Details

<div>Introduction.- Evolution of type III secretion systems.-&nbsp;Transcriptional and post-transcriptional regulatory mechanisms controlling type III secretion.-&nbsp;Assembly of type III secretion machines.-&nbsp;Structure of the type III secretion needle complex.-&nbsp;Structure and assembly of filamentous structures associated with type III secretion machines.-&nbsp;Structure and function of the type III secretion-associated sorting platform.-&nbsp;Molecular organization and assembly of the protein export apparatus.- Export mechanisms and energy transduction in type III secretion machines.-&nbsp;Needle length control and substrate switching in type III secretion machines.- The tip complex: sensing the host cell.-&nbsp;Chaperones and targeting mechanisms.&nbsp;</div>

<div><p><b>Samuel Wagner</b> is a Professor of Infection Biology and Head of the Section of Cellular and Molecular Microbiology at the Interfaculty Institute of Microbiology and Infection Medicine at the Eberhard Karls University Tübingen, Germany. He is also Principal Investigator of the excellence cluster ‘Controlling microbes to fight infections’ (CMFI) and of the German Center for Infection Research (DZIF) at the partner-site Tübingen.</p>

<p>His laboratory is mainly interested in the assembly, structure, and function of bacterial virulence-associated secretion systems, in particular of the type III secretion systems of&nbsp;<i>Salmonella</i>&nbsp;<i>typhimurium</i>&nbsp;and the type IV secretion system of&nbsp;<i>Legionella pneumophila</i>. His laboratory also develops novel anti-infective compounds targeting type III secretion systems.</p>

<p><b>Jorge E. Galán</b> is the Lucille P. Markey Professor of Microbial Pathogenesis, Professor of Cell Biology, and Chair of the Department of Microbial Pathogenesis at Yale University’s School of Medicine. His research interests include the study of host-pathogen interactions, particularly the bacterial pathogens&nbsp;<i>Salmonella</i>&nbsp;and&nbsp;<i>Campylobacter jejuni</i>. His research has contributed to our understanding of the structure and function of type III protein secretion machines, bacterial effectors proteins and bacterial toxins.</p></div>

<p>One of the most exciting developments in the field of bacterial pathogenesis in recent years is the discovery that many pathogens utilize complex nanomachines to deliver bacterially encoded effector proteins into eukaryotic and prokaryotic target cells to modulate a variety of cellular functions for the pathogen’s benefit. These protein-delivery machines include the type III secretion system (T3SS), which is widespread in nature and encoded not only by bacteria pathogenic to vertebrates or plants, but also by bacteria that are symbiotic to plants or insects. Because they are essential virulence factors for many important human pathogens, these systems are emerging as a prime target for the development of new-generation, anti-infective drugs.&nbsp;</p>

<p>This book reviews our current understanding of these intriguing injection machines as well as of the closely related T3SS that serves in flagella assembly.</p>

Individual chapters focus on regulation, assembly, structure, and function of the type III secretion machine and on the evolution of the secreted effector proteins. Given its scope, this book will appeal to a broad readership, including researchers and teachers in the fields of infectious diseases, host pathogen interactions, plant and animal pathogenesis, and symbiosis.<br>

Sheds new light on type III secretion systems, which have not been the subject of a dedicated book or series in the last 10 years Is of broad interest to researchers and teachers in the fields of infectious diseases, host pathogen interactions, plant and animal pathogenesis, and symbiosis Helps readers understand how pathogens utilize complex nanomachines to deliver bacterially encoded effector proteins into target eukaryotic cells