Abstract
The process of three-dimensional reconstruction from serial sections includes aligning adjacent sections, segmenting the desired objects and constructing a computer internal model of the reconstructed object. Computational methodologies taking advantage of the parallel processing facilities of CLIP4 are presented for automating these tasks. The author is interested in the detailed structure of the carotid body which is a highly vascularized organ with the largest blood flow rate of any tissue in the body (Biscoe (1971), Seidl (1975), Lubbers et al. (1977), Clarke and Daly (1982)). It plays an important role in monitoring the chemical composition of arterial blood (p(o/sub 2/), p(co/sub 2/), ph). The aim of the investigation in the paper is to reconstruct the total vasculature of the organ and to make an analytical study of the geometrical configuration of its vessels. 15 references.
Citation Formats
Ip, H H.S.
Detection and three-dimensional reconstruction of a vascular network from serial sections.
Netherlands: N. p.,
1983.
Web.
doi:10.1016/0167-8655(83)90092-2.
Ip, H H.S.
Detection and three-dimensional reconstruction of a vascular network from serial sections.
Netherlands.
https://doi.org/10.1016/0167-8655(83)90092-2
Ip, H H.S.
1983.
"Detection and three-dimensional reconstruction of a vascular network from serial sections."
Netherlands.
https://doi.org/10.1016/0167-8655(83)90092-2.
@misc{etde_5180568,
title = {Detection and three-dimensional reconstruction of a vascular network from serial sections}
author = {Ip, H H.S.}
abstractNote = {The process of three-dimensional reconstruction from serial sections includes aligning adjacent sections, segmenting the desired objects and constructing a computer internal model of the reconstructed object. Computational methodologies taking advantage of the parallel processing facilities of CLIP4 are presented for automating these tasks. The author is interested in the detailed structure of the carotid body which is a highly vascularized organ with the largest blood flow rate of any tissue in the body (Biscoe (1971), Seidl (1975), Lubbers et al. (1977), Clarke and Daly (1982)). It plays an important role in monitoring the chemical composition of arterial blood (p(o/sub 2/), p(co/sub 2/), ph). The aim of the investigation in the paper is to reconstruct the total vasculature of the organ and to make an analytical study of the geometrical configuration of its vessels. 15 references.}
doi = {10.1016/0167-8655(83)90092-2}
journal = []
volume = {5-6}
journal type = {AC}
place = {Netherlands}
year = {1983}
month = {Jul}
}
title = {Detection and three-dimensional reconstruction of a vascular network from serial sections}
author = {Ip, H H.S.}
abstractNote = {The process of three-dimensional reconstruction from serial sections includes aligning adjacent sections, segmenting the desired objects and constructing a computer internal model of the reconstructed object. Computational methodologies taking advantage of the parallel processing facilities of CLIP4 are presented for automating these tasks. The author is interested in the detailed structure of the carotid body which is a highly vascularized organ with the largest blood flow rate of any tissue in the body (Biscoe (1971), Seidl (1975), Lubbers et al. (1977), Clarke and Daly (1982)). It plays an important role in monitoring the chemical composition of arterial blood (p(o/sub 2/), p(co/sub 2/), ph). The aim of the investigation in the paper is to reconstruct the total vasculature of the organ and to make an analytical study of the geometrical configuration of its vessels. 15 references.}
doi = {10.1016/0167-8655(83)90092-2}
journal = []
volume = {5-6}
journal type = {AC}
place = {Netherlands}
year = {1983}
month = {Jul}
}