TY - JOUR
T1 - VBVT-Net
T2 - VOI-Based VVBP-Tensor Network for High-Attenuation Artifact Suppression in Digital Breast Tomosynthesis Imaging
AU - Zhu, Manman
AU - Wang, Zidan
AU - Wang, Chen
AU - Zeng, Cuidie
AU - Zeng, Dong
AU - Ma, Jianhua
AU - Wang, Yongbo
N1 - Publisher Copyright:
© 2025 IEEE.
PY - 2025
Y1 - 2025
N2 - High-attenuation (HA) artifacts may lead to obscured subtle lesions and lesion over-estimation in digital breast tomosynthesis (DBT) imaging. High-attenuation artifact suppression (HAAS) is vital for widespread DBT applications in clinic. The conventional HAAS methods usually rely on the segmentation accuracy of HA objects and manual weighting schemes, without considering the geometry information in DBT reconstruction. And the global weighted strategy designed for HA artifacts may decrease the resolution in low-contrast soft-tissue regions. Moreover, the view-by-view backprojection tensor (VVBP-Tensor) domain has recently developed as a new intermediary domain that contains the lossless information in projection domain and the structural details in image domain. Therefore, we propose a VOI-Based VVBP-Tensor Network (VBVT-Net) for HAAS task in DBT imaging, which learns a local implicit weighted strategy based on the analytical FDK reconstruction mechanism. Specifically, the VBVT-Net method incorporates a volume of interest (VOI) recognition sub-network and a HAAS sub-network. The VOI recognition sub-network automatically extracts all 4D VVBP-Tensor patches containing HA artifacts. The HAAS sub-network reduces HA artifacts in these 4D VVBP-Tensor patches by leveraging the ray-trace backprojection features and extra neighborhood information. All results on four datasets demonstrate that the proposed VBVT-Net method could accurately detect HA regions, effectively reduce HA artifacts and simultaneously preserve structures in soft-tissue background regions. The proposed VBVT-Net method has a good interpretability as a general variant of the weighted FDK algorithm, which is potential to be applied in the next generation DBT prototype system in the future.
AB - High-attenuation (HA) artifacts may lead to obscured subtle lesions and lesion over-estimation in digital breast tomosynthesis (DBT) imaging. High-attenuation artifact suppression (HAAS) is vital for widespread DBT applications in clinic. The conventional HAAS methods usually rely on the segmentation accuracy of HA objects and manual weighting schemes, without considering the geometry information in DBT reconstruction. And the global weighted strategy designed for HA artifacts may decrease the resolution in low-contrast soft-tissue regions. Moreover, the view-by-view backprojection tensor (VVBP-Tensor) domain has recently developed as a new intermediary domain that contains the lossless information in projection domain and the structural details in image domain. Therefore, we propose a VOI-Based VVBP-Tensor Network (VBVT-Net) for HAAS task in DBT imaging, which learns a local implicit weighted strategy based on the analytical FDK reconstruction mechanism. Specifically, the VBVT-Net method incorporates a volume of interest (VOI) recognition sub-network and a HAAS sub-network. The VOI recognition sub-network automatically extracts all 4D VVBP-Tensor patches containing HA artifacts. The HAAS sub-network reduces HA artifacts in these 4D VVBP-Tensor patches by leveraging the ray-trace backprojection features and extra neighborhood information. All results on four datasets demonstrate that the proposed VBVT-Net method could accurately detect HA regions, effectively reduce HA artifacts and simultaneously preserve structures in soft-tissue background regions. The proposed VBVT-Net method has a good interpretability as a general variant of the weighted FDK algorithm, which is potential to be applied in the next generation DBT prototype system in the future.
KW - High-attenuation artifact suppression
KW - deep learning
KW - digital breast tomosynthesis
KW - object detection
KW - view-by-view backprojection tensor
UR - https://www.scopus.com/pages/publications/85214670920
U2 - 10.1109/TMI.2024.3522242
DO - 10.1109/TMI.2024.3522242
M3 - 文章
C2 - 40030817
AN - SCOPUS:85214670920
SN - 0278-0062
VL - 44
SP - 1953
EP - 1968
JO - IEEE Transactions on Medical Imaging
JF - IEEE Transactions on Medical Imaging
IS - 4
ER -