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Reversing the Hypoxic Adaptive Response in Breast Cancer Cells through Small-Molecule Inhibition of Oncogenic MicroRNA-210.

Journal of medicinal chemistry 2026 Vol.69(3) p. 2814-2830

Panosetti M, Vecchio D, Maucort C, Mongiardini V, Di Giorgio A, Grimaldi B, Duca M

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MicroRNA-210 (miR-210) is a key regulator of the hypoxic adaptive response in cancer cells, making it an attractive therapeutic target.

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APA Panosetti M, Vecchio D, et al. (2026). Reversing the Hypoxic Adaptive Response in Breast Cancer Cells through Small-Molecule Inhibition of Oncogenic MicroRNA-210.. Journal of medicinal chemistry, 69(3), 2814-2830. https://doi.org/10.1021/acs.jmedchem.5c02728
MLA Panosetti M, et al.. "Reversing the Hypoxic Adaptive Response in Breast Cancer Cells through Small-Molecule Inhibition of Oncogenic MicroRNA-210.." Journal of medicinal chemistry, vol. 69, no. 3, 2026, pp. 2814-2830.
PMID 41554623

Abstract

MicroRNA-210 (miR-210) is a key regulator of the hypoxic adaptive response in cancer cells, making it an attractive therapeutic target. In our continuous search for small-molecule inhibitors of oncogenic miRNAs, we designed a novel series of tris-thiazole-based compounds to interfere with miR-210 biogenesis. Through structural optimization, we identified new pre-miR-210 ligands, which exhibited a submicromolar affinity for the miR-210 precursor and potently inhibited its maturation . In breast cancer cells exposed to hypoxic conditions, the most active compound effectively reversed the hypoxic adaptive response, leading to reduced expression of hypoxia-inducible factors and their downstream targets. These findings demonstrate the potential of the tris-thiazole scaffold as a chemical probe and an RNA binder while highlighting the therapeutic relevance of miR-210 inhibition in hypoxia-driven cancers. Indeed, the inhibition of miR-210 biogenesis by small molecules reverses the hypoxia-induced adaptive phenotype in cancer cells.

MeSH Terms

Humans; MicroRNAs; Breast Neoplasms; Female; Cell Line, Tumor; Cell Hypoxia; Small Molecule Libraries; Thiazoles; Antineoplastic Agents; Structure-Activity Relationship