Department of Pharmacy, Women's Hospital, Zhejiang University School of Medicine, Hangzhou 310006, China.
College of Pharmaceutical Sciences, Zhejiang Chinese Medical University, Hangzhou 311400, China.
J Mater Chem B. 2020 Dec 8;8(46):10461-10473. doi: 10.1039/d0tb02138e.
The clinical performance of the current cancer therapies is still far from satisfactory. The emerging ferroptosis-driven therapy strategies reignite the hope of chemotherapy in tumor treatment due to their incredible tumor suppression. Among ferroptosis-based cancer therapies, metal elements have attracted remarkable attention due to their inherent physicochemical properties in inducing ferroptosis of tumor cells quickly and strongly without complex cellular signal transduction. Although the discovery and applications of ferroptosis for tumor treatment have been discussed in many reviews, the unique advantages of metal-containing nanomaterials interfering ferroptotic cancer therapies (MIFCT) have seldom been mentioned. Here, we outline the latest advances of MIFCT comprehensively. Firstly, the functions of different kinds of metal elements or their ions are introduced to illustrate their advantages in MIFCT. Secondly, the emerging metal-containing nanomaterials that are designed to achieve ferroptosis-driven therapy are overviewed, including their ability to boost the Fenton or Fenton-like reaction for reactive oxygen species generation, act as hydrogen peroxide self-providers, damage the reducing system, and disturb cellular communication. Moreover, metal-containing nanomaterials with external energy conversion features for MIFCT are discussed. Finally, the future expectations and challenges of MIFCT for clinical cancer therapy are spotlighted.
目前癌症疗法的临床疗效仍远不尽如人意。由于其令人难以置信的肿瘤抑制作用,新兴的铁死亡驱动治疗策略为肿瘤治疗中的化疗带来了新的希望。在基于铁死亡的癌症治疗中,由于其固有物理化学性质能够快速、强烈地诱导肿瘤细胞发生铁死亡,金属元素引起了人们的极大关注。尽管已经在许多综述中讨论了铁死亡在肿瘤治疗中的发现和应用,但很少有提到含金属纳米材料干扰铁死亡癌症治疗(MIFCT)的独特优势。在这里,我们全面概述了 MIFCT 的最新进展。首先,介绍了不同种类的金属元素或其离子的功能,以说明它们在 MIFCT 中的优势。其次,综述了新兴的用于实现铁死亡驱动治疗的含金属纳米材料,包括它们增强芬顿或类芬顿反应生成活性氧的能力、作为过氧化氢自供体的作用、破坏还原系统和干扰细胞通讯的能力。此外,还讨论了具有外部能量转换功能的用于 MIFCT 的含金属纳米材料。最后,强调了 MIFCT 用于临床癌症治疗的未来期望和挑战。