Pages without language links

Jump to navigation Jump to search

The following pages do not link to other language versions.

Showing below up to 126 results in range #51 to #176.

View ( | next 500) (20 | 50 | 100 | 250 | 500)

  1. Magnetism in materials
  2. Main Page
  3. McStas simulation projects
  4. Moderators
  5. Monte Carlo ray-tracing packages for neutrons
  6. Monte Carlo simulation of neutron instrumentation
  7. Neutron cross section from ferromagnetic spin waves
  8. Neutron cross section of antiferromagnetic spin waves
  9. Neutron detectors
  10. Neutron guide systems
  11. Neutron reflectivity
  12. Neutron scattering facilities
  13. Neutron sources
  14. Neutron sources and moderators
  15. On these notes
  16. Page of all exercises
  17. Particle-wave duality
  18. Phonons, quantum mechanical treatment
  19. Powder scattering instruments
  20. Problem:A classical antiferromagnet in two dimensions
  21. Problem:Attenuation of the neutron beam
  22. Problem:Bragg scattering from non-Bravais lattices
  23. Problem:Classical lattice vibrations in one dimension
  24. Problem:Classical vibrations with a two-atom unit cell
  25. Problem:Derivation of the cartesian formulation of the perpendicular spin component
  26. Problem:Fourier transform
  27. Problem:Hydrogen as a moderator
  28. Problem:Neutron velocity selector
  29. Problem:Pinhole collimation
  30. Problem:Polydisperse spheres
  31. Problem:SANS q-range and resolution
  32. Problem:Scattering form factor for spheres
  33. Problem:Scattering from an antiferromagnet
  34. Problem:Selection of materials for neutron scattering experiments
  35. Problem:Simple Bragg scattering, the monochromator
  36. Problem:The Be filter
  37. Problem:The beam port
  38. Problem:The collimator
  39. Problem:The moderator temperature
  40. Problem:The neutron guide system
  41. Problem: A neutron guide system
  42. Problem: Attenuation of the neutron beam
  43. Problem: Bragg scattering from Bravais lattices
  44. Problem: Critical edge
  45. Problem: Estimating the circle area
  46. Problem: Magnetic reflectivity
  47. Problem: Phospholipid bilayer liposomes
  48. Problem: Reflectivity coefficient
  49. Problem: Reflectivity in magnetic materials
  50. Problem: Refractive index for "light" and "heavy" water
  51. Problem: SANS and SAXS from spherical surfactant micelles
  52. Problem: Scattering length density for "light" and "heavy" water
  53. Problem: Simulation of SANS scattering
  54. Problem: Simulation of incoherent scattering
  55. Problem: Snell's Law
  56. Problem: The cross section
  57. Problem: The structure factor for dilute systems
  58. Problem: Use of International Tables for Crystallography
  59. Problem: Validity of the semiclassical approximation
  60. Quantum mechanical derivation of neutron-phonon scattering
  61. Quantum mechanics of magnetic diffraction
  62. Quantum mechanics of nuclear diffraction
  63. Quantum mechanics of scattering
  64. Quantum treatment of elastic neutron scattering
  65. Quantum treatment of inelastic neutron scattering
  66. Radiography
  67. Reflection from a smooth, flat interface
  68. Reflectivity of periodically stratified media
  69. Reflectivity of stratified media
  70. Rough and diffuse interfaces
  71. Scattering from lattice vibrations
  72. Scattering from magnetic dynamics
  73. Scattering from nuclear dynamics
  74. Scattering of neutrons from magnetic ions
  75. Scattering theory for magnetic dynamics
  76. Scattering theory for nuclear dynamics
  77. Simple simulation problems
  78. Simulation Project SANS-2: A full virtual experiment - Liposome sample
  79. Simulation Project SANS-2: A full virtual experiment - spheres sample
  80. Simulation Project SANS-2: Data analysis
  81. Simulation Project SANS-2: Detector
  82. Simulation Project SANS-2: Normalizing data
  83. Simulation Project SANS-2: Pinhole collimation
  84. Simulation Project SANS-2: Resolution of the SANS instrument
  85. Simulation Project SANS-2: The effect of gravity
  86. Simulation Project SANS-2: The source-guide system
  87. Simulation Project SANS-2: Velocity selector
  88. Simulation Project powder: A full virtual experiment
  89. Simulation Project powder: Collimator
  90. Simulation Project powder: DMC multi-detector
  91. Simulation Project powder: Determine the crystal structure of the sample
  92. Simulation Project powder: Emulating real experimental data
  93. Simulation Project powder: Improve your instrument
  94. Simulation Project powder: Monochromator
  95. Simulation Project powder: Sample
  96. Simulation Project powder: The guide system
  97. Simulation Project tripleaxis: A focusing monochromator
  98. Simulation Project tripleaxis: A full virtual experiment
  99. Simulation Project tripleaxis: Analyzer and detector
  100. Simulation Project tripleaxis: Collimator
  101. Simulation Project tripleaxis: Determine the full phonon dispersion of the sample
  102. Simulation Project tripleaxis: Energy resolution
  103. Simulation Project tripleaxis: Filter
  104. Simulation Project tripleaxis: Phonon sample
  105. Simulation Project tripleaxis: The resolution function
  106. Simulation Project tripleaxis: The source-guide system
  107. Simulation Project tripleaxis: Tuning the RITA-2 monochromator
  108. Simulation project SANS-2: A small angle neutron scattering instrument
  109. Simulation project powder: A powder diffractometer
  110. Simulation project reflectometer: A neutron reflectometer
  111. Simulation project tripleaxis: A triple-axis spectrometer
  112. Small-angle scattering instruments
  113. Small angle neutron scattering, SANS
  114. Spectrometers: Instruments for inelastic neutron scattering
  115. TOC limit/styles.css
  116. Techniques for neutron ray-tracing
  117. Test page
  118. The magnetic scattering length
  119. The neutron cross sections
  120. The neutron scattering cross section from nano-sized particles
  121. The refractive index
  122. The scattering cross section for phonons
  123. The total cross section for a system of particles
  124. Thin films and interfaces
  125. Useful model-free approximations in SANS
  126. Wave description of nuclear scattering

View ( | next 500) (20 | 50 | 100 | 250 | 500)