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The biochemistry of inorganic polyphosphates

TLDR
The Chemical Structures and Properties of Condensed Inorganic Polyphosphates, and Methods of Extraction from Biological Materials, are presented.
Abstract
Foreword to the First Edition.Preface.Acknowledgements.Introduction.1 The Chemical Structures and Properties of Condensed Inorganic Phosphates.1.1 The Structures of Condensed Phosphates.1.1.1 Cyclophosphates.1.1.2 Polyphosphates.1.1.3 Branched Inorganic Phosphates, or 'Ultraphosphates'.1.2 Some Chemical Properties of Condensed Inorganic Polyphosphates.1.3 Physico-Chemical Properties of Condensed Inorganic Polyphosphates.2 Methods of Polyphosphate Assay in Biological Materials.2.1 Methods of Extraction from Biological Materials.2.2 Chromatographic Methods.2.3 Colorimetric and Fluorimetric Methods.2.4 Cytochemical Methods.2.5 X-Ray Energy Dispersive Analysis.2.6 31P Nuclear Magnetic Resonance Spectroscopy.2.7 Other Physical Methods.2.8 Gel Electrophoresis.2.9 Enzymatic Methods.3 The Occurrence of Polyphosphates in Living Organisms.4 The Forms in which Polyphosphates are Present in Cells.4.1 Polyphosphate-Cation Complexes.4.2 Polyphosphate-Ca2+-Polyhydroxybutyrate Complexes.4.3 Complexes of Polyphosphates with Nucleic Acids.4.4 Binding of Polyphosphates with Proteins.5 Localization of Polyphosphates in Cells of Prokaryotes and Eukaryotes.5.1 Prokaryotes.5.2 Eukaryotes.6 Enzymes of Polyphosphate Biosynthesis and Degradation.6.1 Enzymes of Polyphosphate Biosynthesis.6.1.1 Polyphosphate Kinase (Polyphosphate:ADP Phosphotransferase, EC 2.7.4.1).6.1.2 3-Phospho-D-Glyceroyl-Phosphate:Polyphosphate Phosphotransferase (EC 2.7.4.17).6.1.3 Dolichyl-Diphosphate:Polyphosphate Phosphotransferase (EC 2.7.4.20).6.2 Enzymes of Polyphosphate Degradation.6.2.1 Polyphosphate-Glucose Phosphotransferase (EC 2.7.1.63).6.2.2 NAD Kinase (ATP:NAD 2--Phosphotransferase, EC 2.7.1.23).6.2.3 Exopolyphosphatase (Polyphosphate Phosphohydrolase, EC 3.6.1.11).6.2.4 Adenosine-Tetraphosphate Phosphohydrolase (EC 3.6.1.14).6.2.5 Triphosphatase (Tripolyphosphatase, EC 3.6.1.25).6.2.6 Endopolyphosphatase (Polyphosphate Depolymerase, EC 3.6.1.10).6.2.7 PolyP:AMP Phosphotransferase.7 The Functions of Polyphosphates and Polyphosphate-Dependent Enzymes.7.1 Phosphate Reserve.7.1.1 In Prokaryotes.7.1.2 In Eukaryotes.7.2 Energy Source.7.2.1 Polyphosphates in Bioenergetics of Prokaryotes.7.2.2 Polyphosphate in Bioenergetics of Eukaryotes.7.3 Cations Sequestration and Storage.7.3.1 In Prokaryotes.7.3.2 In Eukaryotes.7.4 Participation in Membrane Transport.7.5 Cell Envelope Formation and Function.7.5.1 Polyphosphates in the Cell Envelopes of Prokaryotes.7.5.2 Polyphosphates in the Cell Envelopes of Eukaryotes.7.6 Regulation of Enzyme Activities.7.7 Gene Activity Control, Development and Stress Response.7.7.1 In Prokaryotes.7.7.2 In Lower Eukaryotes.7.8 The Functions of Polyphosphates in Higher Eukaryotes.8 The Peculiarities of Polyphosphate Metabolism in Different Organisms.8.1 Escherichia coli.8.1.1 The Dynamics of Polyphosphates under Culture Growth.8.1.2 The Effects of Pi Limitation and Excess.8.1.3 The Effects of Mutations on Polyphosphate Levels and Polyphosphate-Metabolizing Enzyme Activities.8.1.4 The Effects of Nutrition Deficiency and Environmental Stress.8.2 Pseudomonas aeruginosa.8.3 Acinetobacter.8.4 Aerobacter aerogenes (Klebsiella aerogenes).8.5 Azotobacter.8.6 Cyanobacteria (Blue-Green Algae) and other Photosynthetic Bacteria.8.7 Mycobacteria and Corynebacteria.8.8 Propionibacteria.8.9 Archae.8.10 Yeast.8.10.1 Yeast Cells Possess Different Polyphosphate Fractions.8.10.2 The Dynamics of PolyP Fractions during the Cell Cycle.8.10.3 The Relationship between the Metabolism of Polyphosphates and other Compounds.8.10.4 Polyphosphate Fractions at Growth on a Pi-Sufficient Medium with Glucose.8.10.5 The Effects of Pi Limitation and Excess.8.10.6 The Effects of other Conditions on the Polyphosphate Content in Yeast Cells.8.10.7 The Effects of Inhibitors on the Polyphosphate Content in Yeast Cells.8.10.8 The Effects of Mutations on the Content and Chain Lengths of Polyphosphate in Yeast.8.11 Other Fungi (Mould and Mushrooms).8.12 Algae.8.12.1 Localization and Forms in Cells.8.12.2 The Dynamics of Polyphosphates in the Course of Growth.8.12.3 The Influence of Light and Darkness.8.12.4 The Effects of Pi Limitation and Excess.8.12.5 Changes in Polyphosphate Content under Stress Conditions.8.13 Protozoa.8.14 Higher Plants.8.15 Animals.9 Applied Aspects of Polyphosphate Biochemistry.9.1 Bioremediation of the Environment.9.1.1 Enhanced Biological Phosphate Removal.9.1.2 Removal of Heavy Metals from Waste.9.2 Polyphosphates and Polyphosphate-Metabolizing Enzymes in Assay and Synthesis.9.3 Polyphosphates in Medicine.9.3.1 Antiseptic and Antiviral Agents.9.3.2 Polyphosphate Kinase as a Promising Antimicrobial Target.9.3.3 Polyphosphates as New Biomaterials.9.3.4 Polyphosphates in Bone Therapy and Stomathology.9.4 Polyphosphates in Agriculture.9.5 Polyphosphates in the Food Industry.10 Inorganic Polyphosphates in Chemical and Biological Evolution.10.1 Abiogenic Synthesis of Polyphosphates and Pyrophosphate.10.2 Phosphorus Compounds in Chemical Evolution.10.3 Polyphosphates and Pyrophosphates: Fossil Biochemical Reactions and the Course of Bioenergetic Evolution.10.4 Changes in the Role of Polyphosphates in Organisms at Different Evolutionary Stages.References.Index of Generic Names.Subject Index.

