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Marker trajectory assessment in optical cone beam computed tomography scanner geometry

Measured trajectories of markers on vessel wall and beads on a plumb are compared with calculated trajectories for transmission images obtained with Vista16™ optical cone beam scanner. Effective pixel size was 0.11 mm. An algorithm was developed to measure trajectories for the plumb line phantom and...

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Published in:Journal of physics. Conference series 2022-01, Vol.2167 (1), p.12015
Main Authors: Marks, Gareth, Jaryd, Christie, Jordan, Kevin
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description Measured trajectories of markers on vessel wall and beads on a plumb are compared with calculated trajectories for transmission images obtained with Vista16™ optical cone beam scanner. Effective pixel size was 0.11 mm. An algorithm was developed to measure trajectories for the plumb line phantom and a semi-automatic version was required for the gel filled vessels due to overlap of markers and seam projections at maximum lateral positions. It was found that for 15 cm diameter vessels, the vessel edge was not visible due to divergence in cone beam geometry. Accounting for this effect was necessary in order to remove artefacts from calculated vessel trajectory. Displacement differences were found to be less than 0.1 mm for the plumb line, 0.3 mm for a beads and 1 mm for markers on gel filled vessel. Minimization of the vessel marker trajectory deviation will provide a more accurate approach to refractive index optimization. No optical aberrations were detected from the trajectory analysis and manufacturer scanner alignment and geometrical calibrations were independently verified.
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subjects Algorithms
Beads
Computed tomography
Diameters
Image transmission
Markers
Mathematical analysis
Optical scanners
Optimization
Physics
Refractivity
Scanners
Trajectory analysis
Trajectory measurement
Vessels
title Marker trajectory assessment in optical cone beam computed tomography scanner geometry
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