Membrane Nanodomains

John R. Silvius

ISBN 10: 1615046208 / ISBN 13: 9781615046201

Published by Biota Publishing, 2013

About this Item

nach der Bestellung gedruckt Neuware - Printed after ordering - Many membranes in eukaryotic cells are inhomogeneous structures in which various membrane components are nonrandomly distributed, forming diverse types of 'domains.' Some membrane domains have long been well known, because they are sufficiently large, long-lived, and morphologically well defined to be characterized using classical microscopic and biochemical approaches. However, new technologies have revealed the presence in membranes of smaller, often highly dynamic 'nanodomains' that also play key roles in membrane function. Our current understanding of the diversity, the properties, and the functions of nanodomains is still very limited and, in some cases, controversial. Nonetheless, it is clear that many important aspects of membrane biology arise from features of membrane organization that 'play out' on spatial and temporal scales that are only now becoming experimentally accessible in living systems. In this book, we will discuss properties and interactions of membrane molecules that lead to nanodomain formation, new and emerging technologies by which nanodomains can be studied, and experimental examples that illustrate both highlights and current limitations of our present knowledge of the properties of membrane nanodomains in various cell types.

Seller Inventory # 9781615046201

Bibliographic Details

• Title: Membrane Nanodomains
• Publisher: Biota Publishing
• Publication Date: 2013
• Language: English
• ISBN 10: 1615046208
• ISBN 13: 9781615046201
• Binding: Taschenbuch
• Condition: Neu
• Dimensions: 235W x 191H x 6D millimeters 235 millimeters width by 191 millimeters height by 6 millimeters depth
• Weight: 226 grams

About this title

Synopsis

Many membranes in eukaryotic cells are inhomogeneous structures in which various membrane components are nonrandomly distributed, forming diverse types of ‘domains.’ Some membrane domains have long been well known, because they are sufficiently large, long-lived, and morphologically well defined to be characterized using classical microscopic and biochemical approaches. However, new technologies have revealed the presence in membranes of smaller, often highly dynamic ‘nanodomains’ that also play key roles in membrane function. Our current understanding of the diversity, the properties, and the functions of nanodomains is still very limited and, in some cases, controversial. Nonetheless, it is clear that many important aspects of membrane biology arise from features of membrane organization that ‘play out’ on spatial and temporal scales that are only now becoming experimentally accessible in living systems. In this book, we will discuss properties and interactions of membrane molecules that lead to nanodomain formation, new and emerging technologies by which nanodomains can be studied, and experimental examples that illustrate both highlights and current limitations of our present knowledge of the properties of membrane nanodomains in various cell types. Table of Contents: Introduction / Thermodynamic Bases for Formation of Membrane Domains / Kinetic Bases for Formation of Membrane Domains / Historical Development of the Concept of Membrane Nanodomains / Experimental Tools to Study Nanodomain Formation in Cells / Experimental Studies of Nanodomains in Cellular Systems / Looking Forward / References