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Designing a Sulfur Vacancy Redox Disruptor for Photothermoelectric and Cascade-Catalytic-Driven Cuproptosis–Ferroptosis–Apoptosis Therapy

Authors: Mengshu Xu; Jingwei Liu; Lili Feng; Jiahe Hu; Wei Guo; Huiming Lin; Bin Liu; Yanlin Zhu; Shuyao Li; Elyor Berdimurodov; Avez Sharipov; Piaoping Yang

DOI: 10.1007/s40820-025-01828-8Status: Verified Translated Edition
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Key Findings in This Report

• MCPG nanozymes with sulfur vacancies enable cascade catalytic reactions that continuously replenish H2O2 and O2, overcoming tumor hypoxia and GSH-mediated resistance. • Mn doping induces structural reconstruction and enhances catalytic activity of sulfur vacancy sites, as confirmed by density functional theory calculations. • Under 1064 nm laser, MCPG exhibits photothermoelectric catalysis, generating ROS and disrupting redox homeostasis to trigger cuproptosis, ferroptosis, and apoptosis. • Multimodal imaging-guided synergistic therapy not only eradicates primary tumors but also elicits antitumor immune responses to inhibit metastasis.