Evaluation of the Inhibitory Potential of Platinum(II) Curcumin Complex on Aβ (1–42) Peptide Aggregation: Insights from Simulation at 310 K

Abstract Aberrant protein folding and amyloid aggregation is known as the main mechanism of fibrillation in amyloidosis diseases such as Alzheimer's disease. In this study, using computational techniques, we investigated the inhibitory effects of a platinum(II) curcumin complex on Aβ aggregation. Docking calculations showed that platinum(II) curcumin is a better binder to Aβ oligomer than curcumin itself. The molecular dynamics (MD) simulation was conducted to evaluate the possibility of the destabilization effect of platinum(II) curcumin on Aβ oligomers. The diversion of RMSD, RMSF, MSD, potential energy, and SASA trends indicate Aβ fibril instability in the presence of platinum(II) curcumin complex. The notable decline in the number of hydrogen bonds, salt bridges, and β‐sheet content results in the conformational changes in the Aβ fibril structure and the reduction of its neurotoxicity. We believe that our results could help to elucidate the mechanisms of the antiaggregation effects of platinum(II) curcumin complex and provide a ground base for experimental antiaggregation research on this compound.

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Journal
ChemistrySelect
Published
2025-03-28
DOI
https://doi.org/10.1002/slct.202402892
Primary Topic
Curcumin's Biomedical Applications
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article
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article

Evaluation of the Inhibitory Potential of Platinum(II) Curcumin Complex on Aβ (1–42) Peptide Aggregation: Insights from Simulation at 310 K

Leila Sakhtemanian, Majid Hashemi, Mohammad Hadi Ghatee, Zeinab Rohani Sarvestani et al.
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ChemistrySelect
Curcumin's Biomedical Applications
article

Evaluation of the Inhibitory Potential of Platinum(II) Curcumin Complex on Aβ (1–42) Peptide Aggregation: Insights from Simulation at 310 K

Leila Sakhtemanian, Majid Hashemi, Mohammad Hadi Ghatee, Zeinab Rohani Sarvestani, Maryam Bahrami
article en

Abstract

Abstract Aberrant protein folding and amyloid aggregation is known as the main mechanism of fibrillation in amyloidosis diseases such as Alzheimer's disease. In this study, using computational techniques, we investigated the inhibitory effects of a platinum(II) curcumin complex on Aβ aggregation. Docking calculations showed that platinum(II) curcumin is a better binder to Aβ oligomer than curcumin itself. The molecular dynamics (MD) simulation was conducted to evaluate the possibility of the destabilization effect of platinum(II) curcumin on Aβ oligomers. The diversion of RMSD, RMSF, MSD, potential energy, and SASA trends indicate Aβ fibril instability in the presence of platinum(II) curcumin complex. The notable decline in the number of hydrogen bonds, salt bridges, and β‐sheet content results in the conformational changes in the Aβ fibril structure and the reduction of its neurotoxicity. We believe that our results could help to elucidate the mechanisms of the antiaggregation effects of platinum(II) curcumin complex and provide a ground base for experimental antiaggregation research on this compound.

ChemistrySelectVol. 10(13)
Shiraz University (IR), Persian Gulf University (IR)
Openalex Percentile: Top 95%
Curcumin's Biomedical Applications
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Evaluation of the Inhibitory Potential of Platinum(II) Curcumin Complex on Aβ (1–42) Peptide Aggregation: Insights from Simulation at 310 K — Leila Sakhtemanian, Majid Hashemi, et al. · ChemistrySelect (2025) | TGRS Research Map | TGRS