Regulation of potassium transport in plants under hostile conditions: implications for abiotic and biotic stress tolerance
Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K⁺ uptake, efflux and intracellular and long‐distance relocation, mediated by a large number of K⁺‐selective and non‐selective channe...
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| Published in | Physiologia plantarum Vol. 151; no. 3; pp. 257 - 279 |
|---|---|
| Main Authors | , |
| Format | Journal Article |
| Language | English |
| Published |
Oxford, UK
Blackwell Publishing Ltd
01.07.2014
Wiley Subscription Services, Inc |
| Subjects | |
| Online Access | Get full text |
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| Abstract | Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K⁺ uptake, efflux and intracellular and long‐distance relocation, mediated by a large number of K⁺‐selective and non‐selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K⁺ content may be considered as one of the ‘master switches’ enabling plant transition from the normal metabolism to ‘hibernated state’ during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K⁺ homeostasis and provoke a feedback control on K⁺ channels and transporters expression and post‐translational regulation of their activity, optimizing K⁺ absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K⁺ channels and transporters by membrane voltage, intracellular Ca²⁺, reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant‐adaptive responses to hostile environments. |
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| AbstractList | Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K⁺ uptake, efflux and intracellular and long‐distance relocation, mediated by a large number of K⁺‐selective and non‐selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K⁺ content may be considered as one of the ‘master switches’ enabling plant transition from the normal metabolism to ‘hibernated state’ during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K⁺ homeostasis and provoke a feedback control on K⁺ channels and transporters expression and post‐translational regulation of their activity, optimizing K⁺ absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K⁺ channels and transporters by membrane voltage, intracellular Ca²⁺, reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant‐adaptive responses to hostile environments. Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K(+) uptake, efflux and intracellular and long-distance relocation, mediated by a large number of K(+) -selective and non-selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K(+) content may be considered as one of the 'master switches' enabling plant transition from the normal metabolism to 'hibernated state' during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K(+) homeostasis and provoke a feedback control on K(+) channels and transporters expression and post-translational regulation of their activity, optimizing K(+) absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K(+) channels and transporters by membrane voltage, intracellular Ca(2+) , reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant-adaptive responses to hostile environments. Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K(+) uptake, efflux and intracellular and long-distance relocation, mediated by a large number of K(+) -selective and non-selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K(+) content may be considered as one of the 'master switches' enabling plant transition from the normal metabolism to 'hibernated state' during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K(+) homeostasis and provoke a feedback control on K(+) channels and transporters expression and post-translational regulation of their activity, optimizing K(+) absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K(+) channels and transporters by membrane voltage, intracellular Ca(2+) , reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant-adaptive responses to hostile environments.Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K(+) uptake, efflux and intracellular and long-distance relocation, mediated by a large number of K(+) -selective and non-selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K(+) content may be considered as one of the 'master switches' enabling plant transition from the normal metabolism to 'hibernated state' during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K(+) homeostasis and provoke a feedback control on K(+) channels and transporters expression and post-translational regulation of their activity, optimizing K(+) absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K(+) channels and transporters by membrane voltage, intracellular Ca(2+) , reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant-adaptive responses to hostile environments. Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K+ uptake, efflux and intracellular and long-distance relocation, mediated by a large number of K+-selective and non-selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K+ content may be considered as one of the 'master switches' enabling plant transition from the normal metabolism to 'hibernated state' during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K+ homeostasis and provoke a feedback control on K+ channels and transporters expression and post-translational regulation of their activity, optimizing K+ absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K+ channels and transporters by membrane voltage, intracellular Ca2+, reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant-adaptive responses to hostile environments. [PUBLICATION ABSTRACT] Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K + uptake, efflux and intracellular and long‐distance relocation, mediated by a large number of K + ‐selective and non‐selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K + content may be considered as one of the ‘master switches’ enabling plant transition from the normal metabolism to ‘hibernated state’ during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K + homeostasis and provoke a feedback control on K + channels and transporters expression and post‐translational regulation of their activity, optimizing K + absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K + channels and transporters by membrane voltage, intracellular Ca 2+ , reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant‐adaptive responses to hostile environments. Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled by K+ uptake, efflux and intracellular and long‐distance relocation, mediated by a large number of K+‐selective and non‐selective channels and transporters located at both plasma and vacuolar membranes. All abiotic and biotic stresses result in a significant disturbance to intracellular potassium homeostasis. In this work, we discuss molecular mechanisms and messengers mediating potassium transport and homeostasis focusing on four major environmental stresses: salinity, drought, flooding and biotic factors. We argue that cytosolic K+ content may be considered as one of the ‘master switches’ enabling plant transition from the normal metabolism to ‘hibernated state’ during first hours after the stress exposure and then to a recovery phase. We show that all these stresses trigger substantial disturbance to K+ homeostasis and provoke a feedback control on K+ channels and transporters expression and post‐translational regulation of their activity, optimizing K+ absorption and usage, and, at the extreme end, assisting the programmed cell death. We discuss specific modes of regulation of the activity of K+ channels and transporters by membrane voltage, intracellular Ca2+, reactive oxygen species, polyamines, phytohormones and gasotransmitters, and link this regulation with plant‐adaptive responses to hostile environments. |
| Author | Shabala, Sergey Pottosin, Igor |
| Author_xml | – sequence: 1 fullname: Shabala, Sergey – sequence: 2 fullname: Pottosin, Igor |
| BackLink | https://www.ncbi.nlm.nih.gov/pubmed/24506225$$D View this record in MEDLINE/PubMed |
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| Notes | http://dx.doi.org/10.1111/ppl.12165 Australian Research Council and Grain Research Development Corporation ArticleID:PPL12165 istex:6EB7B4BF9A2AEAE00C1ED5F3C28D0C4CD80B78B4 ark:/67375/WNG-D6DC79JQ-W ObjectType-Article-1 SourceType-Scholarly Journals-1 ObjectType-Feature-2 content type line 14 ObjectType-Review-3 content type line 23 |
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| PublicationTitle | Physiologia plantarum |
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| PublicationYear | 2014 |
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| Snippet | Intracellular potassium homeostasis is a prerequisite for the optimal operation of plant metabolic machinery and plant's overall performance. It is controlled... |
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| SubjectTerms | absorption Adaptation, Physiological - physiology apoptosis Biotic factors biotic stress calcium Calcium - metabolism Drought Environmental stress Homeostasis Homeostasis - physiology Ion Transport metabolism Models, Biological Plants - metabolism Polyamines Potassium Potassium - metabolism Potassium Channels - physiology Potassium-Hydrogen Antiporters - physiology reactive oxygen species Relocation salinity stress tolerance Stress, Physiological - physiology transporters |
| Title | Regulation of potassium transport in plants under hostile conditions: implications for abiotic and biotic stress tolerance |
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