Schiff base derived from thiosemicarbazone and anthracene showed high potential in overcoming multidrug resistance in vitro with low drug resistance index

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Schiff base derived from thiosemicarbazone and anthracene showed high potential in overcoming multidrug resistance in vitro with low drug resistance index

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Author(s): Jie Bai ¹ , Rui-Hui Wang ¹ , Yan Qiao ² , Aidong Wang ³ , Chen-Jie Fang ¹

Publication date (Electronic): 31 July 2017

Journal: Drug Design, Development and Therapy

Publisher: Dove Medical Press

Keywords: DNA intercalating, antiproliferation, multidrug resistance, P-glycoprotein

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Abstract

Multidrug resistance (MDR) is a huge obstacle in cancer chemotherapeutics. Overcoming MDR is a great challenge for anticancer drug discovery. Here, DNA binding and cytotoxicity of Schiff base L1 and L2 were explored to assess their efficiency in fighting cancer and overcoming the MDR. L1 and L2 could treat extremely chemoresistant MCF-7/ADR cell as drug-sensitive cell, with drug resistance index (DRI) <2.13, showing high potential in overcoming the MDR. The apoptotic ratio induced by L1 and L2 was low for both MCF-7 and MCF-7/ADR cells. L1 and L2 induced an impairment of cell cycle progression of MCF-7 and MCF-7/ADR cell lines and suppressed cell growth by perturbing progress through the G0/G1 phase, with L2 causing more profound effect, which might account for lower drug resistance after L2 treatment. The molecular docking revealed weak interaction between L1/L2 and P-glycoprotein (P-gp), the most important drug efflux pump and intracellular Rhodamine 123 accumulation indicated that the activity of P-gp was not inhibited by L1 and L2. Combined with the cellular uptake results, it implied that L1 and L2 could bypass P-gp efflux to exert anticancer activity.

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Metal complexes as DNA intercalators.

Peter J. Sadler, Ji-Hong Liu (2011)

DNA has a strong affinity for many heterocyclic aromatic dyes, such as acridine and its derivatives. Lerman in 1961 first proposed intercalation as the source of this affinity, and this mode of DNA binding has since attracted considerable research scrutiny. Organic intercalators can inhibit nucleic acid synthesis in vivo, and they are now common anticancer drugs in clinical therapy. The covalent attachment of organic intercalators to transition metal coordination complexes, yielding metallointercalators, can lead to novel DNA interactions that influence biological activity. Metal complexes with σ-bonded aromatic side arms can act as dual-function complexes: they bind to DNA both by metal coordination and through intercalation of the attached aromatic ligand. These aromatic side arms introduce new modes of DNA binding, involving mutual interactions of functional groups held in close proximity. The biological activity of both cis- and trans-diamine Pt(II) complexes is dramatically enhanced by the addition of σ-bonded intercalators. We have explored a new class of organometallic "piano-stool" Ru(II) and Os(II) arene anticancer complexes of the type [(η(6)-arene)Ru/Os(XY)Cl](+). Here XY is, for example, ethylenediamine (en), and the arene ligand can take many forms, including tetrahydroanthracene, biphenyl, or p-cymene. Arene-nucleobase stacking interactions can have a significant influence on both the kinetics and thermodynamics of DNA binding. In particular, the cytotoxic activity, conformational distortions, recognition by DNA-binding proteins, and repair mechanisms are dependent on the arene. A major difficulty in developing anticancer drugs is cross-resistance, a phenomenon whereby a cell that is resistant to one drug is also resistant to another drug in the same class. These new complexes are non-cross-resistant with cisplatin towards cancer cells: they constitute a new class of anticancer agents, with a mechanism of action that differs from the anticancer drug cisplatin and its analogs. The Ru-arene complexes with dual functions are more potent towards cancer cells than their nonintercalating analogs. In this Account, we focus on recent studies of dual-function organometallic Ru(II)- and Os(II)-arene complexes and the methods used to detect arene-DNA intercalation. We relate these interactions to the mechanism of anticancer activity and to structure-activity relationships. The interactions between these complexes and DNA show close similarities to those of covalent polycyclic aromatic carcinogens, especially to N7-alkylating intercalation compounds. However, Ru-arene complexes exhibit some new features. Classical intercalation and base extrusion next to the metallated base is observed for {(η(6)-biphenyl)Ru(ethylenediamine)}(2+) adducts of a 14-mer duplex, while penetrating arene intercalation occurs for adducts of the nonaromatic bulky intercalator {(η(6)-tetrahydroanthracene)Ru(ethylenediamine)}(2+) with a 6-mer duplex. The introduction of dual-function Ru-arene complexes introduces new mechanisms of antitumor activity, novel mechanisms for attack on DNA, and new concepts for developing structure- activity relationships. We hope this discussion will stimulate thoughtful and focused research on the design of anticancer chemotherapeutic agents using these unique approaches.

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Author and article information

Journal

Journal ID (nlm-ta): Drug Des Devel Ther

Journal ID (iso-abbrev): Drug Des Devel Ther

Journal ID (publisher-id): Drug Design, Development and Therapy

Title: Drug Design, Development and Therapy

Publisher: Dove Medical Press

ISSN (Electronic): 1177-8881

Publication date Collection: 2017

Publication date (Electronic): 31 July 2017

Volume: 11

Pages: 2227-2237

Affiliations

[1 ]Department of Chemical Biology, School of Pharmaceutical Sciences, Capital Medical University, Beijing

[2 ]Department of Pathophysiology, School of Basic Medical Sciences, Zhengzhou University, Zhengzhou, Henan

[3 ]Department of Pharmaceutical Engineering, College of Chemistry and Chemical Engineering, Huangshan University, Huangshan, Anhui, China

Author notes

Correspondence: Chen-Jie Fang, School of Pharmaceutical Sciences, Capital Medical University, 10 Youanmenwai Xitoutiao, Beijing 100069, China, Tel +86 10 8391 1523, Fax +86 10 8391 1533, Email cjfang@ 123456ccmu.edu.cn

Article

Publisher ID: dddt-11-2227

DOI: 10.2147/DDDT.S138371

PMC ID: 5546733

SO-VID: e2a0eaa2-e8f6-486c-9700-bdbe888b78f5

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