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  1. Five reasons for using neutrons‏‎ (22:14, 18 February 2020)
  2. Neutron scattering facilities‏‎ (22:14, 18 February 2020)
  3. On these notes‏‎ (22:14, 18 February 2020)
  4. Introduction to neutron scattering‏‎ (22:14, 18 February 2020)
  5. Basic properties of the neutron‏‎ (22:14, 18 February 2020)
  6. Another test‏‎ (22:15, 18 February 2020)
  7. Beam attenuation due to scattering and absorption‏‎ (22:15, 18 February 2020)
  8. Beam optical components‏‎ (22:15, 18 February 2020)
  9. Coherent and incoherent scattering‏‎ (22:15, 18 February 2020)
  10. Computed tomography‏‎ (22:15, 18 February 2020)
  11. Correlation between nuclear and magnetic scattering‏‎ (22:15, 18 February 2020)
  12. Data analysis in neutron scattering‏‎ (22:15, 18 February 2020)
  13. Data analysis packages‏‎ (22:15, 18 February 2020)
  14. Applications of neutron imaging‏‎ (22:15, 18 February 2020)
  15. Determining the incoming neutron wavelength‏‎ (22:15, 18 February 2020)
  16. Basic crystallography‏‎ (22:15, 18 February 2020)
  17. Diffraction from a powder‏‎ (22:15, 18 February 2020)
  18. Basic statistical tools‏‎ (22:15, 18 February 2020)
  19. Diffraction from crystalline materials‏‎ (22:15, 18 February 2020)
  20. Basics of neutron scattering‏‎ (22:15, 18 February 2020)
  21. Diffraction from nano-sized systems‏‎ (22:15, 18 February 2020)
  22. Exercises in Scattering from phonons‏‎ (22:15, 18 February 2020)
  23. Diffraction from single crystals with monochromatic radiation‏‎ (22:15, 18 February 2020)
  24. Exercises in Small angle neutron scattering‏‎ (22:15, 18 February 2020)
  25. Elastic magnetic scattering‏‎ (22:15, 18 February 2020)
  26. Imaging‏‎ (22:15, 18 February 2020)
  27. Exercises in Basics of neutron scattering‏‎ (22:15, 18 February 2020)
  28. Inelastic magnetic neutron scattering‏‎ (22:15, 18 February 2020)
  29. Exercises in Diffraction from crystals‏‎ (22:15, 18 February 2020)
  30. Inelastic magnetic scattering‏‎ (22:15, 18 February 2020)
  31. Exercises in Elastic magnetic scattering‏‎ (22:15, 18 February 2020)
  32. Inelastic nuclear neutron scattering‏‎ (22:15, 18 February 2020)
  33. Exercises in Instrumentation‏‎ (22:15, 18 February 2020)
  34. Instrument example: The two axis diffractometer‏‎ (22:15, 18 February 2020)
  35. Exercises in Magnetic neutron scattering‏‎ (22:15, 18 February 2020)
  36. Exercises in Monte Carlo simulations‏‎ (22:15, 18 February 2020)
  37. Exercises in Neutron sources and moderators‏‎ (22:15, 18 February 2020)
  38. Diffraction from crystals‏‎ (22:15, 18 February 2020)
  39. Exercises in Reflection and Refraction‏‎ (22:15, 18 February 2020)
  40. Instruments for inelastic neutron scattering‏‎ (22:15, 18 February 2020)
  41. Introduction to imaging‏‎ (22:15, 18 February 2020)
  42. Introduction to the Monte Carlo technique‏‎ (22:15, 18 February 2020)
  43. Lattice vibrations, classical treatment‏‎ (22:15, 18 February 2020)
  44. Laue diffraction‏‎ (22:15, 18 February 2020)
  45. Magnetic diffraction‏‎ (22:15, 18 February 2020)
  46. Magnetic excitations‏‎ (22:15, 18 February 2020)
  47. Magnetic ions‏‎ (22:15, 18 February 2020)
  48. Instrumentation‏‎ (22:15, 18 February 2020)
