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Characterizing the mode of action of antimalarial compounds that emerge from high-throughput phenotypic screens is central to understanding how parasite resistance to these drugs can emerge. Here, we have employed untargeted metabolomics to inform on the mechanism of action of antimalarial leads ...

2023-09-27 | MTBLS6580 | MetaboLights
Prediction of the antimalarial potential of small molecules using data from various chemical libraries that were screened against the asexual and sexual (gametocyte) stages of the parasite. Several compounds’ molecular fingerprints were used to train machine learning models to recognize stage-specif...
2024-03-28 | MODEL2403270002 | BioModels
Acquired antimalarial drug resistance produces treatment failures and has led to periods of global disease resurgence. In P. falciparum, resistance is known to arise through genome-level changes such as mutations and gene duplications. We now report an epigenetic resistance mechanism involving genes...
ORGANISM(S): Plasmodium falciparum 
Plasmodium parasites are reliant on the Apicomplexan AP2 (ApiAP2) transcription factor family to regulate gene expression programs. AP2 DNA binding domains have no homologs in the human or mosquito host genomes, making them potential antimalarial drug targets. Using an in-silico screen to dock thous...
ORGANISM(S): Plasmodium falciparum 
2022-07-15 | GSE208155 | GEO
Drug resistance to nearly all antimalarials following their rollout underscores the need for novel chemotypes with novel mode of action to replenish the antimalarial drug-development pipeline. We identified a novel class of compounds in the antimalarial armory. Compound 31, characterized by a hydrox...
ORGANISM(S): Plasmodium falciparum NF54 
2025-12-08 | PXD065399 | Pride
Identification of antimalarial compounds that inhibit Apicomplexan AP2 transcription factor proteins in the human malaria parasite Plasmodium falciparum
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