Stalk cell polar ion transport provide for bladder‐based salinity tolerance in Chenopodium quinoa

Summary Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder. Under salt stress, sodium (Na+), chloride (Cl−), potassium (K+) and various metabolites are shuttled from the leaf lamina to the...

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Published inThe New phytologist Vol. 235; no. 5; pp. 1822 - 1835
Main Authors Bazihizina, Nadia, Böhm, Jennifer, Messerer, Maxim, Stigloher, Christian, Müller, Heike M., Cuin, Tracey Ann, Maierhofer, Tobias, Cabot, Joan, Mayer, Klaus F. X., Fella, Christian, Huang, Shouguang, Al‐Rasheid, Khaled A. S., Alquraishi, Saleh, Breadmore, Michael, Mancuso, Stefano, Shabala, Sergey, Ache, Peter, Zhang, Heng, Zhu, Jian‐Kang, Hedrich, Rainer, Scherzer, Sönke
Format Journal Article
LanguageEnglish
Published England Wiley Subscription Services, Inc 01.09.2022
Subjects
Bladder
Cells
Chenopodium quinoa
Cluster analysis
Electrophysiology
Fluorescence
Gene expression
Gene sequencing
halophyte
Ion channels
Ion transport
Leaves
Metabolites
polar ion transport
Potassium
Quinoa
RNA sequencing
Saccharides
Salinity tolerance
salt tolerance
Selectivity
Sodium
Solutes
stalk cell
Tomography
Tracers
salt tolerance
stalk cell
halophyte
polar ion transport
quinoa
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Abstract Summary Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder. Under salt stress, sodium (Na+), chloride (Cl−), potassium (K+) and various metabolites are shuttled from the leaf lamina to the bladders. Stalk cells operate as both a selectivity filter and a flux controller. In line with the nature of a transfer cell, advanced transmission electron tomography, electrophysiology, and fluorescent tracer flux studies revealed the stalk cell’s polar organization and bladder‐directed solute flow. RNA sequencing and cluster analysis revealed the gene expression profiles of the stalk cells. Among the stalk cell enriched genes, ion channels and carriers as well as sugar transporters were most pronounced. Based on their electrophysiological fingerprint and thermodynamic considerations, a model for stalk cell transcellular transport was derived.
AbstractList Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder. Under salt stress, sodium (Na + ), chloride (Cl − ), potassium (K + ) and various metabolites are shuttled from the leaf lamina to the bladders. Stalk cells operate as both a selectivity filter and a flux controller. In line with the nature of a transfer cell, advanced transmission electron tomography, electrophysiology, and fluorescent tracer flux studies revealed the stalk cell’s polar organization and bladder‐directed solute flow. RNA sequencing and cluster analysis revealed the gene expression profiles of the stalk cells. Among the stalk cell enriched genes, ion channels and carriers as well as sugar transporters were most pronounced. Based on their electrophysiological fingerprint and thermodynamic considerations, a model for stalk cell transcellular transport was derived.
Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder. Under salt stress, sodium (Na ), chloride (Cl ), potassium (K ) and various metabolites are shuttled from the leaf lamina to the bladders. Stalk cells operate as both a selectivity filter and a flux controller. In line with the nature of a transfer cell, advanced transmission electron tomography, electrophysiology, and fluorescent tracer flux studies revealed the stalk cell's polar organization and bladder-directed solute flow. RNA sequencing and cluster analysis revealed the gene expression profiles of the stalk cells. Among the stalk cell enriched genes, ion channels and carriers as well as sugar transporters were most pronounced. Based on their electrophysiological fingerprint and thermodynamic considerations, a model for stalk cell transcellular transport was derived.
Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder.Under salt stress, sodium (Na+), chloride (Cl−), potassium (K+) and various metabolites are shuttled from the leaf lamina to the bladders. Stalk cells operate as both a selectivity filter and a flux controller.In line with the nature of a transfer cell, advanced transmission electron tomography, electrophysiology, and fluorescent tracer flux studies revealed the stalk cell’s polar organization and bladder‐directed solute flow.RNA sequencing and cluster analysis revealed the gene expression profiles of the stalk cells. Among the stalk cell enriched genes, ion channels and carriers as well as sugar transporters were most pronounced. Based on their electrophysiological fingerprint and thermodynamic considerations, a model for stalk cell transcellular transport was derived.
