In mammalian cells, proliferation is controlled by the cell cycle, where cyclin-dependent kinases regulate critical checkpoints. CDK4 is considered highly validated anticancer drug target due to its essential role regulating cell cycle progression at the G1 restriction point. Our objective is designing novel CDK4 inhibitors using Structure-Based Drug Design and Quantitative Structure-Activity Relationship techniques. We used bioinformatics tools and biological databases. QSAR study of CDK4 inhibitors has given us an idea on the physicochemical features of studied compounds and their correlation with the IC50 activity. The docking study has helped to highlight the molecule key elements to refine in order to get a more potent compound of CDK4.The Molecule under the code 21366124 which has the low IC50= 3 nmole shows the most binding affinity with score value of ΔG=-9,8 kcal/mol. As prospects, it would be very interesting to synthesize this drug candidate and to test its inhibitory activity on cell culture of breast cancer
In mammalian cells, proliferation is controlled by the cell
cycle, where cyclin-dependent kinases regulate critical
checkpoints. CDK4 is considered a highly validated anticancer
drug target due to its essential role in regulating cell cycle
progression at the G1 restriction point. Our objective is
to design novel CDK4 inhibitors using Structure-Based Drug
Design and Quantitative Structure-Activity Relationship
techniques. We used bioinformatics tools and biological
databases. QSAR study of CDK4 inhibitors has given us an
idea of the physicochemical features of studied compounds
and their correlation with the IC50 activity. The docking study
has helped to highlight the molecule key elements to refine
in order to get a more potent compound of CDK4.The
Molecule under the code 21366124 which has the low IC50=
3 nmole shows the most binding affinity with a score value of
ΔG=-9,8 kcal/mol. As prospects, it would be very interesting
to synthesize this drug candidate and to test its inhibitory
activity on cell culture of breast cancer.
scite is a Brooklyn-based organization that helps researchers better discover and understand research articles through Smart Citations–citations that display the context of the citation and describe whether the article provides supporting or contrasting evidence. scite is used by students and researchers from around the world and is funded in part by the National Science Foundation and the National Institute on Drug Abuse of the National Institutes of Health.