Customizable Zr-MOF nanoantidote-based multieffective arsenic detoxification and its extended low-toxic therapy

IF 9.4 1区 医学 Q1 ENGINEERING, BIOMEDICAL Acta Biomaterialia Pub Date : 2024-05-16 DOI:10.1016/j.actbio.2024.05.027
Yanhua Zhong , Wei Zhang , Hong Xiao , Yijie Kong , Wenjing Huang , Danmeng Bai , Simin Yu , Jie Gao , Xiaolei Wang
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Abstract

Arsenic (As) poisoning has become a global public problem threatening human health. Chelation therapy (CT) is the preferred treatment for arsenic poisoning. Nevertheless, efficient and safe arsenic removal in vivo remains a daunting challenge due to the limitations of chelators, including weak affinity, poor cell membrane penetration, and short half-life. Herein, a mercapto-functionalized and size-tunable hierarchical porous Zr-MOF (UiO-66-TC-SH) is developed, which possesses abundant arsenic chemisorption sites, effective cell uptake ability, and long half-life, thereby efficiently removing toxic arsenic in vivo. Moreover, the strong binding affinity of UiO-66-TC-SH for arsenic reduces systemic toxicity caused by off-target effects. In animal trials, UiO-66-TC-SH decreases the blood arsenic levels of acute arsenic poisoning mice to a normal value within 48 h, and the efficacy is superior to clinical drugs 2,3-dimercaptopropanesulfonic acid sodium salt (DMPS). Meanwhile, UiO-66-TC-SH also significantly mitigates the arsenic accumulation in the metabolic organs of chronic arsenic poisoning mice. Surprisingly, UiO-66-TC-SH also accelerates the metabolism of arsenic in organs of tumor-bearing mice and alleviates the side effects of arsenic drugs antitumor therapy.

Statement of significance

Arsenic (As) contamination has become a global problem threatening public health. The present clinical chelation therapy (CT) still has some limitations, including the weak affinity, poor cell membrane permeability and short half-life of hydrophilic chelators. Herein, a metal−organic framework (MOF)-based multieffective arsenic removal strategy in vivo is proposed for the first time. Mercapto-functionalized and size-tunable hierarchical porous Zr-MOF nanoantidote (denoted as UiO-66-TC-SH) is accordingly designed and synthesized. After injection, UiO-66-TC-SH can form Zr−O−As bonds and As−S bonds with arsenic, thus enhancing arsenic adsorption capacity, cycling stability and systemic safety simultaneously. The acute arsenic poisoning model results indicate that UiO-66-TC-SH shows superior efficacy to the clinical drug sodium dimercaptopropanesulfonate (DMPS). More meaningfully, we find that UiO-66-TC-SH also accelerates the metabolism of arsenic in organs of tumor-bearing mice and alleviates side effects of arsenic drugs anti-tumor therapy.

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可定制的基于 Zr-MOF 纳米antidote 的多效砷解毒及其延伸低毒疗法
砷(As)中毒已成为威胁人类健康的全球性公共问题。螯合疗法(CT)是治疗砷中毒的首选方法。然而,由于螯合剂的亲和力弱、细胞膜渗透性差和半衰期短等局限性,在体内高效安全地去除砷仍然是一项艰巨的挑战。本文开发了一种巯基官能化且尺寸可调的分层多孔 Zr-MOF(UiO-66-TC-SH),它具有丰富的砷化学吸附位点、有效的细胞吸收能力和较长的半衰期,从而能有效去除体内的有毒砷。此外,UiO-66-TC-SH 与砷的结合亲和力强,可减少脱靶效应引起的全身毒性。在动物试验中,UiO-66-TC-SH 可在 48 小时内将急性砷中毒小鼠的血砷含量降至正常值,疗效优于临床药物 2,3-二巯基丙磺酸钠盐(DMPS)。同时,UiO-66-TC-SH 还能显著减轻砷在慢性砷中毒小鼠代谢器官中的蓄积。令人惊讶的是,UiO-66-TC-SH 还能加速肿瘤小鼠器官中砷的代谢,减轻砷药物抗肿瘤治疗的副作用。 重要声明砷(As)污染已成为威胁公众健康的全球性问题。目前的临床螯合治疗(CT)仍存在一些局限性,包括亲水性螯合剂亲和力弱、细胞膜渗透性差、半衰期短等。本文首次提出了一种基于金属有机框架(MOF)的体内多效砷去除策略。据此设计并合成了巯基官能化且尺寸可调的分层多孔 Zr-MOF 纳米螯合剂(命名为 UiO-66-TC-SH)。注入后,UiO-66-TC-SH 可与砷形成 Zr-O-As 键和 As-S 键,从而同时提高砷的吸附能力、循环稳定性和系统安全性。急性砷中毒模型结果表明,UiO-66-TC-SH 的疗效优于临床药物二巯丙磺酸钠(DMPS)。更有意义的是,我们发现 UiO-66-TC-SH 还能加速肿瘤小鼠器官中砷的代谢,减轻砷药物抗肿瘤治疗的副作用。
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来源期刊
Acta Biomaterialia
Acta Biomaterialia 工程技术-材料科学:生物材料
CiteScore
16.80
自引率
3.10%
发文量
776
审稿时长
30 days
期刊介绍: Acta Biomaterialia is a monthly peer-reviewed scientific journal published by Elsevier. The journal was established in January 2005. The editor-in-chief is W.R. Wagner (University of Pittsburgh). The journal covers research in biomaterials science, including the interrelationship of biomaterial structure and function from macroscale to nanoscale. Topical coverage includes biomedical and biocompatible materials.
期刊最新文献
Editorial Board Editorial Board Erratum to “Anti-fibrotic and anti-stricture effects of biodegradable biliary stents braided with dexamethasone-impregnated sheath/core structured monofilaments” [Acta Biomaterialia. Volume 178, 1 April 2024, Pages 137-146] Corrigendum to “Optimizing the cell compatibility and mechanical properties in TiZrNbTa medium-entropy alloy/β-Ti composites through phase transformation” [Acta Biomaterialia. Volume 181, June 2024, Pages 469-482] Association between neural stem/progenitor cells and biomaterials in spinal cord injury therapies: A systematic review and network meta-analysis
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