Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine

There is presented the possibility of using modern rapid prototyping methods in the form of reverse engineering on the example of lumbosacral spine of a human spine at the level of L3-L. Reverse engineering techniques were directly used in the generation and processing of point clouds from a real ob...

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Main Authors: Kozłowska Ewelina, Zubrzycki Jarosław
Format: Article
Language:English
Published: EDP Sciences 2017-01-01
Series:ITM Web of Conferences
Online Access:https://doi.org/10.1051/itmconf/20171502007
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spelling doaj-eae34d4652374932b8e83261101b03912021-02-02T02:12:21ZengEDP SciencesITM Web of Conferences2271-20972017-01-01150200710.1051/itmconf/20171502007itmconf_cmes-17_02007Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spineKozłowska EwelinaZubrzycki JarosławThere is presented the possibility of using modern rapid prototyping methods in the form of reverse engineering on the example of lumbosacral spine of a human spine at the level of L3-L. Reverse engineering techniques were directly used in the generation and processing of point clouds from a real object. The point clouds were generated by using specialised Mimics software and basing on the results of computer tomography and magnetic resonance imaging using. In the next stage of processing, there was the export of the appropriately converted point clouds to STL format, compatible with CAD programs. The reverse engineering process took four steps: digitisation of the real object, using non-invasive imaging techniques (CT, MRI), processing the point clouds from the digitisation stage, construction of a surface model of the real object basing on the processed point clouds, realising of the real object’s copy by using rapid prototyping techniques. In the final stage, the model of the complex spinal’s part was tested to MES strength analysis.https://doi.org/10.1051/itmconf/20171502007
collection DOAJ
language English
format Article
sources DOAJ
author Kozłowska Ewelina
Zubrzycki Jarosław
spellingShingle Kozłowska Ewelina
Zubrzycki Jarosław
Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine
ITM Web of Conferences
author_facet Kozłowska Ewelina
Zubrzycki Jarosław
author_sort Kozłowska Ewelina
title Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine
title_short Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine
title_full Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine
title_fullStr Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine
title_full_unstemmed Using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine
title_sort using methods of the reverse engineering to carry personalised preoperative stabilisers out on the example of vertebrae of human spine
publisher EDP Sciences
series ITM Web of Conferences
issn 2271-2097
publishDate 2017-01-01
description There is presented the possibility of using modern rapid prototyping methods in the form of reverse engineering on the example of lumbosacral spine of a human spine at the level of L3-L. Reverse engineering techniques were directly used in the generation and processing of point clouds from a real object. The point clouds were generated by using specialised Mimics software and basing on the results of computer tomography and magnetic resonance imaging using. In the next stage of processing, there was the export of the appropriately converted point clouds to STL format, compatible with CAD programs. The reverse engineering process took four steps: digitisation of the real object, using non-invasive imaging techniques (CT, MRI), processing the point clouds from the digitisation stage, construction of a surface model of the real object basing on the processed point clouds, realising of the real object’s copy by using rapid prototyping techniques. In the final stage, the model of the complex spinal’s part was tested to MES strength analysis.
url https://doi.org/10.1051/itmconf/20171502007
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AT zubrzyckijarosław usingmethodsofthereverseengineeringtocarrypersonalisedpreoperativestabilisersoutontheexampleofvertebraeofhumanspine
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