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Plant Stress Tolerance

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Cover of 'Plant Stress Tolerance'

Table of Contents

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    Book Overview
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    Chapter 1 Epigenetics and RNA Processing: Connections to Drought, Salt, and ABA?
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    Chapter 2 The Fundamental Role of Reactive Oxygen Species in Plant Stress Response
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    Chapter 3 The Role of Long Noncoding RNAs in Plant Stress Tolerance
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    Chapter 4 Toward a Resilient, Functional Microbiome: Drought Tolerance-Alleviating Microbes for Sustainable Agriculture
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    Chapter 5 Mining and Quantifying In Vivo Molecular Interactions in Abiotic Stress Acclimation
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    Chapter 6 Generation of a Stress-Inducible Luminescent Arabidopsis and Its Use in Genetic Screening for Stress-Responsive Gene Deregulation Mutants
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    Chapter 7 Detection of Differential DNA Methylation Under Stress Conditions Using Bisulfite Sequence Analysis
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    Chapter 8 ChIP-Seq Analysis for Identifying Genome-Wide Histone Modifications Associated with Stress-Responsive Genes in Plants
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    Chapter 9 Isolation of Polysomal RNA for Analyzing Stress-Responsive Genes Regulated at the Translational Level in Plants
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    Chapter 10 Global Proteomic Profiling and Identification of Stress-Responsive Proteins Using Two-Dimensional Gel Electrophoresis
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    Chapter 11 Phosphoproteomics Analysis for Probing Plant Stress Tolerance
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    Chapter 12 Probing Posttranslational Redox Modifications
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    Chapter 13 Zymographic Method for Distinguishing Different Classes of Superoxide Dismutases in Plants
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    Chapter 14 Determination of Enzymes Associated with Sulfite Toxicity in Plants: Kinetic Assays for SO, APR, SiR, and In-Gel SiR Activity
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    Chapter 15 Determination of Total Sulfur, Sulfate, Sulfite, Thiosulfate, and Sulfolipids in Plants
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    Chapter 16 Determining Glutathione Levels in Plants
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    Chapter 17 Porous Graphitic Carbon Liquid Chromatography–Mass Spectrometry Analysis of Drought Stress-Responsive Raffinose Family Oligosaccharides in Plant Tissues
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    Chapter 18 Profiling Abscisic Acid-Induced Changes in Fatty Acid Composition in Mosses
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    Chapter 19 Detection of Free Polyamines in Plants Subjected to Abiotic Stresses by High-Performance Liquid Chromatography (HPLC)
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    Chapter 20 Determination of Polyamines by Dansylation, Benzoylation, and Capillary Electrophoresis
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    Chapter 21 Rapid Quantification of Abscisic Acid by GC-MS/MS for Studies of Abiotic Stress Response
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    Chapter 22 Silencing of Stress-Regulated miRNAs in Plants by Short Tandem Target Mimic (STTM) Approach
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    Chapter 23 Rhizosphere Sampling Protocols for Microbiome (16S/18S/ITS rRNA) Library Preparation and Enrichment for the Isolation of Drought Tolerance-Promoting Microbes
Attention for Chapter 15: Determination of Total Sulfur, Sulfate, Sulfite, Thiosulfate, and Sulfolipids in Plants
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Chapter title
Determination of Total Sulfur, Sulfate, Sulfite, Thiosulfate, and Sulfolipids in Plants
Chapter number 15
Book title
Plant Stress Tolerance
Published in
Methods in molecular biology, July 2017
DOI 10.1007/978-1-4939-7136-7_15
Pubmed ID
Book ISBNs
978-1-4939-7134-3, 978-1-4939-7136-7
Authors

Assylay Kurmanbayeva, Galina Brychkova, Aizat Bekturova, Inna Khozin, Dominic Standing, Dmitry Yarmolinsky, Moshe Sagi

Abstract

In response to oxidative stress the biosynthesis of the ROS scavenger, glutathione is induced. This requires the induction of the sulfate reduction pathway for an adequate supply of cysteine, the precursor for glutathione. Cysteine also acts as the sulfur donor for the sulfuration of the molybdenum cofactor, crucial for the last step of ABA biosynthesis. Sulfate and sulfite are, respectively, the precursor and intermediate for cysteine biosynthesis and there is evidence for stress-induced sulfate uptake and further downstream, enhanced sulfite generation by 5'-phosphosulfate (APS) reductase (APR, EC 1.8.99.2) activity. Sulfite reductase (SiR, E.C.1.8.7.1) protects the chloroplast against toxic levels of sulfite by reducing it to sulfide. In case of sulfite accumulation as a result of air pollution or stress-induced premature senescence, such as in extended darkness, sulfite can be oxidized to sulfate by sulfite oxidase. Additionally sulfite can be catalyzed to thiosulfate by sulfurtransferases or to UDP-sulfoquinovose by SQD1, being the first step toward sulfolipid biosynthesis.Determination of total sulfur in plants can be accomplished using many techniques such as ICP-AES, high-frequency induction furnace, high performance ion chromatography, sulfur combustion analysis, and colorimetric titration. Here we describe a total sulfur detection method in plants by elemental analyzer (EA). The used EA method is simple, sensitive, and accurate, and can be applied for the determination of total S content in plants.Sulfate anions in the soil are the main source of sulfur, required for normal growth and development, of plants. Plants take up sulfate ions from the soil, which are then reduced and incorporated into organic matter. Plant sulfate content can be determined by ion chromatography with carbonate eluents.Sulfite is an intermediate in the reductive assimilation of sulfate to the essential amino acids cysteine and methionine, and is cytotoxic above a certain threshold if not rapidly metabolized and can wreak havoc at the cellular and whole plant levels. Plant sulfite content affects carbon and nitrogen homeostasis Therefore, methods capable of determining sulfite levels in plants are of major importance. Here we present two robust laboratory protocols which can be used for sulfite detection in plants.Thiosulfate is an essential sulfur intermediate less toxic than sulfite which is accumulating in plants in response to sulfite accumulation. The complexity of thiosulfate detection is linked to its chemical properties. Here we present a rapid, sensitive, and accurate colorimetric method based on the enzymatic conversion of thiosulfate to thiocyanate.The plant sulfolipid sulfoquinovosyldiacylglycerol (SQDG) accounts for a large fraction of organic sulfur in the biosphere. Aside from sulfur amino acids, SQDG represents a considerable sink for sulfate in plants and is the only sulfur-containing anionic glycerolipid that is found in the photosynthetic membranes of plastids. We present the separation of sulfolipids from other fatty acids in two simple ways: by one- and two-dimensional thin-layer chromatography.

Mendeley readers

Mendeley readers

The data shown below were compiled from readership statistics for 17 Mendeley readers of this research output. Click here to see the associated Mendeley record.

Geographical breakdown

Country Count As %
Unknown 17 100%

Demographic breakdown

Readers by professional status Count As %
Researcher 3 18%
Student > Bachelor 2 12%
Professor > Associate Professor 2 12%
Professor 1 6%
Student > Master 1 6%
Other 1 6%
Unknown 7 41%
Readers by discipline Count As %
Biochemistry, Genetics and Molecular Biology 4 24%
Agricultural and Biological Sciences 3 18%
Chemistry 2 12%
Unknown 8 47%