Hydrogen-rich water improvement in root growth in maize exposed to saline stress

Yang, Liyan; Tian, Jingyun; Zhu, Manxi; Yu, Bo; Sun, Yawang

doi:10.1007/s42976-023-00413-2

Cited by 2 publications

(1 citation statement)

References 34 publications

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“…1). In addition, it has also been reported that exogenous HRW treatment signi cantly increased the root length, dry weight, surface area, root volume, root/shoot ratio and average diameter of maize roots under salt stress (Yang et al 2023). Our results indicate that HRW treatment signi cantly enhanced root length, dry weight, surface area, volume, root/shoot ratio, and average root diameter of tomato seedlings under salt stress (Fig.…”

Section: Hrw Increased Strigolactone Content and Strigolactone Biosyn...supporting

confidence: 81%

Hydrogen-rich water enhanced salt tolerance in tomato seedlings by regulating strigolactone biosynthesis genes SlMAX1 and SlD27

Ye,

Fang,

Feng

et al. 2024

Preprint

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Background Hydrogen gas (H2) and strigolactones (SLs) are involved in various biotic and abiotic stress response in plants. However, the crosstalk between H2 and SLs has not been investigated. Methods Using pharmacological methods and virus-induced gene-silencing, the regulatory roles of H2 and SLs and their interaction in tomato (Solanum lycopersicum L. ‘Micro-Tom’) under salt stress were investigated. Results Both GR24 (a SLs synthetic analog) and hydrogen rich water (HRW, a H2 donor) significantly reversed salt-induced growth retardation as evidenced by promoted root morphological parameters and root activity. SLs might be involved in H2-enhanced salt stress tolerance in tomato seedling roots. Additionally, HRW treatment increased endogenous SLs content in tomato seedling roots under salt stress However, the positive roles of HRW were blocked by TIS108 (a specific SLs synthesis). In addition, HRW and GR24 could effectively maintain the integrity of the internal anatomical structure in roots under salt stress; while TIS108 also inhibited the positive roles of HRW. Thus,. Simultaneously, HRW treatment significantly up-regulated the expression levels of SL biosynthesis-related genes SlCCD7, SlCCD8, SlD27 and SlMAX1 and SL signal transduction genes SlD14 and SlMAX2 under salt stress. Further, after silencing SlD27 and SlMAX1 genes, the alleviation effect of HRW on tomato roots under salt stress was basically eliminated. HRW did not increase the content of endogenous SLs in SlD27 and SlMAX1 silenced seedlings. Conclusion SLs biosynthesis genes SlMAX1 and SlD27 may be involved in H2-alleviated salt stress in tomato seedlings.

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Section: Hrw Increased Strigolactone Content and Strigolactone Biosyn...supporting

confidence: 81%

Hydrogen-rich water enhanced salt tolerance in tomato seedlings by regulating strigolactone biosynthesis genes SlMAX1 and SlD27

Ye,

Fang,

Feng

et al. 2024

Preprint

View full text Add to dashboard Cite

show abstract

Hydrogen-rich water enhanced salt tolerance in tomato seedlings by regulating strigolactone biosynthesis genes SlMAX1 and SlD27

Ye,

Fang,

Feng

et al. 2024

Plant Soil

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BackgroundHydrogen gas (H 2 ) and strigolactones (SLs) are involved in various biotic and abiotic stress response in plants. However, the crosstalk between H 2 and SLs has not been investigated. MethodsUsing pharmacological methods and virus-induced gene-silencing, the regulatory roles of H 2 and SLs and their interaction in tomato (Solanum lycopersicum L. 'Micro-Tom') under salt stress were investigated. ResultsBoth GR24 (a SLs synthetic analog) and hydrogen rich water (HRW, a H 2 donor) signi cantly reversed salt-induced growth retardation as evidenced by promoted root morphological parameters and root activity. SLs might be involved in H 2 -enhanced salt stress tolerance in tomato seedling roots. Additionally, HRW treatment increased endogenous SLs content in tomato seedling roots under salt stress However, the positive roles of HRW were blocked by TIS108 (a speci c SLs synthesis). In addition, HRW and GR24 could effectively maintain the integrity of the internal anatomical structure in roots under salt stress; while TIS108 also inhibited the positive roles of HRW. Thus,. Simultaneously, HRW treatment signi cantly up-regulated the expression levels of SL biosynthesis-related genes SlCCD7, SlCCD8, SlD27 and SlMAX1 and SL signal transduction genes SlD14 and SlMAX2 under salt stress. Further, after silencing SlD27 and SlMAX1 genes, the alleviation effect of HRW on tomato roots under salt stress was basically eliminated. HRW did not increase the content of endogenous SLs in SlD27 and SlMAX1 silenced seedlings. ConclusionSLs biosynthesis genes SlMAX1 and SlD27 may be involved in H 2 -alleviated salt stress in tomato seedlings.

show abstract

Hydrogen-rich water improvement in root growth in maize exposed to saline stress

Cited by 2 publications

References 34 publications

Hydrogen-rich water enhanced salt tolerance in tomato seedlings by regulating strigolactone biosynthesis genes SlMAX1 and SlD27

Hydrogen-rich water enhanced salt tolerance in tomato seedlings by regulating strigolactone biosynthesis genes SlMAX1 and SlD27

Hydrogen-rich water enhanced salt tolerance in tomato seedlings by regulating strigolactone biosynthesis genes SlMAX1 and SlD27

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