Research Journal of Biotechnology

Indexed in Web of Science, SCOPUS, BioTechnology Citation Index®, Chemical Abstracts,
Biological Abstracts, ESCI, UGC, NAAS, Indian Citation Index etc.



Please donate Rs.7000 per plant to WRA for our plantation drive to help create a better environment.



WRA Plantation - 50,000 trees grown on rocks and stones on barren rocky hillock "Keshar Parvat".






Molecular Docking Studies of 2,4-Dinitrophenylhydrazine from Thymoquinone with Liver Cancer Proteins

Mailvaganan Radhika and Shanmugam Kumaran

Res. J. Biotech.; Vol. 20(8); 128-134; doi: https://doi.org/10.25303/208rjbt1280134; (2025)

Abstract
As one of the main causes of death, liver cancer is a serious threat to global health. Alternative therapeutic options are being investigated as a result of the rising incidence rates of liver cancer and the ongoing toxicity issues with traditional chemotherapeutic medications. In this context, creating new medications from natural sources has become a viable option. The main type of liver cancer, hepatocellular carcinoma (HCC), is closely related to abnormal signaling pathways in the hepatic cellular environment. The development of potent anti-cancer drugs now focuses on addressing these signaling pathways. In order to achieve this goal, the present work used a targeted strategy, docking a thymoquinone derivative, 2,4-dinitrophenylhydrazine, against six key proteins implicated in the evolution of HCC via a grid box with particular dimensions (40Å x 40Å y 40Å z and spacing). SRC, ESR1, TNF and PIK3CA, AKT2, P21 were among the proteins that underwent molecular docking. The thymoquinone derivative showed notable interactions with the chosen proteins in the docking simulations which produced interesting results.

Each protein's minimal binding energies were as follows: PIK3CA (-6.3), TNF (-5.1), ESR1 (-6.1) and SRC (-6.4) AKT2 (-5.0), P21 (-5.1). The corresponding binding distances were also recorded. The notably result was the thymoquinone derivative's strong binding affinity for SRC, PIK3CA and ESR1. These interactions point to the derivative's potential for modifying important signaling pathways linked to HCC.