\u0000issue\";s:2:\"11\";s:8:\"\u0000*\u0000spage\";s:4:\"4249\";s:8:\"\u0000*\u0000epage\";s:4:\"4259\";s:8:\"\u0000*\u0000pages\";s:0:\"\";s:7:\"\u0000*\u0000issn\";s:9:\"1525-7797\";s:8:\"\u0000*\u0000eissn\";s:0:\"\";s:9:\"\u0000*\u0000aulast\";s:13:\"JIANGSHENG XU\";s:10:\"\u0000*\u0000aufirst\";s:0:\"\";s:9:\"\u0000*\u0000auinit\";s:0:\"\";s:10:\"\u0000*\u0000auinitm\";s:0:\"\";s:5:\"\u0000*\u0000au\";a:4:{i:0;s:9:\"FANG ZENG\";i:1;s:6:\"HAO WU\";i:2;s:10:\"CAIPING HU\";i:3;s:10:\"SHUIZHU WU\";}s:9:\"\u0000*\u0000aucorp\";s:0:\"\";s:7:\"\u0000*\u0000isbn\";s:0:\"\";s:8:\"\u0000*\u0000coden\";s:0:\"\";s:8:\"\u0000*\u0000genre\";s:7:\"article\";s:7:\"\u0000*\u0000part\";s:0:\"\";s:9:\"\u0000*\u0000btitle\";s:0:\"\";s:8:\"\u0000*\u0000title\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:8:\"\u0000*\u0000place\";s:14:\"Washington, DC\";s:6:\"\u0000*\u0000pub\";s:25:\"American Chemical Society\";s:10:\"\u0000*\u0000edition\";s:0:\"\";s:9:\"\u0000*\u0000tpages\";s:2:\"11\";s:9:\"\u0000*\u0000series\";s:0:\"\";s:8:\"\u0000*\u0000proxy\";s:30:\"http:\/\/proxyout.inist.fr:8080\/\";s:12:\"\u0000*\u0000integrite\";b:1;}"
Base Search access
"O:12:\"ArXivOpenUrl\":35:{s:10:\"\u0000*\u0000openUrl\";N;s:6:\"\u0000*\u0000fmt\";s:7:\"journal\";s:6:\"\u0000*\u0000doi\";s:17:\"10.1021\/bm501270e\";s:6:\"\u0000*\u0000pii\";s:0:\"\";s:7:\"\u0000*\u0000pmid\";s:0:\"\";s:9:\"\u0000*\u0000atitle\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:9:\"\u0000*\u0000jtitle\";s:17:\"Biomacromolecules\";s:9:\"\u0000*\u0000stitle\";s:17:\"Biomacromolecules\";s:7:\"\u0000*\u0000date\";s:4:\"2014\";s:9:\"\u0000*\u0000volume\";s:2:\"15\";s:8:\"\u0000*\u0000issue\";s:2:\"11\";s:8:\"\u0000*\u0000spage\";s:4:\"4249\";s:8:\"\u0000*\u0000epage\";s:4:\"4259\";s:8:\"\u0000*\u0000pages\";s:0:\"\";s:7:\"\u0000*\u0000issn\";s:9:\"1525-7797\";s:8:\"\u0000*\u0000eissn\";s:0:\"\";s:9:\"\u0000*\u0000aulast\";s:13:\"JIANGSHENG XU\";s:10:\"\u0000*\u0000aufirst\";s:0:\"\";s:9:\"\u0000*\u0000auinit\";s:0:\"\";s:10:\"\u0000*\u0000auinitm\";s:0:\"\";s:5:\"\u0000*\u0000au\";a:4:{i:0;s:9:\"FANG ZENG\";i:1;s:6:\"HAO WU\";i:2;s:10:\"CAIPING HU\";i:3;s:10:\"SHUIZHU WU\";}s:9:\"\u0000*\u0000aucorp\";s:0:\"\";s:7:\"\u0000*\u0000isbn\";s:0:\"\";s:8:\"\u0000*\u0000coden\";s:0:\"\";s:8:\"\u0000*\u0000genre\";s:7:\"article\";s:7:\"\u0000*\u0000part\";s:0:\"\";s:9:\"\u0000*\u0000btitle\";s:0:\"\";s:8:\"\u0000*\u0000title\";s:113:\"Enhanced Photodynamic Efficiency Achieved via a Dual-Targeted Strategy Based on Photosensitizer\/Micelle Structure\";s:8:\"\u0000*\u0000place\";s:14:\"Washington, DC\";s:6:\"\u0000*\u0000pub\";s:25:\"American Chemical Society\";s:10:\"\u0000*\u0000edition\";s:0:\"\";s:9:\"\u0000*\u0000tpages\";s:2:\"11\";s:9:\"\u0000*\u0000series\";s:0:\"\";s:8:\"\u0000*\u0000proxy\";s:30:\"http:\/\/proxyout.inist.fr:8080\/\";s:12:\"\u0000*\u0000integrite\";b:1;}"
arXiv access
