Materials Science with Ion Beams [electronic resource] /
Bernas, Harry.editor.
This book introduces materials scientists and designers, physicists and chemists to the properties of materials that can be modified by ion irradiation or implantation. These techniques can help design new materials or to test modified properties; novel applications already show that ion-beam techniques are complementary to others, yielding previously unattainable properties. Also, ion-beam interactions modify materials at the nanoscale, avoiding the often detrimental results of lithographic or chemical techniques. Here, the effects are related to better-known quasi-equilibrium thermodynamics, and the consequences to materials are discussed with concepts that are familiar to materials science. Examples addressed concern semiconductor physics, crystal and nanocluster growth, optics, magnetism, and applications to geology and biology.
Description based upon print version of record.
Includes bibliographical references and index.
Fundamental Concepts of Ion-Beam Processing -- Precipitate and Microstructural Stability in Alloys Subjected to Sustained Irradiation -- Spontaneous Patterning of Surfaces by Low-Energy Ion Beams -- Ion-Beam-Induced Amorphization and Epitaxial Crystallization of Silicon -- Voids and Nanocavities in Silicon -- Damage Formation and Evolution in Ion-Implanted Crystalline Si -- Point Defect Kinetics and Extended-Defect Formation during Millisecond Processing of Ion-Implanted Silicon -- Magnetic Properties and Ion Beams: Why and How -- Structure and Properties of Nanoparticles Formed by Ion Implantation -- Metal Nanoclusters for Optical Properties -- Ion Beams in the Geological Sciences -- Ion-Beam Modification of Polymer Surfaces for Biological Applications.
This book introduces materials scientists and designers, physicists and chemists to the properties of materials that can be modified by ion irradiation or implantation. These techniques can help design new materials or to test modified properties; novel applications already show that ion-beam techniques are complementary to others, yielding previously unattainable properties. Also, ion-beam interactions modify materials at the nanoscale, avoiding the often detrimental results of lithographic or chemical techniques. Here, the effects are related to better-known quasi-equilibrium thermodynamics, and the consequences to materials are discussed with concepts that are familiar to materials science. Examples addressed concern semiconductor physics, crystal and nanocluster growth, optics, magnetism, and applications to geology and biology.
Mechanics.
Mechanics, Applied.
Optical materials.
Electronic materials.
Semiconductors.
Materials science.
Particle acceleration.
Condensed matter.
Theoretical and Applied Mechanics.
Optical and Electronic Materials.
Semiconductors.
Materials Science, general.
Particle Acceleration and Detection, Beam Physics.
Condensed Matter Physics.
Topics in applied physics