首页> 外文期刊>International Journal of Medicinal Mushrooms >Effects of Physical Plasma on Biotechnological Processes in Mycelia of the Cultivated Lingzhi or Reishi Medicinal Mushroom Ganoderma lucidum (Agaricomycetes)
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Effects of Physical Plasma on Biotechnological Processes in Mycelia of the Cultivated Lingzhi or Reishi Medicinal Mushroom Ganoderma lucidum (Agaricomycetes)

机译:物理血浆对灵芝或灵芝药用灵芝(Agaricomycetes)菌丝体生物技术过程的影响

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Physical plasma as the fourth state of matter comprises highly reactive particles (e.g., reactive species) and different types of radiation. It can be generated under standardized conditions at atmospheric pressure and low temperatures. Plasma is able to generate high-yielding bacterial strains, but this technique has not previously been applied to improve biotechnological processes in medicinal mushrooms. Our study investigated the influences of plasma on the growth and productivity of mycelial cultures of Ganoderma lucidum. Mycelia of G. lucidum were treated as solid pieces or suspended in Hagem medium using 3 different plasma sources: surface dielectric barrier discharge (DBD) plasma source, volume DBD plasma source, and the kINPen09 plasma jet. Treated mycelia were analyzed for biomass production, extract yield, and secondary metabolites. The plasma jet increased total triterpene content. Both DBD plasma sources led to elevated ergosterol content. Increased beta-1-3-D-glucan content was found after exposure to the volume DBD- or kINPen09-treated medium. The changes observed seemed to be dependent on total energy input by the plasma sources and the kind of mycelial treatment (solid piece or suspension; direct treatment or application of plasma-treated medium). In conclusion, physical plasma might be a useful tool for optimizing biotechnological processes in medicinal mushrooms. Further investigations are necessary to clarify whether these changes are stable and heritable, and whether effects can be achieved with other fungal species.
机译:作为物质的第四状态的物理等离子体包括高反应性粒子(例如,反应性物质)和不同类型的辐射。它可以在大气压和低温下的标准条件下生成。血浆能够产生高产的细菌菌株,但是该技术先前尚未应用于改善药用蘑菇的生物技术过程。我们的研究调查了血浆对灵芝菌丝培养物生长和生产力的影响。灵芝菌丝体被处理成固体块,或使用3种不同的等离子体源悬浮在Hagem培养基中:表面电介质阻挡层放电(DBD)等离子体源,体积DBD等离子体源和kINPen09等离子体射流。分析处理过的菌丝体的生物量产生,提取物产量和次生代谢产物。等离子体射流增加了总三萜含量。两种DBD血浆源均导致麦角固醇含量升高。暴露于体积DBD或kINPen09处理的培养基后,发现β-1-3-D-葡聚糖含量增加。观察到的变化似乎取决于血浆源输入的总能量和菌丝体处理的类型(固体碎片或悬浮液;直接处理或使用经过等离子体处理的培养基)。总之,物理血浆可能是优化药用蘑菇生物技术过程的有用工具。有必要进行进一步的研究以阐明这些变化是否稳定和可遗传,以及是否可以用其他真菌物种达到效果。

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