Mechanism of Enzyme Activity Regulation and Strain-Specific Response of Lentinula edodes Cultivation Adaptability Under Peach Wood Substrate

The resource utilization of peach wood as agricultural waste holds significant importance for the sustainable development of the edible fungi industry, yet its regulatory effects on the physiology and safety of <i>Lentinula edodes</i> (<i>L. edodes</i>) remain unclear. This study selected four <i>L. edodes</i> (F2, 0912, N5, and 215) and systematically analyzed their cultivation adaptability across five peach wood substrate proportions (0%, 20%, 40%, 60%, and 80%). Results indicated that while high peach wood proportions inhibited laccase activity and delayed mycelial growth, high carboxymethyl cellulase and xylanase activity formed a critical compensatory effect, ultimately enhancing total yield. Peach wood improved production through strain-specific mechanisms. F2 increased via single mushroom weight gain, while N5 relied on xylanase-driven primordia differentiation to boost mushroom numbers. Adding peach wood significantly increased crude protein, crude lipid, and total polysaccharide in F2, maintaining normal agronomic traits and increasing secondary mushroom proportion. Safety risks focused on arsenic accumulation, with 80% peach wood causing F2 to exceed control levels, albeit remaining far below the national standards. This study is among the first to elucidate peach wood's temporal enzyme regulation for the maintenance of <i>L. edodes</i> yield. Future optimization through peach wood pretreatment and low arsenic strain selection could provide technical support for the high value utilization of agricultural waste.

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Publication Details

Journal
Journal of Fungi
Published
2025-09-20
DOI
https://doi.org/10.3390/jof11090684
Citations
2
Primary Topic
Fungal Biology and Applications
Type
article
Field-Weighted Citation Impact
2.79

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article

Mechanism of Enzyme Activity Regulation and Strain-Specific Response of Lentinula edodes Cultivation Adaptability Under Peach Wood Substrate

Haoran Dong, Shouxian Wang, Yu Li, Ming‐Liang He et al.
2 citations
Journal of Fungi
Fungal Biology and Applications
2.79
article

Mechanism of Enzyme Activity Regulation and Strain-Specific Response of Lentinula edodes Cultivation Adaptability Under Peach Wood Substrate

Haoran Dong, Shouxian Wang, Yu Li, Ming‐Liang He, Long Tian, Ning Jiang, Hailong Yu, Tai-Zeng Xin
article en
2 citations

Abstract

The resource utilization of peach wood as agricultural waste holds significant importance for the sustainable development of the edible fungi industry, yet its regulatory effects on the physiology and safety of <i>Lentinula edodes</i> (<i>L. edodes</i>) remain unclear. This study selected four <i>L. edodes</i> (F2, 0912, N5, and 215) and systematically analyzed their cultivation adaptability across five peach wood substrate proportions (0%, 20%, 40%, 60%, and 80%). Results indicated that while high peach wood proportions inhibited laccase activity and delayed mycelial growth, high carboxymethyl cellulase and xylanase activity formed a critical compensatory effect, ultimately enhancing total yield. Peach wood improved production through strain-specific mechanisms. F2 increased via single mushroom weight gain, while N5 relied on xylanase-driven primordia differentiation to boost mushroom numbers. Adding peach wood significantly increased crude protein, crude lipid, and total polysaccharide in F2, maintaining normal agronomic traits and increasing secondary mushroom proportion. Safety risks focused on arsenic accumulation, with 80% peach wood causing F2 to exceed control levels, albeit remaining far below the national standards. This study is among the first to elucidate peach wood's temporal enzyme regulation for the maintenance of <i>L. edodes</i> yield. Future optimization through peach wood pretreatment and low arsenic strain selection could provide technical support for the high value utilization of agricultural waste.

Journal of FungiVol. 11(9)
Institute of Plant Protection (CN), Shanghai Academy of Agricultural Sciences (CN), Beijing Academy of Agricultural and Forestry Sciences (CN), Jilin Agricultural University (CN)
National Natural Science Foundation of China, National Key Research and Development Program of China
Openalex Percentile: Top 9%
Fungal Biology and Applications
2.79
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