  49. Magnetic neutron scattering‏‎ (22:15, 18 February 2020)
  50. Instrumentation for investigation of magnetic diffraction‏‎ (22:15, 18 February 2020)
  51. Magnetism in materials‏‎ (22:15, 18 February 2020)
  52. Instrumentation for investigation of magnetic excitation‏‎ (22:15, 18 February 2020)
  53. McStas simulation projects‏‎ (22:15, 18 February 2020)
  54. Phonons, quantum mechanical treatment‏‎ (22:15, 18 February 2020)
  55. Monte Carlo ray-tracing packages for neutrons‏‎ (22:15, 18 February 2020)
  56. Monte Carlo simulation of neutron instrumentation‏‎ (22:15, 18 February 2020)
  57. Neutron cross section from ferromagnetic spin waves‏‎ (22:15, 18 February 2020)
  58. Neutron cross section of antiferromagnetic spin waves‏‎ (22:15, 18 February 2020)
  59. Neutron detectors‏‎ (22:15, 18 February 2020)
  60. Neutron guide systems‏‎ (22:15, 18 February 2020)
  61. Neutron reflectivity‏‎ (22:15, 18 February 2020)
  62. Neutron sources and moderators‏‎ (22:15, 18 February 2020)
  63. Page of all exercises‏‎ (22:15, 18 February 2020)
  64. Problem: Critical edge‏‎ (22:15, 18 February 2020)
  65. Powder scattering instruments‏‎ (22:15, 18 February 2020)
  66. Problem: Estimating the circle area‏‎ (22:15, 18 February 2020)
  67. Problem:Attenuation of the neutron beam‏‎ (22:15, 18 February 2020)
  68. Problem: A neutron guide system‏‎ (22:15, 18 February 2020)
  69. Problem: Magnetic reflectivity‏‎ (22:15, 18 February 2020)
  70. Problem: Attenuation of the neutron beam‏‎ (22:15, 18 February 2020)
  71. Problem: Bragg scattering from Bravais lattices‏‎ (22:15, 18 February 2020)
  72. Problem: Phospholipid bilayer liposomes‏‎ (22:15, 18 February 2020)
  73. Problem: Reflectivity in magnetic materials‏‎ (22:15, 18 February 2020)
  74. Problem: Snell's Law‏‎ (22:15, 18 February 2020)
  75. Problem: Refractive index for "light" and "heavy" water‏‎ (22:15, 18 February 2020)
  76. Problem: SANS and SAXS from spherical surfactant micelles‏‎ (22:15, 18 February 2020)
  77. Problem: The cross section‏‎ (22:15, 18 February 2020)
  78. Problem: Scattering length density for "light" and "heavy" water‏‎ (22:15, 18 February 2020)
  79. Problem: The structure factor for dilute systems‏‎ (22:15, 18 February 2020)
  80. Problem: Simulation of SANS scattering‏‎ (22:15, 18 February 2020)
  81. Problem: Reflectivity coefficient‏‎ (22:15, 18 February 2020)
  82. Problem: Simulation of incoherent scattering‏‎ (22:15, 18 February 2020)
  83. Quantum mechanical derivation of neutron-phonon scattering‏‎ (22:15, 18 February 2020)
  84. Scattering from lattice vibrations‏‎ (22:15, 18 February 2020)
  85. Quantum mechanics of magnetic diffraction‏‎ (22:15, 18 February 2020)
  86. Scattering from magnetic dynamics‏‎ (22:15, 18 February 2020)
  87. Quantum mechanics of nuclear diffraction‏‎ (22:15, 18 February 2020)
  88. Scattering from nuclear dynamics‏‎ (22:15, 18 February 2020)
  89. Quantum mechanics of scattering‏‎ (22:15, 18 February 2020)
  90. Scattering of neutrons from magnetic ions‏‎ (22:15, 18 February 2020)
  91. Quantum treatment of elastic neutron scattering‏‎ (22:15, 18 February 2020)
  92. Scattering theory for magnetic dynamics‏‎ (22:15, 18 February 2020)
  93. Quantum treatment of inelastic neutron scattering‏‎ (22:15, 18 February 2020)
