4.7 Article

PLOSL: Population learning followed by one shot learning pulmonary image registration using tissue volume preserving and vesselness constraints

Journal

MEDICAL IMAGE ANALYSIS
Volume 79, Issue -, Pages -

Publisher

ELSEVIER
DOI: 10.1016/j.media.2022.102434

Keywords

Deep learning; Transfer learning; Image registration; Convolutional encoder-decoder network

Funding

  1. NIH [HL142625]
  2. Carver Charitable Trust
  3. NIH/NHLBI [U01 HL137880, U24 HL141762, HHSN268200900013C, HHSN268200900014C, HHSN268200900015C, HHSN268200900016C, HHSN268200900017C, HHSN268200900018C, HHSN268200900019C, HHSN268200900020C]

Ask authors/readers for more resources

This paper presents the PLOSL pulmonary image registration method, which combines the advantages of population learning and one-shot learning to achieve fast and efficient registration of lung images. By using tissue volume preserving and vesselness constraints for image matching, PLOSL is able to accurately extract lung shape features and achieve good registration results on multiple datasets.
This paper presents the Population Learning followed by One Shot Learning (PLOSL) pulmonary image registration method. PLOSL is a fast unsupervised learning-based framework for 3D-CT pulmonary image registration algorithm based on combining population learning (PL) and one-shot learning (OSL). The PLOSL image registration has the advantages of the PL and OSL approaches while reducing their respective drawbacks. The advantages of PLOSL include improved performance over PL, substantially reducing OSL training time and reducing the likelihood of OSL getting stuck in local minima. PLOSL pulmonary image registration uses tissue volume preserving and vesselness constraints for registration of inspirationto-expiration and expiration-to-inspiration pulmonary CT images. A coarse-to-fine convolution encoderdecoder CNN architecture is used to register large and small shape features. During training, the sum of squared tissue volume difference (SSTVD) compensates for intensity differences between inspiration and expiration computed tomography (CT) images and the sum of squared vesselness measure difference (SSVMD) helps match the lung vessel tree. Results show that the PLOSL (SSTVD+SSVMD) algorithm achieved subvoxel landmark error while preserving pulmonary topology on the SPIROMICS data set, the public DIR-LAB COPDGene and 4DCT data sets. (c) 2022 The Authors. Published by Elsevier B.V. This is an open access article under the CC BY license (http://creativecommons.org/licenses/by/4.0/)

Authors

I am an author on this paper
Click your name to claim this paper and add it to your profile.

Reviews

Primary Rating

4.7
Not enough ratings

Secondary Ratings

Novelty
-
Significance
-
Scientific rigor
-
Rate this paper

Recommended

No Data Available
No Data Available