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Over the last thirty years, the study of liquids containing polymers, surfactants, or colloidal particles has developed from a loose assembly of facts into a coherent discipline with substantial predictive power. These liquids expand our conception of what condensed matter can do. Such structured-fluid phenomena dominate the physical environment within living cells. This book teaches how to think of these fluids from a unified point of view, showing the far-reaching effects of thermal fluctuations in producing forces and motions. Keeping mathematics to a minimum, the book seeks the simplest explanations that account for the distinctive scaling properties of these fluids. An example is the growth of viscosity of a polymer solution as the cube of the molecular weight of the constituent polymers. Another is the hydrodynamic radius of a colloidal aggregate, which remains comparable to its geometrical radius even though the density of particles in the aggregate becomes arbitrarily small. The book aims for a simplicity, unity and depth not found in previous treatments. The text is supplemented by numerous figures, tables and problems to aid the student.
This book investigates the fundamental physical principles governing structured fluids, such as polymers, colloids, and surfactants, to establish a unified theoretical framework. Thomas A. Witten, a physicist specializing in soft matter, synthesizes decades of research to explain how thermal fluctuations drive the unique behaviors of these complex liquids. The text prioritizes conceptual clarity and scaling properties over complex mathematical derivations to provide a comprehensive understanding of condensed matter systems.
What You Will Find
Scope Limits
Experts and students frequently identify this text as a foundational resource for understanding the physics of soft matter. Readers often note that the author's emphasis on conceptual simplicity makes complex phenomena accessible without sacrificing scientific rigor.
Page Count:
232
Publication Date:
2010-01-01
Publisher:
OUP Oxford
ISBN-10:
0191576921
ISBN-13:
9780191576928
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