  94. Radiography‏‎ (22:15, 18 February 2020)
  95. Reflection from a smooth, flat interface‏‎ (22:15, 18 February 2020)
  96. Reflectivity of periodically stratified media‏‎ (22:15, 18 February 2020)
  97. Problem: Use of International Tables for Crystallography‏‎ (22:15, 18 February 2020)
  98. Reflectivity of stratified media‏‎ (22:15, 18 February 2020)
  99. Problem: Validity of the semiclassical approximation‏‎ (22:15, 18 February 2020)
  100. Rough and diffuse interfaces‏‎ (22:15, 18 February 2020)
  101. Simulation Project powder: Emulating real experimental data‏‎ (22:15, 18 February 2020)
  102. Simulation Project tripleaxis: Filter‏‎ (22:15, 18 February 2020)
  103. Simulation Project SANS-2: Normalizing data‏‎ (22:15, 18 February 2020)
  104. Simulation Project powder: Improve your instrument‏‎ (22:15, 18 February 2020)
  105. Simulation Project tripleaxis: Phonon sample‏‎ (22:15, 18 February 2020)
  106. Simulation Project SANS-2: Pinhole collimation‏‎ (22:15, 18 February 2020)
  107. Simulation Project powder: Monochromator‏‎ (22:15, 18 February 2020)
  108. Simulation Project tripleaxis: The resolution function‏‎ (22:15, 18 February 2020)
  109. Simulation Project SANS-2: Resolution of the SANS instrument‏‎ (22:15, 18 February 2020)
  110. Simulation Project powder: Sample‏‎ (22:15, 18 February 2020)
  111. Simulation Project tripleaxis: The source-guide system‏‎ (22:15, 18 February 2020)
  112. Simulation Project SANS-2: The effect of gravity‏‎ (22:15, 18 February 2020)
  113. Simulation Project powder: The guide system‏‎ (22:15, 18 February 2020)
  114. Simulation Project tripleaxis: Tuning the RITA-2 monochromator‏‎ (22:15, 18 February 2020)
  115. Simulation Project SANS-2: The source-guide system‏‎ (22:15, 18 February 2020)
  116. Simulation Project tripleaxis: A focusing monochromator‏‎ (22:15, 18 February 2020)
  117. Scattering theory for nuclear dynamics‏‎ (22:15, 18 February 2020)
  118. Simulation project SANS-2: A small angle neutron scattering instrument‏‎ (22:15, 18 February 2020)
  119. Simulation Project SANS-2: Velocity selector‏‎ (22:15, 18 February 2020)
  120. Simulation Project tripleaxis: A full virtual experiment‏‎ (22:15, 18 February 2020)
  121. Simple simulation problems‏‎ (22:15, 18 February 2020)
  122. Simulation project powder: A powder diffractometer‏‎ (22:15, 18 February 2020)
  123. Simulation Project powder: A full virtual experiment‏‎ (22:15, 18 February 2020)
  124. Simulation Project tripleaxis: Analyzer and detector‏‎ (22:15, 18 February 2020)
  125. Simulation Project SANS-2: A full virtual experiment - Liposome sample‏‎ (22:15, 18 February 2020)
  126. Simulation Project powder: Collimator‏‎ (22:15, 18 February 2020)
  127. Simulation Project tripleaxis: Collimator‏‎ (22:15, 18 February 2020)
  128. Simulation Project SANS-2: A full virtual experiment - spheres sample‏‎ (22:15, 18 February 2020)
  129. Simulation Project powder: DMC multi-detector‏‎ (22:15, 18 February 2020)
  130. Simulation Project tripleaxis: Determine the full phonon dispersion of the sample‏‎ (22:15, 18 February 2020)
  131. Simulation Project SANS-2: Data analysis‏‎ (22:15, 18 February 2020)
  132. Simulation Project powder: Determine the crystal structure of the sample‏‎ (22:15, 18 February 2020)
