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Cytomembrane-Mediated Transport of Metal Ions with Biological Specificity.


ABSTRACT: Metal ions are of significant importance in biomedical science. This study reports a new concept of cytomembrane-mediated biospecific transport of metal ions without using any other materials. For the first time, cytomembranes are exploited for two-step conjugation with metal ions to provide hybrid nanomaterials. The innate biofunction of cell membranes renders the hybrids with superior advantages over common vehicles for metal ions, including excellent biocompatibility, low immunogenic risk, and particularly specific biotargeting functionality. As a proof-of-concept demonstration, cancer cell membranes are used for in vivo delivery of various metal ions, including ruthenium, europium, iron, and manganese, providing a series of tumor-targeted nanohybrids capable of photothermal therapy/imaging, magnetic resonance imaging, photoacoustic imaging, and fluorescence imaging with improved performances. In addition, the special structure of the cell membrane allows easy accommodation of small-molecular agents within the nanohybrids for effective chemotherapy. This study provides a new class of metal-ion-included nanomaterials with versatile biofunctions and offers a novel solution to address the important challenge in the field of in vivo targeted delivery of metal ions.

SUBMITTER: Zhang MK 

PROVIDER: S-EPMC6724363 | biostudies-literature | 2019 Sep

REPOSITORIES: biostudies-literature

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Cytomembrane-Mediated Transport of Metal Ions with Biological Specificity.

Zhang Ming-Kang MK   Ye Jing-Jie JJ   Li Chu-Xin CX   Xia Yu Y   Wang Zi-Yang ZY   Feng Jun J   Zhang Xian-Zheng XZ  

Advanced science (Weinheim, Baden-Wurttemberg, Germany) 20190701 17


Metal ions are of significant importance in biomedical science. This study reports a new concept of cytomembrane-mediated biospecific transport of metal ions without using any other materials. For the first time, cytomembranes are exploited for two-step conjugation with metal ions to provide hybrid nanomaterials. The innate biofunction of cell membranes renders the hybrids with superior advantages over common vehicles for metal ions, including excellent biocompatibility, low immunogenic risk, an  ...[more]

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