Details

Autor(en) / Beteiligte

• Cremer, Jay Theodore,

Titel

Neutron and x-ray optics

Ist Teil von

• Elsevier insights Neutron and x-ray optics

Auflage

1st ed

Ort / Verlag

London : Elsevier,

Erscheinungsjahr

2013

Link zum Volltext

• Elsevier Books AutoHoldings

Beschreibungen/Notizen

• Description based upon print version of record
• Includes bibliographical references.
• Front Cover; Neutron and X-ray Optics; Copyright page; Contents; 1 Introduction; 1.1 Refractive Index for Neutrons and X-rays; 1.2 CRLs-Thin-Lens Approximation: Focal Length, Ray Path Lengths, and Attenuation; 1.3 CRL Arrays; 1.3.1 One-to-One Imaging; 1.3.2 Magnified Imaging; 1.4 Integration on the Complex Plane-Cauchy-Riemann Theorem, Cauchy Integration, and Residues; 1.5 Derivation of the Complex Refractive Index of Material Medium (e.g., Lenses) Based on the Rayleigh Scatter of X-rays an...; 1.5.1 The Electromagnetic Wave Equation in a Vacuum or Dielectric Medium
• 1.5.2 Electromagnetic Field Produced by an Accelerated Charge1.5.3 Acceleration of a Bound Atomic Electron by an Imposed Electromagnetic Field; 1.5.4 Extraction of the Complex Refractive Index from the Electromagnetic Wave Equation; 1.5.5 Scatter, Absorption, Total Cross Section for Electromagnetic Waves (X-rays); 1.5.6 Derivation of the Optical Theorem; 1.5.7 Derivation of the Kramers-Kronig Relation and Calculation of the Refractive Decrement from the Measured Attenuation C...; 1.6 Refractive of Gammas via Rayleigh and Delbrück Scatter
• 1.7 Historical Introduction to Gamma Lenses-The Dirac Equation and the Delbrück Effect1.7.1 Refractive Index and Attenuation Cross Section for the Delbrück Refraction of Gammas; 1.7.2 Gamma Refractive Optics-Experimental Results; References; 2 Neutron Refractive Index in Materials and Fields; 2.1 Calculation of General Refractive Decrement for Material or Magnetic Media; 2.2 Comparison of the Electron, Neutron, X-ray, and Light Refractive Index; 2.3 Neutron Decrement for Composite Materials, and Neutron Refraction Due to Decrement Gradient
• 2.4 Neutron Decrement and Refractive Index in a Gravitational Field2.5 Neutron Spin and Magnetic Dipole Moment Vectors in Applied Magnetic Fields; 2.6 Potential Energy, Force, and Decrement for Neutrons in Applied Magnetic Fields; 2.7 The Bloch Equation and Neutron Precession in an Applied Magnetic Field; 2.8 Temperature Effect on Neutron Spin and Magnetic Dipole Moment Orientation in an Applied Magnetic Field; 2.9 The Bloch Equation and the Lorentz Force Equation; 2.10 Average Spin Polarization of a Neutron in an Applied Magnetic Field
• 2.11 Equation of Motion of the Expected Value of the Neutron Spin Vector in an Applied Magnetic Field2.12 Expected Values of Quantum Mechanical Quantities Follow Classical Trajectories; 2.13 Average Spin Polarization of a Beam of Neutrons in an Applied Magnetic Field; 2.14 Adiabatic and Nonadiabatic Polarization Rotation About Magnetic Field Lines That Change Direction; 2.15 Magnetic Resonance; 2.16 Ferromagnetic Materials-Domains, Magnetization, Permeability, Susceptibility; 2.17 Law of Refraction of Magnetic Field Lines
• 2.18 Ferromagnetic Materials with Applied Magnetic Fields and the Hysteresis Loop
• Covering a wide range of topics related to neutron and x-ray optics, this book explores the aspects of neutron and x-ray optics and their associated background and applications in a manner accessible to both lower-level students while retaining the detail necessary to advanced students and researchers. It is a self-contained book with detailed mathematical derivations, background, and physical concepts presented in a linear fashion. A wide variety of sources were consulted and condensed to provide detailed derivations and coverage of the topics of neutron and x-ray optics as well as the bac
• English