New insights into molecular targets of salt tolerance in sorghum leaves elicited by ammonium nutrition

This study investigated the proteome modulation and physiological responses of Sorghum bicolor plants grown in nutrient solutions containing nitrate (NO3−) or ammonium (NH4+) at 5.0 mM, and subjected to salinity with 75 mM NaCl for ten days. Salinity promoted significant reductions in leaf area, roo...

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Veröffentlicht in:Plant physiology and biochemistry 2020-09, Vol.154, p.723-734
Hauptverfasser: Oliveira, Francisco Dalton Barreto de, Miranda, Rafael de Souza, Araújo, Gyedre dos Santos, Coelho, Daniel Gomes, Lobo, Marina Duarte Pinto, Paula-Marinho, Stelamaris de Oliveira, Lopes, Lineker de Sousa, Monteiro-Moreira, Ana Cristina Oliveira, Carvalho, Humberto Henrique de, Gomes-Filho, Enéas
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container_issue
container_start_page 723
container_title Plant physiology and biochemistry
container_volume 154
creator Oliveira, Francisco Dalton Barreto de
Miranda, Rafael de Souza
Araújo, Gyedre dos Santos
Coelho, Daniel Gomes
Lobo, Marina Duarte Pinto
Paula-Marinho, Stelamaris de Oliveira
Lopes, Lineker de Sousa
Monteiro-Moreira, Ana Cristina Oliveira
Carvalho, Humberto Henrique de
Gomes-Filho, Enéas
description This study investigated the proteome modulation and physiological responses of Sorghum bicolor plants grown in nutrient solutions containing nitrate (NO3−) or ammonium (NH4+) at 5.0 mM, and subjected to salinity with 75 mM NaCl for ten days. Salinity promoted significant reductions in leaf area, root and shoot dry mass of sorghum plants, regardless of nitrogen source; however, higher growth was observed in ammonium-grown plants. The better performance of ammonium-fed stressed plants was associated with low hydrogen peroxide accumulation, and improved CO2 assimilation and K+/Na+ homeostasis under salinity. Proteomic study revealed a nitrogen source-induced differential modulation in proteins related to photosynthesis/carbon metabolism, energy metabolism, response to stress and other cellular processes. Nitrate-fed plants induced thylakoidal electron transport chain proteins and structural and carbon assimilation enzymes, but these mechanisms seemed to be insufficient to mitigate salt damage in photosynthetic performance. In contrast, the greater tolerance to salinity of ammonium-grown plants may have arisen from: i.) de novo synthesis or upregulation of enzymes from photosynthetic/carbon metabolism, which resulted in better CO2 assimilation rates under NaCl-stress; ii.) activation of proteins involved in energy metabolism which made available energy for salt responses, most likely by proton pumps and Na+/H+ antiporters; and iii.) reprogramming of proteins involved in response to stress and other metabolic processes, constituting intricate pathways of salt responses. Overall, our findings not only provide new insights of molecular basis of salt tolerance in sorghum plants induced by ammonium nutrition, but also give new perspectives to develop biotechnological strategies to generate more salt-tolerant crops. •Forage sorghum plants display contrasting responses against salinity under different nitrogen sources.•Ammonium nutrition mitigates salt damage in photosynthetic machinery of sorghum plants by modulating structural and carbon assimilation pathways.•Nitrate-fed sorghum plants failed to activate the intricate defense mechanisms and display elevated sensibility to salt stress.
doi_str_mv 10.1016/j.plaphy.2020.06.051
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Salinity promoted significant reductions in leaf area, root and shoot dry mass of sorghum plants, regardless of nitrogen source; however, higher growth was observed in ammonium-grown plants. The better performance of ammonium-fed stressed plants was associated with low hydrogen peroxide accumulation, and improved CO2 assimilation and K+/Na+ homeostasis under salinity. Proteomic study revealed a nitrogen source-induced differential modulation in proteins related to photosynthesis/carbon metabolism, energy metabolism, response to stress and other cellular processes. Nitrate-fed plants induced thylakoidal electron transport chain proteins and structural and carbon assimilation enzymes, but these mechanisms seemed to be insufficient to mitigate salt damage in photosynthetic performance. In contrast, the greater tolerance to salinity of ammonium-grown plants may have arisen from: i.) de novo synthesis or upregulation of enzymes from photosynthetic/carbon metabolism, which resulted in better CO2 assimilation rates under NaCl-stress; ii.) activation of proteins involved in energy metabolism which made available energy for salt responses, most likely by proton pumps and Na+/H+ antiporters; and iii.) reprogramming of proteins involved in response to stress and other metabolic processes, constituting intricate pathways of salt responses. 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subjects Ammonium Compounds
Nitrogen sources
Plant Leaves
Proteomics
Salinity
Salt stress
Salt Tolerance
Sorghum - physiology
Sorghum bicolor
title New insights into molecular targets of salt tolerance in sorghum leaves elicited by ammonium nutrition
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