Inhibitors against DNA Polymerase I Family of Enzymes: Novel Targets and Opportunities.
Saathvik R KannanSamuel W GillespieWendy L PickingWilliam D PickingChristian L LorsonKamalendra SinghPublished in: Biology (2024)
DNA polymerases replicate cellular genomes and/or participate in the maintenance of genome integrity. DNA polymerases sharing high sequence homology with E. coli DNA polymerase I (pol I) have been grouped in Family A. Pol I participates in Okazaki fragment maturation and in bacterial genome repair. Since its discovery in 1956, pol I has been extensively studied, primarily to gain deeper insights into the mechanism of DNA replication. As research on DNA polymerases advances, many novel functions of this group of polymerases are being uncovered. For example, human DNA polymerase θ (a Family A DNA pol) has been shown to synthesize DNA using RNA as a template, a function typically attributed to retroviral reverse transcriptase. Increased interest in drug discovery against pol θ has emerged due to its roles in cancer. Likewise, Pol I family enzymes also appear attractive as drug-development targets against microbial infections. Development of antimalarial compounds targeting apicoplast apPOL, an ortholog of Pol I, further extends the targeting of this family of enzymes. Here, we summarize reported drug-development efforts against Family A polymerases and future perspective regarding these enzymes as antibiotic targets. Recently developed techniques, such as artificial intelligence, can be used to facilitate the development of new drugs.
Keyphrases
- circulating tumor
- cell free
- single molecule
- artificial intelligence
- nucleic acid
- machine learning
- circulating tumor cells
- squamous cell carcinoma
- healthcare
- escherichia coli
- small molecule
- multidrug resistant
- deep learning
- gene expression
- genome wide
- social media
- young adults
- dna methylation
- drug delivery
- high resolution
- lymph node metastasis
- papillary thyroid
- structural basis
- single cell
- induced pluripotent stem cells