In-silico insights into α-Synuclein mediated pathology of Parkinson’s disease using molecular docking and molecular dynamics simulation studies

Background: The precise cause of neuronal loss in Parkinson's disease (PD) is multifactorial, involving genetic and environmental factors.Genetic mutations, affecting many proteins such as -Synuclein, Leucine-rich repeat kinase 2, and Parkin, have been implicated in sporadic and familial cases, shedding light on key molecular pathways involved in disease pathogenesis.The aim of the study: The present in-silico study was undertaken to study the hub protein responsible for PD pathogenesis and the effect of mutations on its pathophysiology.Materials and methods: Pathological proteins were selected using the KEGG database, and their protein-protein interaction mapping was done using the STRING database, followed by network merging and hub-protein identification using Cytoscape 3.9.1.Protein-protein docking studies were performed to study the pathology of identified hub-protein using Hex 8.00, and their validation was done by performing molecular dynamics simulation studies using GROMACS v2020.1.Results: -Synuclein was identified as the hub protein responsible for PD pathology and studied for its pathological mechanism of aggregation in wild-type and mutated form (A53T, E46K, H50Q, A53E and G51D) using proteinprotein docking studies.On decamerization, 4 of 5 studied SNPs (A53T, A53E, G51D and H50Q) showed better binding affinities in the VI-IV combination, while E46K showed better binding affinity in the VII-III combination than wild-type -Synuclein.The SNPs -A53T, E46K and H50Q, demonstrated lower binding energies while 2 SNPs (A53E and G51D) displayed higher binding energies in decameric form than wild-type (WT) -Synuclein aggregates.Also, G51D and E46K mutated oligomeric structures of -Synuclein showed twisted morphologies.Molecular dynamics simulation studies provided evidence for the stabilized conformation of the decameric form of wildtype -Synuclein.Conclusion: The study paves a good platform for further investigation to consider the decameric form of -Synuclein protein as a target for PD therapeutics.

Publication Details

Journal
RESEARCH RESULTS IN BIOMEDICINE
Published
2025-06-30
DOI
https://doi.org/10.18413/2658-6533-2025-11-2-0-4
Primary Topic
Metal complexes synthesis and properties
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article
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article

In-silico insights into α-Synuclein mediated pathology of Parkinson’s disease using molecular docking and molecular dynamics simulation studies

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RESEARCH RESULTS IN BIOMEDICINE
Metal complexes synthesis and properties
article

In-silico insights into α-Synuclein mediated pathology of Parkinson’s disease using molecular docking and molecular dynamics simulation studies

article en

Abstract

Background: The precise cause of neuronal loss in Parkinson's disease (PD) is multifactorial, involving genetic and environmental factors.Genetic mutations, affecting many proteins such as -Synuclein, Leucine-rich repeat kinase 2, and Parkin, have been implicated in sporadic and familial cases, shedding light on key molecular pathways involved in disease pathogenesis.The aim of the study: The present in-silico study was undertaken to study the hub protein responsible for PD pathogenesis and the effect of mutations on its pathophysiology.Materials and methods: Pathological proteins were selected using the KEGG database, and their protein-protein interaction mapping was done using the STRING database, followed by network merging and hub-protein identification using Cytoscape 3.9.1.Protein-protein docking studies were performed to study the pathology of identified hub-protein using Hex 8.00, and their validation was done by performing molecular dynamics simulation studies using GROMACS v2020.1.Results: -Synuclein was identified as the hub protein responsible for PD pathology and studied for its pathological mechanism of aggregation in wild-type and mutated form (A53T, E46K, H50Q, A53E and G51D) using proteinprotein docking studies.On decamerization, 4 of 5 studied SNPs (A53T, A53E, G51D and H50Q) showed better binding affinities in the VI-IV combination, while E46K showed better binding affinity in the VII-III combination than wild-type -Synuclein.The SNPs -A53T, E46K and H50Q, demonstrated lower binding energies while 2 SNPs (A53E and G51D) displayed higher binding energies in decameric form than wild-type (WT) -Synuclein aggregates.Also, G51D and E46K mutated oligomeric structures of -Synuclein showed twisted morphologies.Molecular dynamics simulation studies provided evidence for the stabilized conformation of the decameric form of wildtype -Synuclein.Conclusion: The study paves a good platform for further investigation to consider the decameric form of -Synuclein protein as a target for PD therapeutics.

RESEARCH RESULTS IN BIOMEDICINEVol. 11(2)
Openalex Percentile: Top 74%
Metal complexes synthesis and properties
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In-silico insights into α-Synuclein mediated pathology of Parkinson’s disease using molecular docking and molecular dynamics simulation studies · RESEARCH RESULTS IN BIOMEDICINE (2025) | TGRS Research Map | TGRS