H2S‐Activated Ion‐Interference Therapy: A Novel Tumor Targeted Therapy Based on Copper‐Overload‐Mediated Cuproptosis and Pyroptosis

Copper overload is a novel way to achieve copper‐ion‐interference therapy by disrupting copper homeostasis and treating diseases through multiple cell death pathways. However, it is difficult to reach copper overload since excess intracellular copper ions will be pumped out. Herein, copper overload...

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Veröffentlicht in:Advanced functional materials 2023-09, Vol.33 (38)
Hauptverfasser: Zhao, Fan, Liang, Liying, Wang, Heng, Wang, Chen, Su, Dan, Yao, Ying, Li, Wangchang, Li, Juan, Zheng, Jingwu, Qiao, Liang, Mou, Xiaozhou, Che, Shenglei, Yu, Jing
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container_issue 38
container_start_page
container_title Advanced functional materials
container_volume 33
creator Zhao, Fan
Liang, Liying
Wang, Heng
Wang, Chen
Su, Dan
Yao, Ying
Li, Wangchang
Li, Juan
Zheng, Jingwu
Qiao, Liang
Mou, Xiaozhou
Che, Shenglei
Yu, Jing
description Copper overload is a novel way to achieve copper‐ion‐interference therapy by disrupting copper homeostasis and treating diseases through multiple cell death pathways. However, it is difficult to reach copper overload since excess intracellular copper ions will be pumped out. Herein, copper overload is achieved by both raising cellular uptake and reducing the efflux of copper ions using hydrogen sulfide (H2S)‐responsive copper hydroxyphosphate nanoparticles (Cu2(PO4)(OH) NPs). After immersion in an H2S‐enriched colon cancer microenvironment, Cu2(PO4)(OH) NPs can transform into copper sulfide NPs with reduced size for higher cell entering, resulting in improved Fenton activity as well as copper ion dissociation. Reactive oxygen species generated by the Fenton reaction not only activate inflammasomes and Caspase‐1 proteins, cause the cleavage of gasdermin D to induce pyroptosis, but also affect mitochondrial function and down‐regulate copper exporter ATP7A to further reduce the copper excretion. The combination of higher endocytosis and lower exportation leads to maximized copper overload. Together with the efficient copper ions release, mitochondrial tricarboxylic acid cycle can be disrupted and iron‐sulfur cluster proteins are downregulated, ultimately triggering cuproptosis. As both pyroptosis and cuproptosis are efficient ways to induce cell death, this study provides a novel way to realize effective tumor‐targeted therapy based on H2S‐activated copper overload with simple Cu2(PO4)(OH) NPs.
doi_str_mv 10.1002/adfm.202300941
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However, it is difficult to reach copper overload since excess intracellular copper ions will be pumped out. Herein, copper overload is achieved by both raising cellular uptake and reducing the efflux of copper ions using hydrogen sulfide (H2S)‐responsive copper hydroxyphosphate nanoparticles (Cu2(PO4)(OH) NPs). After immersion in an H2S‐enriched colon cancer microenvironment, Cu2(PO4)(OH) NPs can transform into copper sulfide NPs with reduced size for higher cell entering, resulting in improved Fenton activity as well as copper ion dissociation. Reactive oxygen species generated by the Fenton reaction not only activate inflammasomes and Caspase‐1 proteins, cause the cleavage of gasdermin D to induce pyroptosis, but also affect mitochondrial function and down‐regulate copper exporter ATP7A to further reduce the copper excretion. The combination of higher endocytosis and lower exportation leads to maximized copper overload. Together with the efficient copper ions release, mitochondrial tricarboxylic acid cycle can be disrupted and iron‐sulfur cluster proteins are downregulated, ultimately triggering cuproptosis. 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source Wiley Online Library Journals Frontfile Complete
subjects Apoptosis
Cell death
Copper
Copper sulfides
Efflux
Homeostasis
Hydrogen sulfide
Interference
Materials science
Nanoparticles
Overloading
Proteins
Therapy
Tumors
title H2S‐Activated Ion‐Interference Therapy: A Novel Tumor Targeted Therapy Based on Copper‐Overload‐Mediated Cuproptosis and Pyroptosis
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