author_facet Muhammad, Wazir
Liang, Ying
Hart, Gregory R.
Nartowt, Bradley J.
Deng, Jun
Muhammad, Wazir
Liang, Ying
Hart, Gregory R.
Nartowt, Bradley J.
Deng, Jun
author Muhammad, Wazir
Liang, Ying
Hart, Gregory R.
Nartowt, Bradley J.
Deng, Jun
spellingShingle Muhammad, Wazir
Liang, Ying
Hart, Gregory R.
Nartowt, Bradley J.
Deng, Jun
Acta Crystallographica Section A Foundations and Advances
Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
Inorganic Chemistry
Physical and Theoretical Chemistry
Condensed Matter Physics
General Materials Science
Biochemistry
Structural Biology
author_sort muhammad, wazir
spelling Muhammad, Wazir Liang, Ying Hart, Gregory R. Nartowt, Bradley J. Deng, Jun 2053-2733 International Union of Crystallography (IUCr) Inorganic Chemistry Physical and Theoretical Chemistry Condensed Matter Physics General Materials Science Biochemistry Structural Biology http://dx.doi.org/10.1107/s2053273319014530 <jats:p>The acceptance–rejection technique has been widely used in several Monte Carlo simulation packages for Rayleigh scattering of photons. However, the models implemented in these packages might fail to reproduce the corresponding experimental and theoretical results. The discrepancy is attributed to the fact that all current simulations implement an elastic scattering model for the angular distribution of photons without considering anomalous scattering effects. In this study, a novel Rayleigh scattering model using anomalous scattering factors based on the inverse-sampling technique is presented. Its performance was evaluated against other simulation algorithms in terms of simulation accuracy and computational efficiency. The computational efficiency was tested with a general-purpose Monte Carlo package named <jats:italic>Particle Transport in Media</jats:italic> (<jats:italic>PTM</jats:italic>). The evaluation showed that a Monte Carlo model using both atomic form factors and anomalous scattering factors for the angular distribution of photons (instead of the atomic form factors alone) produced Rayleigh scattering results in closer agreement with experimental data. The comparison and evaluation confirmed that the inverse-sampling technique using atomic form factors and anomalous scattering factors exhibited improved computational efficiency and performed the best in reproducing experimental measurements and related scattering matrix calculations. Furthermore, using this model to sample coherent scattering can provide scientific insight for complex systems.</jats:p> Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique Acta Crystallographica Section A Foundations and Advances
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publishDateSort 2020
publisher International Union of Crystallography (IUCr)
recordtype ai
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series Acta Crystallographica Section A Foundations and Advances
source_id 49
title Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_unstemmed Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_full Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_fullStr Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_full_unstemmed Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_short Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_sort monte carlo simulation of coherently scattered photons based on the inverse-sampling technique
topic Inorganic Chemistry
Physical and Theoretical Chemistry
Condensed Matter Physics
General Materials Science
Biochemistry
Structural Biology
url http://dx.doi.org/10.1107/s2053273319014530
publishDate 2020
physical 70-78
description <jats:p>The acceptance–rejection technique has been widely used in several Monte Carlo simulation packages for Rayleigh scattering of photons. However, the models implemented in these packages might fail to reproduce the corresponding experimental and theoretical results. The discrepancy is attributed to the fact that all current simulations implement an elastic scattering model for the angular distribution of photons without considering anomalous scattering effects. In this study, a novel Rayleigh scattering model using anomalous scattering factors based on the inverse-sampling technique is presented. Its performance was evaluated against other simulation algorithms in terms of simulation accuracy and computational efficiency. The computational efficiency was tested with a general-purpose Monte Carlo package named <jats:italic>Particle Transport in Media</jats:italic> (<jats:italic>PTM</jats:italic>). The evaluation showed that a Monte Carlo model using both atomic form factors and anomalous scattering factors for the angular distribution of photons (instead of the atomic form factors alone) produced Rayleigh scattering results in closer agreement with experimental data. The comparison and evaluation confirmed that the inverse-sampling technique using atomic form factors and anomalous scattering factors exhibited improved computational efficiency and performed the best in reproducing experimental measurements and related scattering matrix calculations. Furthermore, using this model to sample coherent scattering can provide scientific insight for complex systems.</jats:p>
