Fullerene/photosensitizer nanovesicles as highly efficient and clearable phototheranostics with enhanced tumor accumulation for cancer therapy
Нановезикулы на основе фуллерена и фотосенсибилизатора как высокоэффективная выводимая фототераностическая система с повышенным накоплением в опухоли для лечения рака
2016-06-27
SCID: 54.1/dvxwbc6s
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Chlorin e6fullerene C70 nanovesiclesphotodynamic therapyphototheranosticstumor imaging
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Abstract (AI)
A novel phototheranostic platform based on tri-malonate derivative of fullerene C70 (TFC70)/photosensitizer (Chlorin e6, Ce6) nanovesicles (FCNVs) has been developed for effective tumor imaging and treatment. The FCNVs were prepared from amphiphilic TFC70-oligo ethylene glycol -Ce6 molecules. The developed FCNVs possessed the following advantages: (i) high loading efficiency of Ce6 (up to ∼57 wt%); (ii) efficient absorption in near-infrared light region; (iii) enhanced cellular uptake efficiency of Ce6 in vitro and in vivo; (iv) good biocompatibility and total clearance out from the body. These unique properties suggest that the as-prepared FCNVs could be applied as an ideal theranostic agent for simultaneous imaging and photodynamic therapy of tumor. This finding may provide a good solution to highly efficient phototheranostic applications based on fullerene derivatives fabricated nanostructures.
Key Findings
1
A phototheranostic platform was developed from TFC70/Ce6 nanovesicles assembled using amphiphilic TFC70–oligoethylene glycol–Ce6 molecules.
2
FCNVs are proposed for simultaneous tumor imaging and photodynamic therapy, owing to enhanced tumor accumulation and combined diagnostic–therapeutic functionality.
3
FCNVs efficiently absorb near-infrared light and enhance Ce6 cellular uptake both in vitro and in vivo.
4
The nanovesicles achieved high chlorin e6 loading efficiency of approximately 57 wt%.
5
The nanovesicles demonstrated good biocompatibility and complete clearance from the body.
Research Object
TFC70/Ce6 fullerene/photosensitizer nanovesicles (FCNVs) for tumor imaging and therapy
Research Subject
Their phototheranostic performance, including tumor accumulation, near-infrared absorption, Ce6 delivery and cellular uptake, imaging, photodynamic therapy, biocompatibility, and whole-body clearance
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2016-06-27
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