Summary Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder. Under salt stress, sodium (Na+), chloride (Cl−), potassium (K+) and various metabolites are shuttled from the leaf lamina to the bladders. Stalk cells operate as both a selectivity filter and a flux controller. In line with the nature of a transfer cell, advanced transmission electron tomography, electrophysiology, and fluorescent tracer flux studies revealed the stalk cell’s polar organization and bladder‐directed solute flow. RNA sequencing and cluster analysis revealed the gene expression profiles of the stalk cells. Among the stalk cell enriched genes, ion channels and carriers as well as sugar transporters were most pronounced. Based on their electrophysiological fingerprint and thermodynamic considerations, a model for stalk cell transcellular transport was derived.
Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder. Under salt stress, sodium (Na+ ), chloride (Cl- ), potassium (K+ ) and various metabolites are shuttled from the leaf lamina to the bladders. Stalk cells operate as both a selectivity filter and a flux controller. In line with the nature of a transfer cell, advanced transmission electron tomography, electrophysiology, and fluorescent tracer flux studies revealed the stalk cell's polar organization and bladder-directed solute flow. RNA sequencing and cluster analysis revealed the gene expression profiles of the stalk cells. Among the stalk cell enriched genes, ion channels and carriers as well as sugar transporters were most pronounced. Based on their electrophysiological fingerprint and thermodynamic considerations, a model for stalk cell transcellular transport was derived.Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the bladder. Under salt stress, sodium (Na+ ), chloride (Cl- ), potassium (K+ ) and various metabolites are shuttled from the leaf lamina to the bladders. Stalk cells operate as both a selectivity filter and a flux controller. In line with the nature of a transfer cell, advanced transmission electron tomography, electrophysiology, and fluorescent tracer flux studies revealed the stalk cell's polar organization and bladder-directed solute flow. RNA sequencing and cluster analysis revealed the gene expression profiles of the stalk cells. Among the stalk cell enriched genes, ion channels and carriers as well as sugar transporters were most pronounced. Based on their electrophysiological fingerprint and thermodynamic considerations, a model for stalk cell transcellular transport was derived.
Author Maierhofer, Tobias
Bazihizina, Nadia
Breadmore, Michael
Scherzer, Sönke
Hedrich, Rainer
Alquraishi, Saleh
Mayer, Klaus F. X.
Huang, Shouguang
Müller, Heike M.
Zhu, Jian‐Kang
Messerer, Maxim
Cuin, Tracey Ann
Shabala, Sergey
Ache, Peter
Fella, Christian
Mancuso, Stefano
Böhm, Jennifer
Stigloher, Christian
Cabot, Joan
Al‐Rasheid, Khaled A. S.
Zhang, Heng
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Issue 5
Keywords salt tolerance
stalk cell
halophyte
polar ion transport
quinoa
Language English
License Attribution
2022 The Authors. New Phytologist © 2022 New Phytologist Foundation.
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Snippet Summary Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and...
Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the...
Chenopodium quinoa uses epidermal bladder cells (EBCs) to sequester excess salt. Each EBC complex consists of a leaf epidermal cell, a stalk cell, and the...
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SubjectTerms Bladder
Cells
Chenopodium quinoa
Cluster analysis
Electrophysiology
Fluorescence
Gene expression
Gene sequencing
halophyte
Ion channels
Ion transport
Leaves
Metabolites
polar ion transport
Potassium
Quinoa
RNA sequencing
Saccharides
Salinity tolerance
salt tolerance
Selectivity
Sodium
Solutes
stalk cell
Tomography
Tracers
Title Stalk cell polar ion transport provide for bladder‐based salinity tolerance in Chenopodium quinoa
URI https://onlinelibrary.wiley.com/doi/abs/10.1111%2Fnph.18205
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