Enhanced production of novel bioactive metabolites in mung bean (Vigna radiata (L.) R. Wilczek) plants induced by signal molecule ethylene in a vertical farm

In the biofunctional material industry, enhancing bioactive metabolites in plants using signal stimulants is an emerging strategy. This study investigated the changes in bioactive metabolite content in different organs of mung bean plants treated with ethylene (ETL) in a closed chamber. In addition, we also examined its biomass, novel compounds, biological activities, and DNA protection. Through this approach, a practical method for producing mung bean plants with enhanced bioactive metabolites was proposed. ETL treatments led to a notable reduction in biomass, particularly in the leaves and roots, without affecting plant height. ETL treated leaves exhibited significant increases in the total phenolic, flavonoid, isoflavone, and flavone contents. Four compounds were identified in the mung bean organs following ETL treatment: 2′-hydroxydaidzein-4′,7- O -diglucoside, daidzein-4′,7- O -diglucoside, 2′-hydroxydaidzin, and 2′-hydroxydaidzein. Among these isoflavones, 2′-hydroxydaidzin and daidzin showed the highest significant accumulation levels in ETL treated leaves. In particular, the contents of 2′-hydroxydaidzin, daidzin, and genistin in the ETL treated leaves was increased by 77.4-fold (273.24–21,159.88 μg/g), 74.2-fold (429.67–31,845.13 μg/g), and 12.0-fold (268.35–3209.12 μg/g) respectively, compared with their contents in untreated leaves. Furthermore, the total phenolic and flavonoid contents increased from 13.87–24.59 and from 9.89 to 12.87 mg/g, respectively. These enhanced active metabolites in ETL treated mung bean organs significantly improved the antioxidant capacity, including radical scavenging, digestive enzyme-inhibition, and DNA protection activities. These findings underscore the potential of ETL as an effective elicitor and enhancer of bioactive metabolite production, supporting its application in high value functional bioresources. • ETL treatments affect the biomass of leaves and roots of mung bean plants. • ETL treatment enhanced bioactive metabolites such as isoflavones and flavones in mung bean organs. • 2HDAEDG, DAEDG, 2HDAI, and 2HDAE were among the enhanced novel compounds following ETL treatments. • ETL treatment enhanced HDAI 77.4-fold and DAI 74.2-fold in mung bean leaves. • ETL treatment significantly enhanced the in vitro biological and DNA protection activities in mung bean leaves.

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Publication Details

Journal
Industrial Crops and Products
Published
2025-06-19
DOI
https://doi.org/10.1016/j.indcrop.2025.121382
Citations
2
Primary Topic
Genetic and Environmental Crop Studies
Type
article
Field-Weighted Citation Impact
3.50

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article

Enhanced production of novel bioactive metabolites in mung bean (Vigna radiata (L.) R. Wilczek) plants induced by signal molecule ethylene in a vertical farm

Greg Lee, Eun Jeong Ko, Hee Yul Lee, Ki-Ho Son et al.
2 citations
Industrial Crops and Products
Genetic and Environmental Crop Studies
3.50
article

Enhanced production of novel bioactive metabolites in mung bean (Vigna radiata (L.) R. Wilczek) plants induced by signal molecule ethylene in a vertical farm

Greg Lee, Eun Jeong Ko, Hee Yul Lee, Ki-Ho Son, Jong Bin Jeong, Jin Hwan Lee, Md. Azizul Haque, Kye Man Cho, Mu Yeun Jang, Se Hyeon Jeon, Du Yong Cho
article en
2 citations

Abstract

In the biofunctional material industry, enhancing bioactive metabolites in plants using signal stimulants is an emerging strategy. This study investigated the changes in bioactive metabolite content in different organs of mung bean plants treated with ethylene (ETL) in a closed chamber. In addition, we also examined its biomass, novel compounds, biological activities, and DNA protection. Through this approach, a practical method for producing mung bean plants with enhanced bioactive metabolites was proposed. ETL treatments led to a notable reduction in biomass, particularly in the leaves and roots, without affecting plant height. ETL treated leaves exhibited significant increases in the total phenolic, flavonoid, isoflavone, and flavone contents. Four compounds were identified in the mung bean organs following ETL treatment: 2′-hydroxydaidzein-4′,7- O -diglucoside, daidzein-4′,7- O -diglucoside, 2′-hydroxydaidzin, and 2′-hydroxydaidzein. Among these isoflavones, 2′-hydroxydaidzin and daidzin showed the highest significant accumulation levels in ETL treated leaves. In particular, the contents of 2′-hydroxydaidzin, daidzin, and genistin in the ETL treated leaves was increased by 77.4-fold (273.24–21,159.88 μg/g), 74.2-fold (429.67–31,845.13 μg/g), and 12.0-fold (268.35–3209.12 μg/g) respectively, compared with their contents in untreated leaves. Furthermore, the total phenolic and flavonoid contents increased from 13.87–24.59 and from 9.89 to 12.87 mg/g, respectively. These enhanced active metabolites in ETL treated mung bean organs significantly improved the antioxidant capacity, including radical scavenging, digestive enzyme-inhibition, and DNA protection activities. These findings underscore the potential of ETL as an effective elicitor and enhancer of bioactive metabolite production, supporting its application in high value functional bioresources. • ETL treatments affect the biomass of leaves and roots of mung bean plants. • ETL treatment enhanced bioactive metabolites such as isoflavones and flavones in mung bean organs. • 2HDAEDG, DAEDG, 2HDAI, and 2HDAE were among the enhanced novel compounds following ETL treatments. • ETL treatment enhanced HDAI 77.4-fold and DAI 74.2-fold in mung bean leaves. • ETL treatment significantly enhanced the in vitro biological and DNA protection activities in mung bean leaves.

Industrial Crops and ProductsVol. 233
Gyeongsang National University (KR), Hajee Mohammad Danesh Science and Technology University (BD), International Ginseng & Herb Research Institute (KR), Dong-A University (KR)
National Research Foundation, Ministry of Education, Ministry of Science and ICT, South Korea
Zero hunger
Openalex Percentile: Top 8%
Genetic and Environmental Crop Studies
3.50
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