Title :
Automated extraction of blood vessel networks from 3D microscopy image stacks via multi-scale principal curve tracing
Author :
Bas, Erhan ; Ghadarghadar, Nastaran ; Erdogmus, Deniz
Author_Institution :
Cognitive Syst. Lab., Northeastern Univ., Boston, MA, USA
fDate :
March 30 2011-April 2 2011
Abstract :
Blood vessel segmentation, that is, extraction of the center lines and corresponding local cylinder radii are important for the study of vascular diseases, and in the brain also important for the modeling and understanding of relationships between hemodynamics and electrical neural activity. Several image processing methods have been proposed for vessel extraction in many domains including those that explore the use of pattern recognition techniques, model-based approaches, tracking based approaches, artificial based approaches, neural network based approaches, and miscellaneous tube-like object detection approaches. In this paper, we propose a ridge tracing approach based on recently developed principal curve (PC) projection and tracing algorithms for the extraction of vasculature networks in the brain from 3D microscopy image stacks. Results on mice brain imagery obtained for the purpose of studying hemodynamic effects on neural activity are promising.
Keywords :
bioelectric potentials; blood vessels; brain; diseases; haemodynamics; image segmentation; medical image processing; neurophysiology; pattern recognition; physiological models; 3D microscopy image stacks; artificial based approaches; automated extraction; blood vessel networks; blood vessel segmentation; brain; electrical neural activity; hemodynamics; image processing methods; local cylinder radii; mice brain imagery; model-based approaches; multiscale principal curve tracing; neural network based approaches; pattern recognition techniques; principal curve projection; ridge tracing approach; tracing algorithms; tracking based approaches; tube-like object detection approaches; vascular diseases; vasculature network extraction; vessel extraction; Bandwidth; Bifurcation; Biomedical imaging; Blood vessels; Interpolation; Kernel; Three dimensional displays; 3D tube extraction; Vessel tracing; bifurcation detection; principal curves;
Conference_Titel :
Biomedical Imaging: From Nano to Macro, 2011 IEEE International Symposium on
Conference_Location :
Chicago, IL
Print_ISBN :
978-1-4244-4127-3
Electronic_ISBN :
1945-7928
DOI :
10.1109/ISBI.2011.5872652