Identification, characterization, and CADD analysis of Plasmodium DMAP1 reveals it as a potential molecular target for new anti-malarial discovery.
Merlyne LawrenceJuhi KhuranaAshish GuptaPublished in: Journal of biomolecular structure & dynamics (2024)
Developing drug resistance in the malaria parasite is a reason for apprehension compelling the scientific community to focus on identifying new molecular targets that can be exploited for developing new anti-malarial compounds. Despite the availability of the Plasmodium genome, many protein-coding genes in Plasmodium are still not characterized or very less information is available about their functions. DMAP1 protein is known to be essential for growth and plays an important role in maintaining genomic integrity and transcriptional repression in vertebrate organisms. In this study, we have identified a homolog of DMAP1 in P. falciparum . Our sequence and structural analysis showed that although PfDMAP1 possesses a conserved SANT domain, parasite protein displays significant structural dissimilarities from human homolog at full-length protein level as well as within its SANT domain. PPIN analysis of PfDMAP1 revealed it to be vital for parasite and virtual High-throughput screening of various pharmacophore libraries using BIOVIA platform-identified compounds that pass ADMET profiling and showed specific binding with PfDMAP1. Based on MD simulations and protein-ligand interaction studies two best hits were identified that could be novel potent inhibitors of PfDMAP1 protein.Communicated by Ramaswamy H. Sarma.
Keyphrases
- plasmodium falciparum
- amino acid
- protein protein
- binding protein
- healthcare
- mental health
- endothelial cells
- molecular dynamics
- high throughput
- single cell
- molecular docking
- genome wide
- toxoplasma gondii
- dna methylation
- single molecule
- climate change
- multidrug resistant
- heat shock protein
- trypanosoma cruzi
- bioinformatics analysis
- genome wide analysis