Study on Reconstruction and Feature Tracking of Silicone Heart 3D Surface

At present, feature-based 3D reconstruction and tracking technology is widely applied in the medical field. In minimally invasive surgery, the surgeon can achieve three-dimensional reconstruction through the images obtained by the endoscope in the human body, restore the three-dimensional scene of t...

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Autores principales: Ziyan Zhang, Yan Liu, Jiawei Tian, Shan Liu, Bo Yang, Longhai Xiang, Lirong Yin, Wenfeng Zheng
Formato: article
Lenguaje:EN
Publicado: MDPI AG 2021
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Acceso en línea:https://doaj.org/article/cbb18823070b483695b03751762ed02a
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spelling oai:doaj.org-article:cbb18823070b483695b03751762ed02a2021-11-25T18:57:31ZStudy on Reconstruction and Feature Tracking of Silicone Heart 3D Surface10.3390/s212275701424-8220https://doaj.org/article/cbb18823070b483695b03751762ed02a2021-11-01T00:00:00Zhttps://www.mdpi.com/1424-8220/21/22/7570https://doaj.org/toc/1424-8220At present, feature-based 3D reconstruction and tracking technology is widely applied in the medical field. In minimally invasive surgery, the surgeon can achieve three-dimensional reconstruction through the images obtained by the endoscope in the human body, restore the three-dimensional scene of the area to be operated on, and track the motion of the soft tissue surface. This enables doctors to have a clearer understanding of the location depth of the surgical area, greatly reducing the negative impact of 2D image defects and ensuring smooth operation. In this study, firstly, the 3D coordinates of each feature point are calculated by using the parameters of the parallel binocular endoscope and the spatial geometric constraints. At the same time, the discrete feature points are divided into multiple triangles using the Delaunay triangulation method. Then, the 3D coordinates of feature points and the division results of each triangle are combined to complete the 3D surface reconstruction. Combined with the feature matching method based on convolutional neural network, feature tracking is realized by calculating the three-dimensional coordinate changes of the same feature point in different frames. Finally, experiments are carried out on the endoscope image to complete the 3D surface reconstruction and feature tracking.Ziyan ZhangYan LiuJiawei TianShan LiuBo YangLonghai XiangLirong YinWenfeng ZhengMDPI AGarticleDelaunay triangulationreconstruction of three-dimensional surfacefeature trackingconvolutional neural networkChemical technologyTP1-1185ENSensors, Vol 21, Iss 7570, p 7570 (2021)
institution DOAJ
collection DOAJ
language EN
topic Delaunay triangulation
reconstruction of three-dimensional surface
feature tracking
convolutional neural network
Chemical technology
TP1-1185
spellingShingle Delaunay triangulation
reconstruction of three-dimensional surface
feature tracking
convolutional neural network
Chemical technology
TP1-1185
Ziyan Zhang
Yan Liu
Jiawei Tian
Shan Liu
Bo Yang
Longhai Xiang
Lirong Yin
Wenfeng Zheng
Study on Reconstruction and Feature Tracking of Silicone Heart 3D Surface
description At present, feature-based 3D reconstruction and tracking technology is widely applied in the medical field. In minimally invasive surgery, the surgeon can achieve three-dimensional reconstruction through the images obtained by the endoscope in the human body, restore the three-dimensional scene of the area to be operated on, and track the motion of the soft tissue surface. This enables doctors to have a clearer understanding of the location depth of the surgical area, greatly reducing the negative impact of 2D image defects and ensuring smooth operation. In this study, firstly, the 3D coordinates of each feature point are calculated by using the parameters of the parallel binocular endoscope and the spatial geometric constraints. At the same time, the discrete feature points are divided into multiple triangles using the Delaunay triangulation method. Then, the 3D coordinates of feature points and the division results of each triangle are combined to complete the 3D surface reconstruction. Combined with the feature matching method based on convolutional neural network, feature tracking is realized by calculating the three-dimensional coordinate changes of the same feature point in different frames. Finally, experiments are carried out on the endoscope image to complete the 3D surface reconstruction and feature tracking.
format article
author Ziyan Zhang
Yan Liu
Jiawei Tian
Shan Liu
Bo Yang
Longhai Xiang
Lirong Yin
Wenfeng Zheng
author_facet Ziyan Zhang
Yan Liu
Jiawei Tian
Shan Liu
Bo Yang
Longhai Xiang
Lirong Yin
Wenfeng Zheng
author_sort Ziyan Zhang
title Study on Reconstruction and Feature Tracking of Silicone Heart 3D Surface
title_short Study on Reconstruction and Feature Tracking of Silicone Heart 3D Surface
title_full Study on Reconstruction and Feature Tracking of Silicone Heart 3D Surface
title_fullStr Study on Reconstruction and Feature Tracking of Silicone Heart 3D Surface
title_full_unstemmed Study on Reconstruction and Feature Tracking of Silicone Heart 3D Surface
title_sort study on reconstruction and feature tracking of silicone heart 3d surface
publisher MDPI AG
publishDate 2021
url https://doaj.org/article/cbb18823070b483695b03751762ed02a
work_keys_str_mv AT ziyanzhang studyonreconstructionandfeaturetrackingofsiliconeheart3dsurface
AT yanliu studyonreconstructionandfeaturetrackingofsiliconeheart3dsurface
AT jiaweitian studyonreconstructionandfeaturetrackingofsiliconeheart3dsurface
AT shanliu studyonreconstructionandfeaturetrackingofsiliconeheart3dsurface
AT boyang studyonreconstructionandfeaturetrackingofsiliconeheart3dsurface
AT longhaixiang studyonreconstructionandfeaturetrackingofsiliconeheart3dsurface
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