Primary and secondary metabolites from the soil-root interaction in the rhizosphere facilitates extreme water depletion tolerance in olive trees

IF 1.3 4区 生物学 Q4 CHEMISTRY, MEDICINAL
Beligh Mechri , Meriem Tekaya , Ahlem Guesmi , Ammar Houas , Mohamed Hammami , Naoufel Ben Hamadi , Hechmi Chehab
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Abstract

Water is vital for all living rhizospheric organisms. However, numerous microorganisms have adapted to survive in environments in which water is scarce. Recent evidence has indicated that sugars from root or microbial source is linked with water deficit tolerance of crops. Here we described in olive trees the changes in sugars accumulation in roots, in combination with corresponding changes in microbial and soluble sugar profiles in the rhizosphere under drought conditions. A marked increase in mannitol content occurred in roots of water-stressed plants. Application of drought stress caused a significant increase in the level of microbial trehalose when compared to the control. Trehalose may increase the soil water surface tension, which could facilitate drought tolerance of olive. We showed that complex interactions of root and microbial community in the rhizosphere maintained the relative water content at 60 % under drought conditions and have the potential to regulate the water uptake by olive.

Abstract Image

根圈中土壤与根系相互作用产生的初级和次级代谢物促进了橄榄树对极端缺水的耐受性
水对所有根瘤生物都至关重要。然而,许多微生物已经适应了在缺水环境中生存。最近的证据表明,来自根部或微生物的糖与作物的耐缺水能力有关。在这里,我们描述了干旱条件下橄榄树根部糖分积累的变化,以及根圈微生物和可溶性糖分布的相应变化。水分胁迫植物根部的甘露醇含量明显增加。与对照组相比,施加干旱胁迫会导致微生物三卤糖的含量显著增加。三卤糖可增加土壤水的表面张力,从而促进橄榄的耐旱性。我们的研究表明,在干旱条件下,根圈中根系和微生物群落的复杂相互作用使相对含水量保持在 60%,并有可能调节橄榄的水分吸收。
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来源期刊
Phytochemistry Letters
Phytochemistry Letters 生物-生化与分子生物学
CiteScore
3.00
自引率
11.80%
发文量
190
审稿时长
34 days
期刊介绍: Phytochemistry Letters invites rapid communications on all aspects of natural product research including: • Structural elucidation of natural products • Analytical evaluation of herbal medicines • Clinical efficacy, safety and pharmacovigilance of herbal medicines • Natural product biosynthesis • Natural product synthesis and chemical modification • Natural product metabolism • Chemical ecology • Biotechnology • Bioassay-guided isolation • Pharmacognosy • Pharmacology of natural products • Metabolomics • Ethnobotany and traditional usage • Genetics of natural products Manuscripts that detail the isolation of just one new compound are not substantial enough to be sent out of review and are out of scope. Furthermore, where pharmacology has been performed on one new compound to increase the amount of novel data, the pharmacology must be substantial and/or related to the medicinal use of the producing organism.
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