Multi‐planar 3D knee MRI segmentation via UNet inspired architectures

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Standard

Multi‐planar 3D knee MRI segmentation via UNet inspired architectures. / Sengar, Sandeep Singh; Meulengracht, Christopher; Boesen, Mikael Ploug; Overgaard, Anders Føhrby; Gudbergsen, Henrik; Nybing, Janus Damm; Perslev, Mathias; Dam, Erik Bjørnager.

I: International Journal of Imaging Systems and Technology, Bind 33, Nr. 3, 2023, s. 985-998.

Publikation: Bidrag til tidsskriftTidsskriftartikelForskningfagfællebedømt

Harvard

Sengar, SS, Meulengracht, C, Boesen, MP, Overgaard, AF, Gudbergsen, H, Nybing, JD, Perslev, M & Dam, EB 2023, 'Multi‐planar 3D knee MRI segmentation via UNet inspired architectures', International Journal of Imaging Systems and Technology, bind 33, nr. 3, s. 985-998. https://doi.org/10.1002/ima.22836

APA

Sengar, S. S., Meulengracht, C., Boesen, M. P., Overgaard, A. F., Gudbergsen, H., Nybing, J. D., Perslev, M., & Dam, E. B. (2023). Multi‐planar 3D knee MRI segmentation via UNet inspired architectures. International Journal of Imaging Systems and Technology, 33(3), 985-998. https://doi.org/10.1002/ima.22836

Vancouver

Sengar SS, Meulengracht C, Boesen MP, Overgaard AF, Gudbergsen H, Nybing JD o.a. Multi‐planar 3D knee MRI segmentation via UNet inspired architectures. International Journal of Imaging Systems and Technology. 2023;33(3):985-998. https://doi.org/10.1002/ima.22836

Author

Sengar, Sandeep Singh ; Meulengracht, Christopher ; Boesen, Mikael Ploug ; Overgaard, Anders Føhrby ; Gudbergsen, Henrik ; Nybing, Janus Damm ; Perslev, Mathias ; Dam, Erik Bjørnager. / Multi‐planar 3D knee MRI segmentation via UNet inspired architectures. I: International Journal of Imaging Systems and Technology. 2023 ; Bind 33, Nr. 3. s. 985-998.

Bibtex

@article{d3b3ae08891947b5b58682abaa4e881d,
title = "Multi‐planar 3D knee MRI segmentation via UNet inspired architectures",
abstract = "The UNet has become the golden standard method for the segmentation of 2D medical images that any new method must be validated against. In recent years, a number of variations to the seminal UNet have been proposed with promising results in the papers introducing them. However, there is no clear consensus if any of these architectures generalize as well and the UNet currently remains the methodological golden standard. For the segmentation of 3D scans, UNet-inspired methods are also dominant, but there is a larger variety across applications. By evaluating the architectures in a different dimensionality, embedded in a different method, and for a different task, we aimed to evaluate if any of these UNet alternatives are promising as a new golden standard that generalizes even better than the UNet. The purpose of this study was to compare UNet inspired models for generalized 3D segmentation. To efficiently segment the 3D scans, we employed each UNet variant architecture as the central 2D segmentation core in the multi-planar UNet 3D segmentation method that previously demonstrated excellent generalization in the MICCAI Segmentation Decathlon. It would strongly support a claim of generalizability, if a promising UNet-variant consistently outperforms the UNet in this quite different setting. The experimental results show that the multi-planar-based UNet2+ (MPUNet2+) method outperforms other variants including the original multi-planar UNet (MPUNet).",
author = "Sengar, {Sandeep Singh} and Christopher Meulengracht and Boesen, {Mikael Ploug} and Overgaard, {Anders F{\o}hrby} and Henrik Gudbergsen and Nybing, {Janus Damm} and Mathias Perslev and Dam, {Erik Bj{\o}rnager}",
year = "2023",
doi = "10.1002/ima.22836",
language = "English",
volume = "33",
pages = "985--998",
journal = "International Journal of Imaging Systems and Technology",
issn = "0899-9457",
publisher = "Wiley",
number = "3",

}

RIS

TY - JOUR

T1 - Multi‐planar 3D knee MRI segmentation via UNet inspired architectures

AU - Sengar, Sandeep Singh

AU - Meulengracht, Christopher

AU - Boesen, Mikael Ploug

AU - Overgaard, Anders Føhrby

AU - Gudbergsen, Henrik

AU - Nybing, Janus Damm

AU - Perslev, Mathias

AU - Dam, Erik Bjørnager

PY - 2023

Y1 - 2023

N2 - The UNet has become the golden standard method for the segmentation of 2D medical images that any new method must be validated against. In recent years, a number of variations to the seminal UNet have been proposed with promising results in the papers introducing them. However, there is no clear consensus if any of these architectures generalize as well and the UNet currently remains the methodological golden standard. For the segmentation of 3D scans, UNet-inspired methods are also dominant, but there is a larger variety across applications. By evaluating the architectures in a different dimensionality, embedded in a different method, and for a different task, we aimed to evaluate if any of these UNet alternatives are promising as a new golden standard that generalizes even better than the UNet. The purpose of this study was to compare UNet inspired models for generalized 3D segmentation. To efficiently segment the 3D scans, we employed each UNet variant architecture as the central 2D segmentation core in the multi-planar UNet 3D segmentation method that previously demonstrated excellent generalization in the MICCAI Segmentation Decathlon. It would strongly support a claim of generalizability, if a promising UNet-variant consistently outperforms the UNet in this quite different setting. The experimental results show that the multi-planar-based UNet2+ (MPUNet2+) method outperforms other variants including the original multi-planar UNet (MPUNet).

AB - The UNet has become the golden standard method for the segmentation of 2D medical images that any new method must be validated against. In recent years, a number of variations to the seminal UNet have been proposed with promising results in the papers introducing them. However, there is no clear consensus if any of these architectures generalize as well and the UNet currently remains the methodological golden standard. For the segmentation of 3D scans, UNet-inspired methods are also dominant, but there is a larger variety across applications. By evaluating the architectures in a different dimensionality, embedded in a different method, and for a different task, we aimed to evaluate if any of these UNet alternatives are promising as a new golden standard that generalizes even better than the UNet. The purpose of this study was to compare UNet inspired models for generalized 3D segmentation. To efficiently segment the 3D scans, we employed each UNet variant architecture as the central 2D segmentation core in the multi-planar UNet 3D segmentation method that previously demonstrated excellent generalization in the MICCAI Segmentation Decathlon. It would strongly support a claim of generalizability, if a promising UNet-variant consistently outperforms the UNet in this quite different setting. The experimental results show that the multi-planar-based UNet2+ (MPUNet2+) method outperforms other variants including the original multi-planar UNet (MPUNet).

U2 - 10.1002/ima.22836

DO - 10.1002/ima.22836

M3 - Journal article

VL - 33

SP - 985

EP - 998

JO - International Journal of Imaging Systems and Technology

JF - International Journal of Imaging Systems and Technology

SN - 0899-9457

IS - 3

ER -

ID: 330740826