  133. Simulation Project tripleaxis: Energy resolution‏‎ (22:15, 18 February 2020)
  134. Simulation Project SANS-2: Detector‏‎ (22:15, 18 February 2020)
  135. Useful model-free approximations in SANS‏‎ (22:15, 18 February 2020)
  136. Spectrometers: Instruments for inelastic neutron scattering‏‎ (22:15, 18 February 2020)
  137. Wave description of nuclear scattering‏‎ (22:15, 18 February 2020)
  138. Techniques for neutron ray-tracing‏‎ (22:15, 18 February 2020)
  139. Test page‏‎ (22:15, 18 February 2020)
  140. The magnetic scattering length‏‎ (22:15, 18 February 2020)
  141. Simulation project reflectometer: A neutron reflectometer‏‎ (22:15, 18 February 2020)
  142. The scattering cross section for phonons‏‎ (22:15, 18 February 2020)
  143. Simulation project tripleaxis: A triple-axis spectrometer‏‎ (22:15, 18 February 2020)
  144. The total cross section for a system of particles‏‎ (22:15, 18 February 2020)
  145. Thin films and interfaces‏‎ (22:15, 18 February 2020)
  146. Small angle neutron scattering, SANS‏‎ (22:15, 18 February 2020)
  147. Particle-wave duality‏‎ (11:28, 24 March 2020)
  148. The neutron cross sections‏‎ (16:22, 16 April 2020)
  149. Applications of SANS in nanoscience‏‎ (16:38, 20 April 2020)
  150. Small-angle scattering instruments‏‎ (16:45, 20 April 2020)
  151. Neutron sources‏‎ (16:55, 20 April 2020)
  152. The neutron scattering cross section from nano-sized particles‏‎ (17:02, 20 April 2020)
  153. Moderators‏‎ (17:41, 20 April 2020)
  154. Problem:The neutron guide system‏‎ (15:20, 20 September 2020)
  155. Problem:Pinhole collimation‏‎ (15:22, 20 September 2020)
  156. Problem:The collimator‏‎ (15:23, 20 September 2020)
  157. Problem:Selection of materials for neutron scattering experiments‏‎ (15:24, 20 September 2020)
  158. Problem:The moderator temperature‏‎ (15:25, 20 September 2020)
  159. Problem:Hydrogen as a moderator‏‎ (15:26, 20 September 2020)
  160. Problem:The beam port‏‎ (15:26, 20 September 2020)
  161. Problem:Polydisperse spheres‏‎ (15:28, 20 September 2020)
  162. Problem:Scattering form factor for spheres‏‎ (15:29, 20 September 2020)
  163. Problem:Fourier transform‏‎ (15:29, 20 September 2020)
  164. Problem:Neutron velocity selector‏‎ (15:30, 20 September 2020)
  165. Problem:SANS q-range and resolution‏‎ (15:31, 20 September 2020)
  166. Problem:Scattering from an antiferromagnet‏‎ (15:44, 20 September 2020)
  167. Problem:A classical antiferromagnet in two dimensions‏‎ (15:45, 20 September 2020)
  168. Problem:Bragg scattering from non-Bravais lattices‏‎ (15:46, 20 September 2020)
  169. Problem:Simple Bragg scattering, the monochromator‏‎ (15:47, 20 September 2020)
  170. Problem:Classical lattice vibrations in one dimension‏‎ (15:49, 20 September 2020)
  171. Problem:Classical vibrations with a two-atom unit cell‏‎ (15:49, 20 September 2020)
  172. Problem:The Be filter‏‎ (15:49, 20 September 2020)
  173. Problem:Derivation of the cartesian formulation of the perpendicular spin component‏‎ (15:50, 20 September 2020)
  174. The refractive index‏‎ (10:48, 11 March 2021)
  175. Main Page‏‎ (07:47, 10 May 2021)
  176. TOC limit/styles.css‏‎ (14:11, 10 November 2022)

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