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author Muhammad, Wazir, Liang, Ying, Hart, Gregory R., Nartowt, Bradley J., Deng, Jun
author_facet Muhammad, Wazir, Liang, Ying, Hart, Gregory R., Nartowt, Bradley J., Deng, Jun, Muhammad, Wazir, Liang, Ying, Hart, Gregory R., Nartowt, Bradley J., Deng, Jun
author_sort muhammad, wazir
container_issue 1
container_start_page 70
container_title Acta Crystallographica Section A Foundations and Advances
container_volume 76
description <jats:p>The acceptance–rejection technique has been widely used in several Monte Carlo simulation packages for Rayleigh scattering of photons. However, the models implemented in these packages might fail to reproduce the corresponding experimental and theoretical results. The discrepancy is attributed to the fact that all current simulations implement an elastic scattering model for the angular distribution of photons without considering anomalous scattering effects. In this study, a novel Rayleigh scattering model using anomalous scattering factors based on the inverse-sampling technique is presented. Its performance was evaluated against other simulation algorithms in terms of simulation accuracy and computational efficiency. The computational efficiency was tested with a general-purpose Monte Carlo package named <jats:italic>Particle Transport in Media</jats:italic> (<jats:italic>PTM</jats:italic>). The evaluation showed that a Monte Carlo model using both atomic form factors and anomalous scattering factors for the angular distribution of photons (instead of the atomic form factors alone) produced Rayleigh scattering results in closer agreement with experimental data. The comparison and evaluation confirmed that the inverse-sampling technique using atomic form factors and anomalous scattering factors exhibited improved computational efficiency and performed the best in reproducing experimental measurements and related scattering matrix calculations. Furthermore, using this model to sample coherent scattering can provide scientific insight for complex systems.</jats:p>
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imprint International Union of Crystallography (IUCr), 2020
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spelling Muhammad, Wazir Liang, Ying Hart, Gregory R. Nartowt, Bradley J. Deng, Jun 2053-2733 International Union of Crystallography (IUCr) Inorganic Chemistry Physical and Theoretical Chemistry Condensed Matter Physics General Materials Science Biochemistry Structural Biology http://dx.doi.org/10.1107/s2053273319014530 <jats:p>The acceptance–rejection technique has been widely used in several Monte Carlo simulation packages for Rayleigh scattering of photons. However, the models implemented in these packages might fail to reproduce the corresponding experimental and theoretical results. The discrepancy is attributed to the fact that all current simulations implement an elastic scattering model for the angular distribution of photons without considering anomalous scattering effects. In this study, a novel Rayleigh scattering model using anomalous scattering factors based on the inverse-sampling technique is presented. Its performance was evaluated against other simulation algorithms in terms of simulation accuracy and computational efficiency. The computational efficiency was tested with a general-purpose Monte Carlo package named <jats:italic>Particle Transport in Media</jats:italic> (<jats:italic>PTM</jats:italic>). The evaluation showed that a Monte Carlo model using both atomic form factors and anomalous scattering factors for the angular distribution of photons (instead of the atomic form factors alone) produced Rayleigh scattering results in closer agreement with experimental data. The comparison and evaluation confirmed that the inverse-sampling technique using atomic form factors and anomalous scattering factors exhibited improved computational efficiency and performed the best in reproducing experimental measurements and related scattering matrix calculations. Furthermore, using this model to sample coherent scattering can provide scientific insight for complex systems.</jats:p> Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique Acta Crystallographica Section A Foundations and Advances
spellingShingle Muhammad, Wazir, Liang, Ying, Hart, Gregory R., Nartowt, Bradley J., Deng, Jun, Acta Crystallographica Section A Foundations and Advances, Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique, Inorganic Chemistry, Physical and Theoretical Chemistry, Condensed Matter Physics, General Materials Science, Biochemistry, Structural Biology
title Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_full Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_fullStr Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_full_unstemmed Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_short Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_sort monte carlo simulation of coherently scattered photons based on the inverse-sampling technique
title_unstemmed Monte Carlo simulation of coherently scattered photons based on the inverse-sampling technique
topic Inorganic Chemistry, Physical and Theoretical Chemistry, Condensed Matter Physics, General Materials Science, Biochemistry, Structural Biology
url http://dx.doi.org/10.1107/s2053273319014530