In-silico approach to characterize the structure and function of a hypothetical protein of Monkeypox virus exploring Chordopox-A20R domain-containing protein activity

被引:1
|
作者
Hosen, Md Iqbal [1 ]
Mia, Md Easin [1 ]
Islam, Md Nur [1 ]
Khatun, Most Ummay Salma [2 ]
Emon, Tanvir Hossain [1 ]
Hossain, Md Anwar [1 ]
Akter, Farzana [1 ]
Kader, Md Abdul [1 ]
Jeba, Sadia Hossain [1 ]
Faisal, Asm [1 ]
Miah, Md Abunasar [1 ]
机构
[1] Noakhali Sci & Technol Univ, Dept Biotechnol & Genet Engn, Noakhali, Bangladesh
[2] Bangladesh Jute Res Inst BJRI, Cumilla, Bangladesh
关键词
Chordopox_A20R domain-containing protein; hypothetical protein; in-silico characterization; Monkeypox virus etc; MAIN PROTEASE; IDENTIFICATION; SARS-COV-2; DATABASE;
D O I
10.1177/13596535241255199
中图分类号
R51 [传染病];
学科分类号
100401 ;
摘要
Background: Monkeypox has emerged as a noteworthy worldwide issue due to its daily escalating case count. This illness presents diverse symptoms, including skin manifestations, which have the potential to spread through contact. The transmission of this infectious agent is intricate and readily transfers between individuals. Methods: The hypothetical protein MPXV-SI-2022V502225_00135 strain of monkeypox underwent structural and functional analysis using NCBI-CD Search, Pfam, and InterProScan. Quality assessment utilized PROCHECK, QMEAN, Verify3D, and ERRAT, followed by protein-ligand docking, visualization, and a 100-nanosecond simulation on Schrodinger Maestro. Results: Different physicochemical properties were estimated, indicating a stable molecular weight (49147.14) and theoretical pI (5.62) with functional annotation tools predicting the target protein to contain the domain of Chordopox_A20R domain. In secondary structure analysis, the helix coil was found to be predominant. The three-dimensional (3D) structure of the protein was obtained using a template protein (PDB ID: 6zyc.1), which became more stable after YASARA energy minimization and was validated by quality assessment tools like PROCHECK, QMEAN, Verify3D, and ERRAT. Protein-ligand docking was conducted using PyRx 9.0 software to examine the binding and interactions between a ligand and a hypothetical protein, focusing on various amino acids. The model structure, active site, and binding site were visualized using the CASTp server, FTsite, and PyMOL. A 100 nanosecond simulation was performed with ligand CID_16124688 to evaluate the efficiency of this protein. Conclusion: The analysis revealed significant binding interactions and enhanced stability, aiding in drug or vaccine design for effective antiviral treatment and patient management.
引用
收藏
页数:12
相关论文
empty
未找到相关数据