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RECORD NUMBER: 328 OF 1241

OLS Field Name OLS Field Data
Main Title Complex Intracellular Structures in Prokaryotes [electronic resource] /
Type EBOOK
Author Shively, Jessup M.
Publisher Springer Berlin Heidelberg : Imprint: Springer,
Year Published 2006
Call Number QR1-502
ISBN 9783540325260
Subjects Life sciences. ; Biochemistry. ; Microbiology. ; Bacteriology.
Internet Access
Description Access URL
http://dx.doi.org/10.1007/11497158
Collation VIII, 379 p. 85 illus., 23 in color. Also available online. online resource.
Notes
Due to license restrictions, this resource is available to EPA employees and authorized contractors only
Contents Notes
Complex Intracellular Structures in Prokaryotes -- Prokaryote Complex Intracellular Structures: Descriptions and Discoveries -- Proteasomes and Other Nanocompartmentalized Proteases of Archaea -- Assembly and Disassembly of Phycobilisomes -- Chlorosomes: Antenna Organelles in Photosynthetic Green Bacteria -- Gas Vesicles of Archaea and Bacteria -- Carboxysomes and Carboxysome-like Inclusions -- Magnetosomes in Magnetotactic Bacteria -- Structure, Function and Formation of Bacterial Intracytoplasmic Membranes -- Membrane-bounded Nucleoids and Pirellulosomes of Planctomycetes -- Anammoxosomes of Anaerobic Ammonium-oxidizing Planctomycetes -- The Enigmatic Cytoarchitecture of Epulopiscium spp. -- Additional Complex Intracellular Structures -- Cytoskeletal Elements in Prokaryotes -- Cryo-electron Tomography Reveals the Architecture of a Bacterial Cytoskeleton -- Organization and Assembly of the Mycoplasma pneumoniae Attachment Organelle -- The Junctional Pore Complex: Molecular Motor of Microbial Motility -- Type III Secretion Systems: Bacterial Injection Devices for Microbe-Host Interactions -- Gas Vesicles in Actinomycetes: Not Simply a Case of Flotation in Water-Logged Soil -- Bacterial Endosymbionts in Prokaryotes. Categorizing organisms as either prokaryotes or eukaryotes was ?rst int- duced in 1937 and proposed again in 1957 (Beck 2000); however, it was some years later, prompted to a certain degree by a publication by Stanier and van Niel(1962),beforetheconceptbecamemorewidelyaccepted. Atthisearlystage inthelate1950s,ourcompleteunderstandingoftheultrastructureofbothcell types,but especially prokaryotes,was still initsinfancy and awaited the more common and extensive use of electron microscopy as well as a multitude of other techniques and instrumentation. Prokaryotes were generally viewed as primitive simple cells with littleintracellular structure. The existence of some storagebodies had been demonstrated (see Vol. 1 of this series), but littleelse was known about the internal organization (?rst chapter, this volume). The absence ofmitochondriaorchloroplastsappeared certain, but thestateofthe nucleic acid within the prokaryotic cell and the presence/absence of mitosis were still somewhat controversial subjects. That our concept of a prokaryote has undergone a remarkable transformation during the last 50 years should becomereadilyapparent asoneproceedsthroughthechaptersinthisvolume. Furthermore, the reader should come to realize that the rigidclassi?cation of anorganism aseither aprokaryoteoreukaryoteisnot always soclear-cut. We are quite sure that the next 50 years will provide a clearer understanding of the complex intracellular structures presently known as well as bring to light surprising new ones. Aswegatheredinformationontheintracellularstructuresfoundinase- ingly endless variety of prokaryotes it became obvious to us that the c- ponents were so numerous that it would be impossible to include topics for all of them in one "reasonably sized" volume of Microbiology Monographs. Afterconsideringdifferentalternatives,wedecidedtoplacethosecomponents with primarily a metabolic storage/reserve function in Vol.