Atomic Collisions in Solids: Volume 1 [Paperback]

Stopping Power of Fast Channeled Protons in the Impact Parameter Treatment of Atomic Collisions.- The Z1 Oscillations in Electronic Stopping.- Z13-Dependent Stopping Power and Range Contributions.- Depth Distribution of Damage Due to Ionization.- Investigation on Electronic Stopping Power in Alkali Halides by Means of Color Center Profiles.- Velocity Dependence of the Stopping Power of Channeled Iodine Ions.- Charge State Dependence of Stopping Power for Oxygen Ions Channeled in Silver.- Transmission Energy Loss of Protons Channeled in Thin Silicon Single Crystals at Medium Energy.- A New Method to Determine the Energy Loss of Heavy Ions in Solids.- Threshold Energy for Atomic Displacement in Radiation Damage.- Directional Dependence of the Displacement Energy Threshold for a FCC Metal.- Energy Dissipation by Random Collisions in Compound Target Materials.- On the Application of Boltzmann Transport Equations to Ion Bombardment of Solids.- Indication for an Ionization Damage Process in Light Ion Irradiation Damage in Silicon.- Recoil Implantation of 18O from SiO2 by Heavy Projectiles.- Effects of Lattice Defects on Dechanneling and on Channeled-Particle Distribution.- Computer Simulation of Atomic Collisions in Solids.- The Effect of Straggling in Electronic Stopping on Range Distributions.- Computer Simulation of the Multiple Scattering of High Energy Heavy Ions in Thin Films.- Numerical Simulation of Range and Backscattering for keV Protons Incident on Random Targets.- Computer Studies of Replacement Sequences in Solids Associated with Atomic Displacement Cascades.- Radiation Damage in Transition Metal Hexahalo Complexes: The Application of Atomic Collision Dynamics in Hot Atom Chemistry.- Monte Carlo Simulation of Backscattering Phenomena.- Ion Screening in Solids.- Surf-Riding Electron States: Polarization Charge Density Effects Associated with Heavy Ion Motion in Solids.- Electron Spin Polarization at Ferromagnetic Single Crystalline Nickel Surfaces Determined tls‡