In silico analysis of active compounds of Peruvian medicinal plants with antifungal activity

16 July 2025, Version 1
This content is an early or alternative research output and has not been peer-reviewed by Cambridge University Press at the time of posting.

Abstract

The current study aimed was analyze the active compounds of Peruvian medicinal plants with antifungal activity through in silico analysis. Published papers, regarding molecules derived from Peruvian natural products with antifungal activity, were searched in databases such as Google Scholar, PubMed, ScienceDirect, and Scopus, using the combination of keywords; (“Antifungal” OR “Antimycotic” OR “Fungicide”) AND (“Plants” OR “Medicinal” OR “Natural Product”) AND (“Peru” OR “Peruvian”). Twenty-nine compounds with in vitro antifungal activity were identified. As molecular targets, Farnesyltransferase, Cyp51, and 1,3 β-glucan synthase structures were selected, while structures from commercial antifungals and natural products were prepared in the Open Babel program and parameterized in AutoDock Tools. Also, two-dimensional similarity was performed using the Tanimoto score in the Ligand Similarity Clique Algorithm (LiSiCA). Molecular Docking was performed in AutoDock Vina 1.1.2 on each ligand-target. It was found that the natural compounds machaeridiol B showed a favorable interaction with Cyp51, and compounds genipatriol and jujubogenin with Farnesyltransferase and 1,3-β-glucan synthase, respectively. The analysis of the physicochemical and pharmacokinetic properties was performed using the SwissADME and Deep-PK servers, which revealed that genipatriol and jujubogenin exhibit an optimal range of lipophilicity, acceptable solubility, favorable absorption, and do not cross the blood-brain barrier, indicating that they do not pose potential mutagenic side effects. It is concluded that the molecules genipatriol, machaeridiol B, and jujubogenin presented reliable profiles as potential antifungal agents.

Keywords

Antifungal activity
molecular docking
Peruvian natural products
Genipatriol
machaeridiol B
jujubogenin

Supplementary materials

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FIGURE 1: Strategy for searching for information on active compounds of Peruvian medicinal plants with antifungal activity, reported in a database
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Strategy for searching for information on active compounds of Peruvian medicinal plants with antifungal activity, reported in a database
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FIGURE 2. Two-dimensional similarity model using the Tanimoto coefficient of the active compounds obtained against Naftifine (N), Terbinafine (T), Clotrimazole (C), Fluconazole (F), Enfumafungin (E), and Ibrexafungerp (I).
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Two-dimensional similarity model using the Tanimoto coefficient of the active compounds obtained against Naftifine (N), Terbinafine (T), Clotrimazole (C), Fluconazole (F), Enfumafungin (E), and Ibrexafungerp (I)
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FIGURE 3. Interaction at the active site of Farnesyltransferase of: Naftifine 2D (A) and 3D (B), Terbinafine 2D (C) and 3D (D), and Genipatriol 2D (E) and 3D (F). 2D view with Discovery Studio and 3D with UFSC Chimera.
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Interaction at the active site of Farnesyltransferase of: Naftifine 2D (A) and 3D (B), Terbinafine 2D (C) and 3D (D), and Genipatriol 2D (E) and 3D (F). 2D view with Discovery Studio and 3D with UFSC Chimera
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FIGURE 4. Interaction at the active site of CYP 51 of: Clotrimazole 2D (A) and 3D (B), Fluconazole 2D (C) and 3D (D), and Machaeridiol B 2D (E) and 3D (F). 2D view with Discovery Studio and 3D with UFSC Chimera
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Interaction at the active site of CYP 51 of: Clotrimazole 2D (A) and 3D (B), Fluconazole 2D (C) and 3D (D), and Machaeridiol B 2D (E) and 3D (F). 2D view with Discovery Studio and 3D with UFSC Chimera
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FIGURE 5. Interaction at the active site of 1,3-β-glucan synthase of: Enfumafungin 2D (A) and 3D (B), Ibrexafungerb 2D (C) and 3D (D), and Jujubogenin 2D (E) and 3D (F). 2D view with Discovery Studio and 3D with UFSC Chimera
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Interaction at the active site of 1,3-β-glucan synthase of: Enfumafungin 2D (A) and 3D (B), Ibrexafungerb 2D (C) and 3D (D), and Jujubogenin 2D (E) and 3D (F). 2D view with Discovery Studio and 3D with UFSC Chimera
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TABLE 1. Peruvian plant species with potential antifungal effect.
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Peruvian plant species with potential antifungal effects.
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TABLE 2. Affinity energy and number of interactions of known chemical structures with antifungal activity. Data was obtained through Vina and the Discovery Studio software.
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Affinity energy and number of interactions of known chemical structures with antifungal activity. Data was obtained through Vina and the Discovery Studio software.
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TABLE 3. The physicochemical properties of active compounds were obtained using the SwissADME server
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The physicochemical properties of active compounds were obtained using the SwissADME server
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TABLE 4. Pharmacokinetic parameters (ADMET - Absorption, Distribution, Metabolism, Excretion and Toxicity) of the active compounds obtained through Deep-PK server.
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Pharmacokinetic parameters (ADMET - Absorption, Distribution, Metabolism, Excretion and Toxicity) of the active compounds obtained through Deep-PK server.
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SUPPLEMENT 1: Affinity energy of natural compounds from Peruvian plants in the study enzymes.
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Affinity energy of natural compounds from Peruvian plants in the study enzymes.
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SUPPLEMENT 2: Chemical Structure of Peruvian Natural Products with better affinity
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Chemical Structure of Peruvian Natural Products with better affinity
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