3D cyclorama for digital unrolling and visualisation of deformed tubes

Abstract Colonic crypts are tubular glands that multiply through a symmetric branching process called crypt fission. During the early stages of colorectal cancer, the normal fission process is disturbed, leading to asymmetrical branching or budding. The challenging shapes of the budding crypts make...

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Main Authors: Charalambos Rossides, Sylvia L. F. Pender, Philipp Schneider
Format: Article
Language:English
Published: Nature Publishing Group 2021-07-01
Series:Scientific Reports
Online Access:https://doi.org/10.1038/s41598-021-93184-x
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spelling doaj-fc09a6546c41489eafa4ca19fe318cec2021-07-25T11:23:07ZengNature Publishing GroupScientific Reports2045-23222021-07-0111111510.1038/s41598-021-93184-x3D cyclorama for digital unrolling and visualisation of deformed tubesCharalambos Rossides0Sylvia L. F. Pender1Philipp Schneider2Bioengineering Science Research Group, Faculty of Engineering and Physical Sciences, University of SouthamptonSchool of Clinical and Experimental Sciences, Faculty of Medicine, University of SouthamptonBioengineering Science Research Group, Faculty of Engineering and Physical Sciences, University of SouthamptonAbstract Colonic crypts are tubular glands that multiply through a symmetric branching process called crypt fission. During the early stages of colorectal cancer, the normal fission process is disturbed, leading to asymmetrical branching or budding. The challenging shapes of the budding crypts make it difficult to prepare paraffin sections for conventional histology, resulting in colonic cross sections with crypts that are only partially visible. To study crypt budding in situ and in three dimensions (3D), we employ X-ray micro-computed tomography to image intact colons, and a new method we developed (3D cyclorama) to digitally unroll them. Here, we present, verify and validate our ‘3D cyclorama’ method that digitally unrolls deformed tubes of non-uniform thickness. It employs principles from electrostatics to reform the tube into a series of onion-like surfaces, which are mapped onto planar panoramic views. This enables the study of features extending over several layers of the tube’s depth, demonstrated here by two case studies: (i) microvilli in the human placenta and (ii) 3D-printed adhesive films for drug delivery. Our 3D cyclorama method can provide novel insights into a wide spectrum of applications where digital unrolling or flattening is necessary, including long bones, teeth roots and ancient scrolls.https://doi.org/10.1038/s41598-021-93184-x
collection DOAJ
language English
format Article
sources DOAJ
author Charalambos Rossides
Sylvia L. F. Pender
Philipp Schneider
spellingShingle Charalambos Rossides
Sylvia L. F. Pender
Philipp Schneider
3D cyclorama for digital unrolling and visualisation of deformed tubes
Scientific Reports
author_facet Charalambos Rossides
Sylvia L. F. Pender
Philipp Schneider
author_sort Charalambos Rossides
title 3D cyclorama for digital unrolling and visualisation of deformed tubes
title_short 3D cyclorama for digital unrolling and visualisation of deformed tubes
title_full 3D cyclorama for digital unrolling and visualisation of deformed tubes
title_fullStr 3D cyclorama for digital unrolling and visualisation of deformed tubes
title_full_unstemmed 3D cyclorama for digital unrolling and visualisation of deformed tubes
title_sort 3d cyclorama for digital unrolling and visualisation of deformed tubes
publisher Nature Publishing Group
series Scientific Reports
issn 2045-2322
publishDate 2021-07-01
description Abstract Colonic crypts are tubular glands that multiply through a symmetric branching process called crypt fission. During the early stages of colorectal cancer, the normal fission process is disturbed, leading to asymmetrical branching or budding. The challenging shapes of the budding crypts make it difficult to prepare paraffin sections for conventional histology, resulting in colonic cross sections with crypts that are only partially visible. To study crypt budding in situ and in three dimensions (3D), we employ X-ray micro-computed tomography to image intact colons, and a new method we developed (3D cyclorama) to digitally unroll them. Here, we present, verify and validate our ‘3D cyclorama’ method that digitally unrolls deformed tubes of non-uniform thickness. It employs principles from electrostatics to reform the tube into a series of onion-like surfaces, which are mapped onto planar panoramic views. This enables the study of features extending over several layers of the tube’s depth, demonstrated here by two case studies: (i) microvilli in the human placenta and (ii) 3D-printed adhesive films for drug delivery. Our 3D cyclorama method can provide novel insights into a wide spectrum of applications where digital unrolling or flattening is necessary, including long bones, teeth roots and ancient scrolls.
url https://doi.org/10.1038/s41598-021-93184-x
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