Soft Matter Physics: An Introduction
Springer Science & Business Media, May 28, 2007 - Science - 637 pages
Introductions to solid state physics have, ever since the initial book by F. Seitz in 1940, concentrated on simple crystals, with few atoms per cell, bonded together by strong ionic, covalent, or metallic bonds. References to weaker bonds, such as van der Waals forces in rare gases, or to geometric or chemical disorder (e.g., alloys or glasses) have been limited. The physical understanding of this ?eld started well before Seitz’s book and led to a number of Nobel prizes after the last war. Applications cover classical metallurgy, el- tronics, geology and building materials, as well as electrical and ionic transport, chemical reactivity, ferroelectricity and magnetism. But in parallel with this general and well publicized trend, and sometimes earlier as far as physical concepts were concerned, an exploration and increasingly systematic study of softer matter has developed through the twentieth century. More often in the hands of physical chemists and crystallographers than those of pure physicists, the ?eld had for a long time a reputation of complexity. If progress in polymers was steady but slow, interest in liquid crystals had lain dormant for forty years, after a bright start lasting through 1925, to be revived in the late 1960s based on their possible use in imaging techniques. The optoelectronic properties of the ?eld in general are even more recent.
What people are saying - Write a review
We haven't found any reviews in the usual places.
Atomic and Molecular Arrangements
Amplitude and Phase
Elasticity of Mesomorphic Phases
Dynamics of Isotropic and Anisotropic Fluids
Fractals and Growth Phenomena
Other editions - View all
anchoring angle atoms axis boundary conditions bulk Burgers vector Chapter chiral cholesteric coefficients columnar phases configuration constant core curln deformation director disclination domains droplets elastic energy ellipse energy density entropy equation equilibrium example FCD-I FCDs ferromagnet field Figure fluctuations fluid forces fractal free energy density function Gaussian curvature geometry interactions interface isotropic Kleman lattice layers length Lett linear liquid crystal lyotropic macroscopic magnetic membrane molecular molecules nematic nematic phase normal order parameter orientation parallel particles perpendicular phase transition Phys physical planar plane plates point defects polar polymers potential Problem radius rotation scales screw dislocations shear singular smectic soft matter solid solution solvent space sphere stress structure surface symmetry temperature tensor term thermodynamic thermotropic topological topological charge torque twist uniaxial nematic velocity viscosity volume