Rational Approach to New Chemical Entities with Antiproliferative Activity on Ab1 Tyrosine Kinase Encoded by the BCR-ABL Gene: An Hierarchical Biochemoinformatics Analysis
Metadatos
Mostrar el registro completo del ítemAutor
da S. Sanches, Vitor H.; C. Lobato, Cleison; B. Silva, Luciane; V. F. dos Santos, Igor; de S. Barros, Elcimar; de A. Maciel, Alexandre; F. B. Ferreira, Elenilze; S. da Costa, Kauê; Espejo Román, Jose Manuel; Campos Rosa, Joaquín María; M. Kimani, Njogu; B. R. Santos, CleydsonEditorial
MDPI
Materia
chronic myeloid leukemia drug design imatinib
Fecha
2024-11-06Referencia bibliográfica
da S. Sanches, V.H. et. al. Pharmaceuticals 2024, 17, 1491. [https://doi.org/10.3390/ph17111491]
Patrocinador
Biodiversity and Biotechnology Network of the Legal Amazon (Rede Bionorte) and PROPESP/UFPA; Laboratory of Modeling and Computational Chemistry (LMQC) linked to the Department of Biological Sciences at Federal University of Amapá (UNIFAP/Macapá-Brazil); Graduate Program in Medicinal Chemistry and Molecular Modeling, Health Science Institute at Federal University of Pará (UFPA/Belém-Brazil); University of the State of Amapá (UEAP) and Department of Pharmaceutical and Organic Chemistry; Institute of Biosanitary Research ibs.GRANADA; University of Granada (UGR-Granada-Spain)Resumen
Background: This study began with a search in three databases, totaling six libraries
(ChemBridge-DIVERSet, ChemBridge-DIVERSet-EXP, Zinc_Drug Database, Zinc_Natural_Stock,
Zinc_FDA_BindingDB, Maybridge) with approximately 2.5 million compounds with the aim of
selecting potential inhibitors with antiproliferative activity on the chimeric tyrosine kinase encoded
by the BCR-ABL gene. Methods: Through hierarchical biochemoinformatics, ADME/Tox analyses,
biological activity prediction, molecular docking simulations, synthetic accessibility and theoretical
synthetic routes of promising compounds and their lipophilicity and water solubility were realized.
Results: Predictions of toxicological and pharmacokinetic properties (ADME/Tox) using the
top100/base (600 structures), in comparison with the commercial drug imatinib, showed that only
nine exhibited the desired properties. In the prediction of biological activity, the results of the nine
selected structures ranged from 13.7% < Pa < 65.8%, showing them to be potential protein kinase
inhibitors. In the molecular docking simulations, the promising molecules LMQC01 and LMQC04
showed significant values in molecular targeting (PDB 1IEP—resolution 2.10 Å). LMQC04 presented
better binding affinity (ΔG = −12.2 kcal mol−1 with a variation of ±3.6 kcal mol−1) in relation to
LMQC01. The LMQC01 and LMQC04 molecules were advanced for molecular dynamics (MD)
simulation followed by Molecular Mechanics with generalized Born and Surface Area solvation
(MM-GBSA); the comparable, low and stable RMSD and ΔE values for the protein and ligand in each
complex suggest that the selected compounds form a stable complex with the Abl kinase domain.
This stability is a positive indicator that LMQC01 and LMQC04 can potentially inhibit enzyme
function. Synthetic accessibility (SA) analysis performed on the AMBIT and SwissADME webservers
showed that LMQC01 and LMQC04 can be considered easy to synthesize. Our in silico results show
that these molecules could be potent protein kinase inhibitors with potential antiproliferative activity
on tyrosine kinase encoded by the BCR-ABL gene. Conclusions: In conclusion, the results suggest
that these ligands, particularly LMQC04, may bind strongly to the studied target and may have
appropriate ADME/Tox properties in experimental studies. Considering future in vitro or in vivo assays, we elaborated the theoretical synthetic routes of the promising compounds identified in the
present study. Based on our in silico findings, the selected ligands show promise for future studies in
developing chronic myeloid leukemia treatments.