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The Biology of Subcellular Nitric Oxide [electronic resource] / by Tamás Rőszer.

By: Rőszer, Tamás [author.].
Contributor(s): SpringerLink (Online service).
Material type: materialTypeLabelBookPublisher: Dordrecht : Springer Netherlands : Imprint: Springer, 2012Description: XVII, 209p. 64 illus., 14 illus. in color. online resource.Content type: text Media type: computer Carrier type: online resourceISBN: 9789400728196.Subject(s): Medicine | Biochemistry | Cytology | Zoology | Biomedicine | Biomedicine general | Molecular Medicine | Cell Biology | Animal Biochemistry | Plant Biochemistry | ZoologyDDC classification: 610 Online resources: Click here to access online
Contents:
Foreword -- Preface -- Part I  General Concepts -- Introduction Part II  Nitric Oxide Synthesis in Prokaryote Cells -- 2 Nitric Oxide is a Bioproduct In Prokaryotes --  Part III Nitric Oxide Synthesis in Plant Organelles -- 3 Nitric Oxide Synthesis in the Chloroplast -- 4 NO Synthesis in Leaf Peroxisomes And Plant-Type Mitochondria -- Part IV At the Edge of the Plant and Animal Kingdom -- 5 NO Synthesis iIn Subcellular Compartments of Fungi -- Part V Nitric Oxide Synthesis in Animal Cells -- 6 Harboring of NOS to the Cell Membrane -- 7 The Golgi System Contributes to NO Homeostasis -- 8 Phagosomal And Lysosomal NO Synthesis -- 9 NO Synthesis and Cell Locomotion -- 10 Nitric Oxide Synthesis in the Mitochondria of Animal Cells -- 11 Peroxisomes: Where NOS Rests In Peace? -- 12 Subcellular Redistribution of NOS -- Appendix -- Abbreviations -- Glossary -- Image Information -- Subject Index.
In: Springer eBooksSummary: This book fills in a gap in the NO literature. Recent progress in the field of NO-biology shows that NO is generated within distinct cell compartments, including specific plasma membrane regions, mitochondria, chloroplasts, peroxisomes, the Golgi-complex and intracellular membrane systems. NO synthesis plays specific roles in these compartments and, in turn, cell organelles also control intracellular NO levels. This monograph focuses on the roles played by the subcellular NO-signaling microdomains in the prokaryote-, fungus-, plant- and animal cells and shows how NO behaves as an intracellular signal in distinct cellular environments. This monograph also provides a summary of our knowledge on how NO synthesis came through evolution to be associated with organelles and subcellular compartments. Promotes the novel ideas that some functions of NO and its associations with subcellular units have been conserved during the evolution of the cell. A special chapter is dedicated to the biomedical relevance of subcellular NO synthesis, and this chapter also discusses the evidence that altered compartmentalization of NO-producing enzymes causes disease.
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Foreword -- Preface -- Part I  General Concepts -- Introduction Part II  Nitric Oxide Synthesis in Prokaryote Cells -- 2 Nitric Oxide is a Bioproduct In Prokaryotes --  Part III Nitric Oxide Synthesis in Plant Organelles -- 3 Nitric Oxide Synthesis in the Chloroplast -- 4 NO Synthesis in Leaf Peroxisomes And Plant-Type Mitochondria -- Part IV At the Edge of the Plant and Animal Kingdom -- 5 NO Synthesis iIn Subcellular Compartments of Fungi -- Part V Nitric Oxide Synthesis in Animal Cells -- 6 Harboring of NOS to the Cell Membrane -- 7 The Golgi System Contributes to NO Homeostasis -- 8 Phagosomal And Lysosomal NO Synthesis -- 9 NO Synthesis and Cell Locomotion -- 10 Nitric Oxide Synthesis in the Mitochondria of Animal Cells -- 11 Peroxisomes: Where NOS Rests In Peace? -- 12 Subcellular Redistribution of NOS -- Appendix -- Abbreviations -- Glossary -- Image Information -- Subject Index.

This book fills in a gap in the NO literature. Recent progress in the field of NO-biology shows that NO is generated within distinct cell compartments, including specific plasma membrane regions, mitochondria, chloroplasts, peroxisomes, the Golgi-complex and intracellular membrane systems. NO synthesis plays specific roles in these compartments and, in turn, cell organelles also control intracellular NO levels. This monograph focuses on the roles played by the subcellular NO-signaling microdomains in the prokaryote-, fungus-, plant- and animal cells and shows how NO behaves as an intracellular signal in distinct cellular environments. This monograph also provides a summary of our knowledge on how NO synthesis came through evolution to be associated with organelles and subcellular compartments. Promotes the novel ideas that some functions of NO and its associations with subcellular units have been conserved during the evolution of the cell. A special chapter is dedicated to the biomedical relevance of subcellular NO synthesis, and this chapter also discusses the evidence that altered compartmentalization of NO-producing enzymes causes disease.

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