Systematic in Vitro Evolution in Reveals Key Determinants of Drug Resistance
Authors
Affiliations
Surveillance of drug resistance and the discovery of novel targets-key objectives in the fight against malaria-rely on identifying resistance-conferring mutations in parasites. Current approaches, while successful, require laborious experimentation or large sample sizes. To elucidate shared determinants of antimalarial resistance that can empower in silico inference, we examined the genomes of 724 clones, each selected in vitro for resistance to one of 118 compounds. We identified 1448 variants in 128 recurrently mutated genes, including drivers of antimalarial multidrug resistance. In contrast to naturally occurring variants, those selected in vitro are more likely to be missense or frameshift, involve bulky substitutions, and occur in conserved, ordered protein domains. Collectively, our dataset reveals mutation features that predict drug resistance in eukaryotic pathogens.
Heterogeneous constraint and adaptation across the malaria parasite life cycle.
Perkins S, Neafsey D, Early A bioRxiv. 2025; .
PMID: 39990389 PMC: 11844417. DOI: 10.1101/2025.02.11.636054.
Predicting Plasmodium drug resistance through in vitro evolution.
Cui L Trends Parasitol. 2025; 41(3):170-171.
PMID: 39933988 PMC: 11884984. DOI: 10.1016/j.pt.2025.01.008.
Bremers E, Butler J, Do Amaral L, Merino E, Almolhim H, Zhou B ACS Infect Dis. 2025; 11(2):529-542.
PMID: 39808111 PMC: 11828674. DOI: 10.1021/acsinfecdis.4c01001.
Replication stress increases de novo CNVs across the malaria parasite genome.
Brown N, Luniewski A, Yu X, Warthan M, Liu S, Zulawinska J bioRxiv. 2025; .
PMID: 39803504 PMC: 11722320. DOI: 10.1101/2024.12.19.629492.