Concurrent inhibition of oncogenic and wild-type RAS-GTP for cancer therapy

Matthew Holderfield(Revolution Medicines (United States)), Bianca J. Lee(Revolution Medicines (United States)), Jingjing Jiang(Revolution Medicines (United States)), Aidan C.A. Tomlinson(Revolution Medicines (United States)), Kyle J. Seamon(Revolution Medicines (United States)), Alessia Mira(University of Turin), Enrico Patrucco(University of Turin), Grace Goodhart(University of Cincinnati), Julien Dilly(Dana-Farber Cancer Institute), Yevgeniy Gindin(Revolution Medicines (United States)), Nuntana Dinglasan(Revolution Medicines (United States)), Yingyun Wang(Revolution Medicines (United States)), Lo Lai(Revolution Medicines (United States)), Shurui Cai(Revolution Medicines (United States)), Lingyan Jiang(Revolution Medicines (United States)), Nicole Nasholm(Revolution Medicines (United States)), Nataliya Tovbis Shifrin(Revolution Medicines (United States)), Cristina Blaj(Revolution Medicines (United States)), Harshit Shah(Revolution Medicines (United States)), James Evans(Revolution Medicines (United States)), Nilufar Montazer(Revolution Medicines (United States)), Oliver Lai(Revolution Medicines (United States)), Jade Shi(Revolution Medicines (United States)), Ethan Ahler(Revolution Medicines (United States)), Elsa Quintana(Revolution Medicines (United States)), Stephanie Chang(Revolution Medicines (United States)), Anthony Salvador(Revolution Medicines (United States)), Abby Marquez(Revolution Medicines (United States)), Jim Cregg(Revolution Medicines (United States)), Yang Liu(Revolution Medicines (United States)), Anthony N. Milin(Revolution Medicines (United States)), Anqi Chen(Revolution Medicines (United States)), Tamar Bar Ziv(Revolution Medicines (United States)), Dylan Parsons(Revolution Medicines (United States)), John E. Knox(Revolution Medicines (United States)), Jennifer E. Klomp(University of North Carolina at Chapel Hill), Jennifer A. Roth(Broad Institute), Matthew G. Rees(Broad Institute), Melissa M. Ronan(Broad Institute), Antonio Cuevas-Navarro(Memorial Sloan Kettering Cancer Center), Feng Hu(Memorial Sloan Kettering Cancer Center), Piro Lito(Memorial Sloan Kettering Cancer Center), David Santamarı́a(Universidad de Salamanca), Andrew J. Aguirre(Broad Institute), Andrew M. Waters(University of North Carolina at Chapel Hill), Channing J. Der(University of North Carolina at Chapel Hill), Chiara Ambrogio(University of Turin), Zhengping Wang(Revolution Medicines (United States)), Adrian L. Gill(Revolution Medicines (United States)), Elena S. Koltun(Revolution Medicines (United States)), Jacqueline A.M. Smith(Revolution Medicines (United States)), David Wildes(Revolution Medicines (United States)), Mallika Singh(Revolution Medicines (United States))
Nature
April 8, 2024
Cited by 308Open Access
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Abstract

Abstract RAS oncogenes (collectively NRAS , HRAS and especially KRAS ) are among the most frequently mutated genes in cancer, with common driver mutations occurring at codons 12, 13 and 61 1 . Small molecule inhibitors of the KRAS(G12C) oncoprotein have demonstrated clinical efficacy in patients with multiple cancer types and have led to regulatory approvals for the treatment of non-small cell lung cancer 2,3 . Nevertheless, KRAS G12C mutations account for only around 15% of KRAS -mutated cancers 4,5 , and there are no approved KRAS inhibitors for the majority of patients with tumours containing other common KRAS mutations. Here we describe RMC-7977, a reversible, tri-complex RAS inhibitor with broad-spectrum activity for the active state of both mutant and wild-type KRAS, NRAS and HRAS variants (a RAS(ON) multi-selective inhibitor). Preclinically, RMC-7977 demonstrated potent activity against RAS-addicted tumours carrying various RAS genotypes, particularly against cancer models with KRAS codon 12 mutations ( KRAS G12X ). Treatment with RMC-7977 led to tumour regression and was well tolerated in diverse RAS-addicted preclinical cancer models. Additionally, RMC-7977 inhibited the growth of KRAS G12C cancer models that are resistant to KRAS(G12C) inhibitors owing to restoration of RAS pathway signalling. Thus, RAS(ON) multi-selective inhibitors can target multiple oncogenic and wild-type RAS isoforms and have the potential to treat a wide range of RAS-addicted cancers with high unmet clinical need. A related RAS(ON) multi-selective inhibitor, RMC-6236, is currently under clinical evaluation in patients with KRAS -mutant solid tumours (ClinicalTrials.gov identifier: NCT05379985).


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