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二氧化钛、氧化锌、富勒烯和石墨烯纳米颗粒在光动力疗法中的应用。

The application of titanium dioxide, zinc oxide, fullerene, and graphene nanoparticles in photodynamic therapy.

作者信息

Youssef Zahraa, Vanderesse Régis, Colombeau Ludovic, Baros Francis, Roques-Carmes Thibault, Frochot Céline, Wahab Habibah, Toufaily Joumana, Hamieh Tayssir, Acherar Samir, Gazzali Amirah Mohd

机构信息

Laboratoire Réactions et Génie des Procédés, Université de Lorraine-CNRS, UMR 7274, 1 rue Grandville, BP 20451, 54001 Nancy Cedex, France.

Laboratoire de Chimie Physique Macromoléculaire, Université de Lorraine-CNRS, UMR 7375, 1 rue Grandville, BP 20451, 54001 Nancy Cedex, France.

出版信息

Cancer Nanotechnol. 2017;8(1):6. doi: 10.1186/s12645-017-0032-2. Epub 2017 Oct 19.

DOI:10.1186/s12645-017-0032-2
PMID:29104699
原文链接:https://pmc.ncbi.nlm.nih.gov/articles/PMC5648744/
Abstract

Nanoparticles (NPs) have been shown to have good ability to improve the targeting and delivery of therapeutics. In the field of photodynamic therapy (PDT), this targeting advantage of NPs could help ensure drug delivery at specific sites. Among the commonly reported NPs for PDT applications, NPs from zinc oxide, titanium dioxide, and fullerene are commonly reported. In addition, graphene has also been reported to be used as NPs albeit being relatively new to this field. In this context, the present review is organized by these different NPs and contains numerous research works related to PDT applications. The effectiveness of these NPs for PDT is discussed in detail by collecting all essential information described in the literature. The information thus assembled could be useful in designing new NPs specific for PDT and/or PTT applications in the future.

摘要

纳米颗粒（NPs）已被证明具有良好的能力来改善治疗药物的靶向性和递送。在光动力疗法（PDT）领域，NPs的这种靶向优势有助于确保药物在特定部位的递送。在常用于PDT应用的NPs中，氧化锌、二氧化钛和富勒烯制成的NPs是常见报道的。此外，石墨烯也已被报道用作NPs，尽管在该领域相对较新。在此背景下，本综述按这些不同的NPs进行组织，并包含许多与PDT应用相关的研究工作。通过收集文献中描述的所有重要信息，详细讨论了这些NPs用于PDT的有效性。如此收集的信息可能有助于未来设计针对PDT和/或光热疗法（PTT）应用的新型NPs。

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Biomater Sci. 2014 Oct 26;2(10):1412-1418. doi: 10.1039/c4bm00143e. Epub 2014 Jul 4.
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Recent Pat Nanotechnol. 2025;19(4):572-580. doi: 10.2174/0118722105292940240502114430.
6
Pre-Clinical Investigations of the Pharmacodynamics of Immunogenic Smart Radiotherapy Biomaterials (iSRB).免疫原性智能放射治疗生物材料（iSRB）的药效学临床前研究。
Pharmaceutics. 2023 Dec 14;15(12):2778. doi: 10.3390/pharmaceutics15122778.
7
Hyperbranched Polymers: Recent Advances in Photodynamic Therapy against Cancer.超支化聚合物：癌症光动力疗法的最新进展
Pharmaceutics. 2023 Aug 28;15(9):2222. doi: 10.3390/pharmaceutics15092222.
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Cheminformatics and Machine Learning Approaches to Assess Aquatic Toxicity Profiles of Fullerene Derivatives.化学生物信息学和机器学习方法评估富勒烯衍生物的水生毒性特征。
Int J Mol Sci. 2023 Sep 15;24(18):14160. doi: 10.3390/ijms241814160.
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Gold Nanoparticles: Construction for Drug Delivery and Application in Cancer Immunotherapy.金纳米颗粒：用于药物递送的构建及其在癌症免疫治疗中的应用
Pharmaceutics. 2023 Jul 2;15(7):1868. doi: 10.3390/pharmaceutics15071868.
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Potential Biomedical Limitations of Graphene Nanomaterials.石墨烯纳米材料的潜在生物医学限制。
Int J Nanomedicine. 2023 Mar 30;18:1695-1708. doi: 10.2147/IJN.S402954. eCollection 2023.
两亲性三甲基吡啶基卟啉 - 富勒烯（C）二元体：缺氧条件下的高效光敏剂。
J Mater Chem B. 2015 Feb 7;3(5):776-783. doi: 10.1039/c4tb01314j. Epub 2014 Dec 10.
4
Water-soluble inclusion complex of fullerene with γ-cyclodextrin polymer for photodynamic therapy.用于光动力疗法的富勒烯与γ-环糊精聚合物的水溶性包合物
J Mater Chem B. 2014 Aug 21;2(31):5107-5115. doi: 10.1039/c4tb00560k. Epub 2014 Jul 4.
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Graphene loading water-soluble phthalocyanine for dual-modality photothermal/photodynamic therapy via a one-step method.通过一步法负载石墨烯的水溶性酞菁用于双模态光热/光动力治疗
J Mater Chem B. 2014 Nov 7;2(41):7141-7148. doi: 10.1039/c4tb01038h. Epub 2014 Sep 17.
6
Folic acid-conjugated graphene-ZnO nanohybrid for targeting photodynamic therapy under visible light irradiation.用于可见光照射下靶向光动力治疗的叶酸共轭石墨烯-氧化锌纳米杂化物
J Mater Chem B. 2013 Oct 14;1(38):5003-5013. doi: 10.1039/c3tb20849d. Epub 2013 Aug 19.
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Hyaluronic acid-conjugated graphene oxide/photosensitizer nanohybrids for cancer targeted photodynamic therapy.用于癌症靶向光动力治疗的透明质酸共轭氧化石墨烯/光敏剂纳米杂化物
J Mater Chem B. 2013 Mar 28;1(12):1678-1686. doi: 10.1039/c3tb00506b. Epub 2013 Feb 5.
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A New Modality for Cancer Treatment--Nanoparticle Mediated Microwave Induced Photodynamic Therapy.一种癌症治疗的新方法——纳米颗粒介导的微波诱导光动力疗法。
J Biomed Nanotechnol. 2016 Oct;12(10):1835-51. doi: 10.1166/jbn.2016.2322.
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X-Ray Induced Photodynamic Therapy: A Combination of Radiotherapy and Photodynamic Therapy.X射线诱导光动力疗法：放射疗法与光动力疗法的联合应用
Theranostics. 2016 Oct 1;6(13):2295-2305. doi: 10.7150/thno.16141. eCollection 2016.
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Targeted Therapy of Cancer Using Photodynamic Therapy in Combination with Multi-faceted Anti-Tumor Modalities.使用光动力疗法联合多方面抗肿瘤模式的癌症靶向治疗。
Pharmaceuticals (Basel). 2010 May 14;3(5):1507-1529. doi: 10.3390/ph3051507.