Information

  • Publication Type: Bachelor Thesis
  • Workgroup(s)/Project(s):
  • Date: January 2023
  • Date (Start): 23. April 2022
  • Date (End): 28. January 2023
  • Matrikelnummer: 01527619
  • First Supervisor: Eduard GröllerORCID iD

Abstract

Computed tomography (CT) has a wide range of applications. It is an important technique in industrial non-destructive testing, where engineers want to find flaws in materials or reverse engineer the material composition of an object. Another application in material science is to visualize stresses that occur inside of an object. Furthermore, it is also often used in medical applications, however, the focus of this thesis lies on industrial computed tomography. Actual computed tomography scans can take quite a long time and may become expensive. Therefore, it is essential to create software simulations that allow fast and accurate prototyping of such scans, in order to keep cost and time consumption to a minimum. In this thesis, we present a method to create such scans using Monte Carlo based rendering methods and compare it to an existing solution regarding accuracy and time.

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BibTeX

@bachelorsthesis{Philipp_Hochhauser_2023,
  title =      "X-ray Path Tracing for CT Imaging",
  author =     "Philipp  Hochhauser",
  year =       "2023",
  abstract =   "Computed tomography (CT) has a wide range of applications.
               It is an important technique in industrial non-destructive
               testing, where engineers want to find flaws in materials or
               reverse engineer the material composition of an object.
               Another application in material science is to visualize
               stresses that occur inside of an object. Furthermore, it is
               also often used in medical applications, however, the focus
               of this thesis lies on industrial computed tomography.
               Actual computed tomography scans can take quite a long time
               and may become expensive. Therefore, it is essential to
               create software simulations that allow fast and accurate
               prototyping of such scans, in order to keep cost and time
               consumption to a minimum. In this thesis, we present a
               method to create such scans using Monte Carlo based
               rendering methods and compare it to an existing solution
               regarding accuracy and time. ",
  month =      jan,
  address =    "Favoritenstrasse 9-11/E193-02, A-1040 Vienna, Austria",
  school =     "Research Unit of Computer Graphics, Institute of Visual
               Computing and Human-Centered Technology, Faculty of
               Informatics, TU Wien ",
  URL =        "https://www.cg.tuwien.ac.at/research/publications/2023/Philipp_Hochhauser_2023/",
}