Mentha arvensis oil exhibits repellent acute toxic and antioxidant activities in Nauphoeta cinerea
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View abstract on PubMed
Summary
This summary is machine-generated.Mentha arvensis essential oil (MaEO) shows repellent efficacy and reduces oxidative stress markers in Nauphoeta cinerea. Its main compounds, menthol and menthone, may offer new analgesic targets.
Area Of Science
- Pharmacology
- Entomology
- Natural Products Chemistry
Background
- Mentha arvensis, or Japanese mint, is a plant with potential medicinal properties.
- Essential oils from plants are explored for their biological activities.
- Oxidative stress plays a role in various physiological and pathological processes.
Purpose Of The Study
- To evaluate the toxic potential and repellent efficacy of Mentha arvensis essential oil (MaEO) on Nauphoeta cinerea.
- To investigate the impact of MaEO on biochemical parameters, specifically oxidative stress markers.
- To explore the potential of MaEO's major compounds as analgesic targets using molecular docking.
Main Methods
- Gas Chromatography-Mass Spectrometry (GC-MS) for essential oil analysis.
- Toxicological and repellent assays using varying concentrations of MaEO.
- Biochemical analysis of lipid peroxidation (LPO), non-protein thiols, and iron(II) levels.
- Molecular docking simulations for major compound-target protein interactions.
Main Results
- GC-MS identified menthol (71.31%), menthone (13.34%), and isomentone (5.35%) as major components of MaEO.
- MaEO demonstrated significant reduction in lipid peroxidation (LPO), non-protein thiols, and iron(II) at 125 mg/mL.
- L-(-)-Menthol and menthone exhibited high gastrointestinal absorption and target protein affinity in molecular docking.
Conclusions
- Mentha arvensis essential oil possesses significant toxic and repellent properties against Nauphoeta cinerea.
- MaEO effectively mitigates oxidative stress by reducing LPO and related markers.
- The primary components, menthol and menthone, show promise as potential analgesic agents due to their pharmacokinetic and binding properties.
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