SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation

Publikation: Working paperPreprintForskning

Standard

SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation. / Liu, Renfei; Lauze, Francois Bernard; Bekkers, Erik J. ; Erleben, Kenny; Darkner, Sune.

Research Square, 2023.

Publikation: Working paperPreprintForskning

Harvard

Liu, R, Lauze, FB, Bekkers, EJ, Erleben, K & Darkner, S 2023 'SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation' Research Square.

APA

Liu, R., Lauze, F. B., Bekkers, E. J., Erleben, K., & Darkner, S. (2023). SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation. Research Square.

Vancouver

Liu R, Lauze FB, Bekkers EJ, Erleben K, Darkner S. SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation. Research Square. 2023.

Author

Liu, Renfei ; Lauze, Francois Bernard ; Bekkers, Erik J. ; Erleben, Kenny ; Darkner, Sune. / SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation. Research Square, 2023.

Bibtex

@techreport{d6cfd1a49ffc41afa94ddda08f437501,
title = "SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation",
abstract = "We present an SE(3) Group Convolutional Neural Network along with a series of networks with different group actions for segmentation of Diffusion Weighted Imaging data. These networks gradually incorporate group actions that are natural for this type of data, in the form of convolutions that provide equivariant transformations of the data. This knowledge provides a potentially important inductive bias and may alleviate the need for data augmentation strategies. We study the effects of these actions on the performances of the networks by training and validating them using the diffusion data from the Human Connectome project. Unlike previous works that use Fourier-based convolutions, we implement direct convolutions, which are more lightweight. We show how incorporating more actions - using the SE(3) group actions - generally improves the performances of our segmentation while limiting the number of parameters that must be learned.",
author = "Renfei Liu and Lauze, {Francois Bernard} and Bekkers, {Erik J.} and Kenny Erleben and Sune Darkner",
year = "2023",
language = "Dansk",
publisher = "Research Square",
type = "WorkingPaper",
institution = "Research Square",

}

RIS

TY - UNPB

T1 - SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation

AU - Liu, Renfei

AU - Lauze, Francois Bernard

AU - Bekkers, Erik J.

AU - Erleben, Kenny

AU - Darkner, Sune

PY - 2023

Y1 - 2023

N2 - We present an SE(3) Group Convolutional Neural Network along with a series of networks with different group actions for segmentation of Diffusion Weighted Imaging data. These networks gradually incorporate group actions that are natural for this type of data, in the form of convolutions that provide equivariant transformations of the data. This knowledge provides a potentially important inductive bias and may alleviate the need for data augmentation strategies. We study the effects of these actions on the performances of the networks by training and validating them using the diffusion data from the Human Connectome project. Unlike previous works that use Fourier-based convolutions, we implement direct convolutions, which are more lightweight. We show how incorporating more actions - using the SE(3) group actions - generally improves the performances of our segmentation while limiting the number of parameters that must be learned.

AB - We present an SE(3) Group Convolutional Neural Network along with a series of networks with different group actions for segmentation of Diffusion Weighted Imaging data. These networks gradually incorporate group actions that are natural for this type of data, in the form of convolutions that provide equivariant transformations of the data. This knowledge provides a potentially important inductive bias and may alleviate the need for data augmentation strategies. We study the effects of these actions on the performances of the networks by training and validating them using the diffusion data from the Human Connectome project. Unlike previous works that use Fourier-based convolutions, we implement direct convolutions, which are more lightweight. We show how incorporating more actions - using the SE(3) group actions - generally improves the performances of our segmentation while limiting the number of parameters that must be learned.

M3 - Preprint

BT - SE(3) Group Convolutional Neural Networks and a Study on Group Convolutions and Equivariance for DWI Segmentation

PB - Research Square

ER -

ID: 383102516