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Image of Resolution enhancement and segmentation of polar bubbly ice micro CT scans via 3D convolutional neural network

Text

Resolution enhancement and segmentation of polar bubbly ice micro CT scans via 3D convolutional neural network

Faramarz Bagherzadeh - Personal Name; Johannes Freitag - Personal Name; Udo Frese - Personal Name; Frank Wilhelms - Personal Name;

Accurate segmentation of 3D micro CT scans is a key step in the process of analysis of the microstructure of porous materials. In polar ice core studies, the environmental effects on the firn column could be detected if the microstructure is digitized accurately. The most challenging task is to obtain the microstructure parameters of the bubbly ice section. To identify the minimum, necessary resolution, the bubbly ice micro CT scans with different resolutions (120, 60, 30, 12
) were compared object-wise via a region pairing algorithm. When the minimum resolution was found to be 60
, for generating the training/validation dataset, 4 ice core samples from a depth range of 96 to 108 meters (bubbly ice) were scanned with 120
(input images) and another time with 4 times higher resolution (30
) to build ground truth. A specific pipeline was designed with non-rigid image registration to create an accurate ground truth from 4 times higher resolution scans. Then, two SOTA deep learning models (3D-Unet and FCN) were trained and later validated to perform super-resolution segmentation by taking input of
resolution data and giving the output of binary segmented with two times higher resolution (
). Finally, the outputs of CNN models were compared with traditional rule-based and unsupervised methods on blind test data. It is observed the 3D-Unet can segment low-resolution scans with an accuracy of 96% and an f1-score of 80.8% while preserving microstructure having less than 2% error in porosity and SSA.


Availability
205551.136Perpustakaan BIG (Eksternal Harddisk)Available
Detail Information
Series Title
Applied Computing and Geoscience - Open Access
Call Number
551.136
Publisher
Amsterdam : Elsevier., 2024
Collation
13 hlm PDF, 3.950 KB
Language
Inggris
ISBN/ISSN
2590-1974
Classification
551.136
Content Type
text
Media Type
-
Carrier Type
-
Edition
Vol.23, September 2024
Subject(s)
Deep learning
Micro CT
3D image segmentation
3D unet
FCN
Ice core
Specific Detail Info
-
Statement of Responsibility
-
Other version/related

No other version available

File Attachment
  • Resolution enhancement and segmentation of polar bubbly ice micro CT scans via 3D convolutional neural network
    Accurate segmentation of 3D micro CT scans is a key step in the process of analysis of the microstructure of porous materials. In polar ice core studies, the environmental effects on the firn column could be detected if the microstructure is digitized accurately. The most challenging task is to obtain the microstructure parameters of the bubbly ice section. To identify the minimum, necessary resolution, the bubbly ice micro CT scans with different resolutions (120, 60, 30, 12 ) were compared object-wise via a region pairing algorithm. When the minimum resolution was found to be 60 , for generating the training/validation dataset, 4 ice core samples from a depth range of 96 to 108 meters (bubbly ice) were scanned with 120 (input images) and another time with 4 times higher resolution (30 ) to build ground truth. A specific pipeline was designed with non-rigid image registration to create an accurate ground truth from 4 times higher resolution scans. Then, two SOTA deep learning models (3D-Unet and FCN) were trained and later validated to perform super-resolution segmentation by taking input of resolution data and giving the output of binary segmented with two times higher resolution ( ). Finally, the outputs of CNN models were compared with traditional rule-based and unsupervised methods on blind test data. It is observed the 3D-Unet can segment low-resolution scans with an accuracy of 96% and an f1-score of 80.8% while preserving microstructure having less than 2% error in porosity and SSA.
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