AI Article Synopsis

  • Crop seeds often get contaminated with fungi that can lead to diseases or produce harmful toxins, affecting their use for planting, food, or feed.
  • Researchers examined the impact of cold plasma (CP) treatment on seed germination and the presence of fungi in common and Tartary buckwheat.
  • The study found that while CP effectively reduced fungal frequency and diversity after specific treatment times, longer treatments negatively affected seed germination, suggesting CP is suitable for postharvest applications but not for preparing seeds for planting.

Article Abstract

Crop seeds are frequently colonised by fungi from the field or storage places. Some fungi can cause plant diseases or produce mycotoxins, compromising the use of seeds as seeding material, food or feed. We have investigated the effects of cold plasma (CP) on seed germination and diversity of seed-borne fungi in common and Tartary buckwheat. The seeds were treated with CP for 15, 30, 45, 60, 90, and 120 s in a low-pressure radiofrequency system using oxygen as the feed gas. The fungi from the seed surface and fungal endophytes were isolated using potato dextrose agar plates. After identification by molecular methods, the frequency and diversity of fungal strains were compared between CP treated and chemically surface-sterilised (30% of HO) seeds. CP treatments above 60 s negatively affected the germination of both buckwheat species. A significant reduction in fungal frequency and diversity was observed after 90 s and 120 s in common and Tartary buckwheat, respectively. The filamentous fungi of genera and proved to be the most resistant to CP. The results of our study indicate that CP treatment used in our study may be applicable in postharvest and food production, but not for further seed sowing.

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Source
http://www.ncbi.nlm.nih.gov/pmc/articles/PMC8145130PMC
http://dx.doi.org/10.3390/plants10050851DOI Listing

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