A roadmap of plant membrane transporters in arbuscular mycorrhizal and legume–rhizobium symbioses

Banasiak, Joanna; Jamruszka, Tomasz; Murray, J. D.; Jasiński, Michał

doi:10.1093/plphys/kiab280

Cited by 40 publications

(34 citation statements)

References 259 publications

(337 reference statements)

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“…Nitrogen shortage stimulates flavonoid production and release, similar to the increased exudation of strigolactones before arbuscular mycorrhizal symbiosis under phosphate-limiting circumstances. Thus, the identification of ''pre-infection flavonoids'' transporters may be determined based on their root-specific transcription and elevation under nitrogen deficiency (Banasiak et al 2021). Because various legumes employ different flavonoids components for nodulation, the prospect of differences in transporters selectivity or expression among legumes is intriguing.…”

Section: Flavonoids As Signal Molecules In Leguminous Plantsmentioning

confidence: 99%

“…Furthermore, biochemical investigations have shown that ABCG transporters regulate genistein production from Glycine max roots, although the particular components have yet to be identified. Representatives of the MATE family have been reported to be engaged in the secretion of signalling flavonoids; nevertheless, this has yet to be confirmed (Banasiak et al 2021).…”

Section: Flavonoids As Signal Molecules In Leguminous Plantsmentioning

confidence: 99%

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Flavonoid mediated selective cross-talk between plants and beneficial soil microbiome

et al. 2022

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Plants generate a wide variety of organic components during their different growth phases. The majority of those compounds have been classified as primary and secondary metabolites. Secondary metabolites are essential in plants’ adaptation to new changing environments and in managing several biotic and abiotic stress. It also invests some of its photosynthesized carbon as secondary metabolites to establish a mutual relationship with soil microorganisms in that specific niche. As soil harbors both pathogenic and beneficial microorganisms, it is essential to identify some specific metabolites that can discriminate beneficial and pathogenic ones. Thus, a detailed understanding of metabolite’s architectures that interact with beneficial microorganisms could open a new horizon of ecology and agricultural research. Flavonoids are used as classic examples of secondary metabolites in this study to demonstrate recent developments in understanding and realizing how these valuable metabolites can be controlled at different levels. Most of the research was focused on plant flavonoids, which shield the host plant against competitors or predators, as well as having other ecological implications. Thus, in the present review, our goal is to cover a wide range of functional and signalling activities of secondary metabolites especially, flavonoids mediated selective cross-talk between plant and its beneficial soil microbiome. Here, we have summarized recent advances in understanding the interactions between plant species and their rhizosphere microbiomes through root exudates (flavonoids), with a focus on how these exudates facilitate rhizospheric associations. Supplementary Information The online version contains supplementary material available at 10.1007/s11101-022-09806-3.

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Section: Flavonoids As Signal Molecules In Leguminous Plantsmentioning

confidence: 99%

Section: Flavonoids As Signal Molecules In Leguminous Plantsmentioning

confidence: 99%

Flavonoid mediated selective cross-talk between plants and beneficial soil microbiome

et al. 2022

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“…Targeting sugar transport system, such as vacuolar components maintaining cell turgescence in response to water deficit (Slawinski et al, 2021), may also be a hopeful opportunity to develop climate‐resilient crops. In conclusion, plant membrane transporters represent a key target to increase crop yield and quality, as well as to improve the sustainable production of nutritious foods (Banasiak et al, 2021; Schroeder et al, 2013).…”

Section: Future Milestones: Engineering Sugar Transporters To Improve...mentioning

confidence: 99%

Carbon fluxes and environmental interactions during legume development, with a specific focus on Pisum sativum

Morin

Maurousset

Vriet

et al. 2022

Physiologia Plantarum

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Grain legumes are major food crops cultivated worldwide for their seeds with high nutritional content. To answer the growing concern about food safety and protein autonomy, legume cultivation must increase in the coming years. In parallel, current agricultural practices are facing environmental challenges, including global temperature increase and more frequent and severe episodes of drought stress. Crop yield directly relies on carbon allocation and is particularly affected by these global changes. We review the current knowledge on source‐sink relationships and carbon resource allocation at all developmental stages, from germination to vegetative growth and seed production in grain legumes, focusing on pea (Pisum sativum). We also discuss how these source‐sink relationships and carbon fluxes are influenced by biotic and abiotic factors. Major agronomic traits, including seed yield and quality, are particularly impacted by drought, temperatures, salinity, waterlogging, or pathogens and can be improved through the promotion of beneficial soil microorganisms or through optimized plant carbon resource allocation. Altogether, our review highlights the need for a better understanding of the cellular and molecular mechanisms regulating carbon fluxes from source leaves to sink organs, roots, and seeds. These advancements will further improve our understanding of yield stability and stress tolerance and contribute to the selection of climate‐resilient crops.

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“…It has been shown before that mycorrhizal fungi possess several characteristic protein family contractions and losses involving plant-biomass-degrading enzymes [146]. However, in mycorrhizal systems the transporters have been described more thoroughly on the plant's side, leaving fungal counterparts uninvestigated [147].…”

Section: Protein Expansions and Ecologymentioning

confidence: 99%

In Silico Predictions of Ecological Plasticity Mediated by Protein Family Expansions in Early-Diverging Fungi

Orłowska

Muszewska

2022

JoF

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Early-diverging fungi (EDF) are ubiquitous and versatile. Their diversity is reflected in their genome sizes and complexity. For instance, multiple protein families have been reported to expand or disappear either in particular genomes or even whole lineages. The most commonly mentioned are CAZymes (carbohydrate-active enzymes), peptidases and transporters that serve multiple biological roles connected to, e.g., metabolism and nutrients intake. In order to study the link between ecology and its genomic underpinnings in a more comprehensive manner, we carried out a systematic in silico survey of protein family expansions and losses among EDF with diverse lifestyles. We found that 86 protein families are represented differently according to EDF ecological features (assessed by median count differences). Among these there are 19 families of proteases, 43 CAZymes and 24 transporters. Some of these protein families have been recognized before as serine and metallopeptidases, cellulases and other nutrition-related enzymes. Other clearly pronounced differences refer to cell wall remodelling and glycosylation. We hypothesize that these protein families altogether define the preliminary fungal adaptasome. However, our findings need experimental validation. Many of the protein families have never been characterized in fungi and are discussed in the light of fungal ecology for the first time.

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A roadmap of plant membrane transporters in arbuscular mycorrhizal and legume–rhizobium symbioses

Cited by 40 publications

References 259 publications

Flavonoid mediated selective cross-talk between plants and beneficial soil microbiome

Flavonoid mediated selective cross-talk between plants and beneficial soil microbiome

Carbon fluxes and environmental interactions during legume development, with a specific focus on Pisum sativum

In Silico Predictions of Ecological Plasticity Mediated by Protein Family Expansions in Early-Diverging Fungi

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