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Graphene Oxide‐Cyclic R10 Peptide Nuclear Translocation Nanoplatforms for the Surmounting of Multiple‐Drug Resistance
Advanced Functional Materials ( IF 18.5 ) Pub Date : 2020-06-26 , DOI: 10.1002/adfm.202000933
Zhaoxu Tu 1, 2 , Ievgen S. Donskyi 2, 3 , Haishi Qiao 1 , Zhonglin Zhu 1 , Wolfgang E. S. Unger 3 , Christian P. R. Hackenberger 4, 5 , Wei Chen 1 , Mohsen Adeli 2, 6 , Rainer Haag 2
Affiliation  

Multidrug resistance resulting from a variety of defensive pathways in cancer has become a global concern with a considerable impact on the mortality associated with the failure of traditional chemotherapy. Therefore, further research and new therapies are required to overcome this challenge. In this work, a cyclic R10 peptide (cR10) is conjugated to polyglycerol‐covered nanographene oxide to engineer a nanoplatform for the surmounting of multidrug resistance. The nuclear translocation of the nanoplatform, facilitated by cR10 peptide, and subsequently, a laser‐triggered release of the loaded doxorubicin result in efficient anticancer activity confirmed by both in vitro and in vivo experiments. The synthesized nanoplatform with a combination of different features, including active nucleus‐targeting, high‐loading capacity, controlled release of cargo, and photothermal property, provides a new strategy for circumventing multidrug resistant cancers.

中文翻译:

氧化石墨烯环R10肽核易位纳米平台克服多重耐药性。

由癌症的多种防御途径引起的多药耐药性已成为全球关注的问题,对与传统化学疗法失败相关的死亡率产生重大影响。因此,需要进一步的研究和新的疗法来克服这一挑战。在这项工作中,将环状R10肽(cR 10)与聚甘油覆盖的纳米氧化石墨烯偶联,以构建纳米平台,以克服多重耐药性。cR 10促进纳米平台的核易位肽,随后通过激光触发释放的阿霉素可导致有效的抗癌活性,这一点已在体外和体内实验中得到证实。合成的纳米平台具有多种不同特征,包括主动靶向核,高负载能力,货物的受控释放和光热特性,为绕开耐多药癌症提供了新策略。
更新日期:2020-08-26
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