Comparison of Bone Segmentation Software over Different Anatomical Parts

Three-dimensional bone shape reconstruction is a fundamental step for any subject-specific musculo-skeletal model. Typically, medical images are processed to reconstruct bone surfaces via slice-by-slice contour identification. Freeware software packages are available, but commercial ones must be use...

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Published inApplied sciences Vol. 12; no. 12; p. 6097
Main Authors Belvedere, Claudio, Ortolani, Maurizio, Marcelli, Emanuela, Bortolani, Barbara, Matsiushevich, Katsiaryna, Durante, Stefano, Cercenelli, Laura, Leardini, Alberto
Format Journal Article
LanguageEnglish
Published Basel MDPI AG 01.06.2022
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ISSN2076-3417
2076-3417
DOI10.3390/app12126097

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Abstract Three-dimensional bone shape reconstruction is a fundamental step for any subject-specific musculo-skeletal model. Typically, medical images are processed to reconstruct bone surfaces via slice-by-slice contour identification. Freeware software packages are available, but commercial ones must be used for the necessary certification in clinics. The commercial software packages also imply expensive hardware and demanding training, but offer valuable tools. The aim of the present work is to report the performance of five commercial software packages (Mimics®, AmiraTM, D2PTM, SimplewareTM, and Segment 3D PrintTM), particularly the time to import and to create the model, the number of triangles of the mesh, and the STL file size. DICOM files of three different computed tomography scans from five different human anatomical areas were utilized for bone shape reconstruction by using each of these packages. The same operator and the same hosting hardware were used for these analyses. The computational time was found to be different between the packages analyzed, probably because of the pre-processing implied in this operation. The longer “time-to-import” observed in one software is likely due to the volume rendering during uploading. A similar number of triangles per megabyte (approximately 20 thousand) was observed for the five commercial packages. The present work showed the good performance of these software packages, with the main features being better than those analyzed previously in freeware packages.
AbstractList Three-dimensional bone shape reconstruction is a fundamental step for any subject-specific musculo-skeletal model. Typically, medical images are processed to reconstruct bone surfaces via slice-by-slice contour identification. Freeware software packages are available, but commercial ones must be used for the necessary certification in clinics. The commercial software packages also imply expensive hardware and demanding training, but offer valuable tools. The aim of the present work is to report the performance of five commercial software packages (Mimics®, AmiraTM, D2PTM, SimplewareTM, and Segment 3D PrintTM), particularly the time to import and to create the model, the number of triangles of the mesh, and the STL file size. DICOM files of three different computed tomography scans from five different human anatomical areas were utilized for bone shape reconstruction by using each of these packages. The same operator and the same hosting hardware were used for these analyses. The computational time was found to be different between the packages analyzed, probably because of the pre-processing implied in this operation. The longer “time-to-import” observed in one software is likely due to the volume rendering during uploading. A similar number of triangles per megabyte (approximately 20 thousand) was observed for the five commercial packages. The present work showed the good performance of these software packages, with the main features being better than those analyzed previously in freeware packages.
Author Durante, Stefano
Marcelli, Emanuela
Bortolani, Barbara
Cercenelli, Laura
Belvedere, Claudio
Ortolani, Maurizio
Matsiushevich, Katsiaryna
Leardini, Alberto
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SubjectTerms additive manufacturing
bone models
Bones
Data collection
DICOM
Exports
Freeware
image segmentation
Medical imaging
musculo-skeletal modeling
Orthopedics
Software packages
STL file
Transplants & implants
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Title Comparison of Bone Segmentation Software over Different Anatomical Parts
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https://doaj.org/article/6c4e362ce451412fb3df0b9d9631ffc1
Volume 12
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