Water Conservation and Plant Survival Strategies of Rhizobacteria under Drought Stress

Drylands are stressful environment for plants growth and production. Plant growth-promoting rhizobacteria (PGPR) acts as a rampart against the adverse impacts of drought stress in drylands and enhances plant growth and is helpful in agricultural sustainability. PGPR improves drought tolerance by imp...

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Published inAgronomy (Basel) Vol. 10; no. 11; p. 1683
Main Authors Khan, Naeem, Ali, Shahid, Tariq, Haleema, Latif, Sadia, Yasmin, Humaira, Mehmood, Asif, Shahid, Muhammad Adnan
Format Journal Article
LanguageEnglish
Published Basel MDPI AG 30.10.2020
Subjects
Accumulation
agronomy
Alcohols
Amino acids
Antioxidants
architecture
Arid lands
Arid zones
biofilm
Biofilms
biomass
Carbohydrates
Dehydration
Desert soils
Drought
Drought resistance
drought tolerance
environment
Environmental impact
Exopolysaccharides
Flowering
Flowers & plants
Metabolites
Plant growth
plant growth-promoting rhizobacteria
Plant resistance
Plants (botany)
Polyamines
Polyols
rhizosphere bacteria
root growth
Sandy soils
Solutes
Sugar
sugar alcohols
Survival
Sustainable agriculture
systemic acquired resistance
water
Water conservation
Water scarcity
water shortages
water stress
Water uptake
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Abstract Drylands are stressful environment for plants growth and production. Plant growth-promoting rhizobacteria (PGPR) acts as a rampart against the adverse impacts of drought stress in drylands and enhances plant growth and is helpful in agricultural sustainability. PGPR improves drought tolerance by implicating physio-chemical modifications called rhizobacterial-induced drought endurance and resilience (RIDER). The RIDER response includes; alterations of phytohormonal levels, metabolic adjustments, production of bacterial exopolysaccharides (EPS), biofilm formation, and antioxidant resistance, including the accumulation of many suitable organic solutes such as carbohydrates, amino acids, and polyamines. Modulation of moisture status by these PGPRs is one of the primary mechanisms regulating plant growth, but studies on their effect on plant survival are scarce in sandy/desert soil. It was found that inoculated plants showed high tolerance to water-deficient conditions by delaying dehydration and maintaining the plant’s water status at an optimal level. PGPR inoculated plants had a high recovery rate after rewatering interms of similar biomass at flowering compared to non-stressed plants. These rhizobacteria enhance plant tolerance and also elicit induced systemic resistance of plants to water scarcity. PGPR also improves the root growth and root architecture, thereby improving nutrient and water uptake. PGPR promoted accumulation of stress-responsive plant metabolites such as amino acids, sugars, and sugar alcohols. These metabolites play a substantial role in regulating plant growth and development and strengthen the plant’s defensive system against various biotic and abiotic stresses, in particular drought stress.
AbstractList Drylands are stressful environment for plants growth and production. Plant growth-promoting rhizobacteria (PGPR) acts as a rampart against the adverse impacts of drought stress in drylands and enhances plant growth and is helpful in agricultural sustainability. PGPR improves drought tolerance by implicating physio-chemical modifications called rhizobacterial-induced drought endurance and resilience (RIDER). The RIDER response includes; alterations of phytohormonal levels, metabolic adjustments, production of bacterial exopolysaccharides (EPS), biofilm formation, and antioxidant resistance, including the accumulation of many suitable organic solutes such as carbohydrates, amino acids, and polyamines. Modulation of moisture status by these PGPRs is one of the primary mechanisms regulating plant growth, but studies on their effect on plant survival are scarce in sandy/desert soil. It was found that inoculated plants showed high tolerance to water-deficient conditions by delaying dehydration and maintaining the plant’s water status at an optimal level. PGPR inoculated plants had a high recovery rate after rewatering interms of similar biomass at flowering compared to non-stressed plants. These rhizobacteria enhance plant tolerance and also elicit induced systemic resistance of plants to water scarcity. PGPR also improves the root growth and root architecture, thereby improving nutrient and water uptake. PGPR promoted accumulation of stress-responsive plant metabolites such as amino acids, sugars, and sugar alcohols. These metabolites play a substantial role in regulating plant growth and development and strengthen the plant’s defensive system against various biotic and abiotic stresses, in particular drought stress.
Author Tariq, Haleema
Yasmin, Humaira
Khan, Naeem
Mehmood, Asif
Ali, Shahid
Shahid, Muhammad Adnan
Latif, Sadia
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Snippet Drylands are stressful environment for plants growth and production. Plant growth-promoting rhizobacteria (PGPR) acts as a rampart against the adverse impacts...
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SubjectTerms Accumulation
agronomy
Alcohols
Amino acids
Antioxidants
architecture
Arid lands
Arid zones
biofilm
Biofilms
biomass
Carbohydrates
Dehydration
Desert soils
Drought
Drought resistance
drought tolerance
environment
Environmental impact
Exopolysaccharides
Flowering
Flowers & plants
Metabolites
Plant growth
plant growth-promoting rhizobacteria
Plant resistance
Plants (botany)
Polyamines
Polyols
rhizosphere bacteria
root growth
Sandy soils
Solutes
Sugar
sugar alcohols
Survival
Sustainable agriculture
systemic acquired resistance
water
Water conservation
Water scarcity
water shortages
water stress
Water uptake
Title Water Conservation and Plant Survival Strategies of Rhizobacteria under Drought Stress
URI https://www.proquest.com/docview/2524341271
https://www.proquest.com/docview/2498295429
Volume 10
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