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Journal ArticleDOI

Inorganic polyphosphate is needed for swimming, swarming, and twitching motilities of Pseudomonas aeruginosa

TL;DR: A knockout mutant in the ppk gene of Pseudomonas aeruginosa PAO1 is impaired in flagellar swimming motility on semisolid agar plates, revealing important roles for poly P in diverse processes such as biofilm formation, symbiosis, and virulence.
Book ChapterDOI

Inorganic Polyphosphate: A Molecule of Many Functions

TL;DR: In this article, the authors focus on recent advances made possible by the introduction of novel, enzymatically based assays, such as Escherichia coli polyphosphate kinase (PPK) that can convert poly P and ADP to ATP and yeast exopolyphosphatase that can hydrolyze poly P to Pi.
Journal ArticleDOI

The utilization of inorganic and organic phosphorous compounds as nutrients by eukaryotic microalgae: a multidisciplinary perspective: part 1

TL;DR: This comprehensive literature review of the phosphorus nutrition and metabolism of eukaryotic microalgae deals sequentially with extracellular P-compounds available for algal utilization and growth and includes specific macroalgae in considering certain subtopics where such algae were better investigated and provided a good basis for comparison.
Journal ArticleDOI

Inorganic Polyphosphate: Toward Making a Forgotten Polymer Unforgettable

TL;DR: It would be surprising if some of the variety of poly P functions observed in microorganisms did not apply to aspects of human growth and development, such as aging and the aberrations of disease.
Journal ArticleDOI

Biochemical model for enhanced biological phosphorus removal

TL;DR: A biochemical model that explains bio-P removal mechanisms occurring under anaerobic, aerobic and anoxic conditions of the process is presented and polyphosphate is suggested to be as a source of energy both for the reestablishment of the proton motive force and for substrate storage.
References
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Book ChapterDOI

The Role and Regulation of Energy Reserve Polymers in Micro-organisms

TL;DR: The chapter considers the evidence for the energy-storage roles of glycogen, polyphosphates and poly-p-hydroxybutyrate, and the current state of knowledge concerning the regulation of their biosynthesis and degradation in the microbial cell.
Journal ArticleDOI

Evidence for the common identity of glucose 6-phosphatase, inorganic pyrophosphatase, and pyrophosphate-glucose phosphotransferase.

TL;DR: Investigations reported in this paper indicate that inorganic pyrophosphatase, pyroph phosphate-glucose phosphotransferase, and glucose 6-phosphate activities may be due to one, common enzyme.
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