TY - JOUR
T1 - BranchLabelNet
T2 - Anatomical Human Airway Labeling Approach using a Dividing-and-Grouping Multi-Label Classification
AU - Chau, Ngan Khanh
AU - Ma, Truong Thanh
AU - Kim, Woo Jin
AU - Lee, Chang Hyun
AU - Jin, Gong Yong
AU - Chae, Kum Ju
AU - Choi, Sanghun
N1 - Publisher Copyright:
© International Federation for Medical and Biological Engineering 2024.
PY - 2024/10
Y1 - 2024/10
N2 - Anatomical airway labeling is crucial for precisely identifying airways displaying symptoms such as constriction, increased wall thickness, and modified branching patterns, facilitating the diagnosis and treatment of pulmonary ailments. This study introduces an innovative airway labeling methodology, BranchLabelNet, which accounts for the fractal nature of airways and inherent hierarchical branch nomenclature. In developing this methodology, branch-related parameters, including position vectors, generation levels, branch lengths, areas, perimeters, and more, are extracted from a dataset of 1000 chest computed tomography (CT) images. To effectively manage this intricate branch data, we employ an n-ary tree structure that captures the complicated relationships within the airway tree. Subsequently, we employ a divide-and-group deep learning approach for multi-label classification, streamlining the anatomical airway branch labeling process. Additionally, we address the challenge of class imbalance in the dataset by incorporating the Tomek Links algorithm to maintain model reliability and accuracy. Our proposed airway labeling method provides robust branch designations and achieves an impressive average classification accuracy of 95.94% across fivefold cross-validation. This approach is adaptable for addressing similar complexities in general multi-label classification problems within biomedical systems. Graphical Abstract: (Figure presented.)
AB - Anatomical airway labeling is crucial for precisely identifying airways displaying symptoms such as constriction, increased wall thickness, and modified branching patterns, facilitating the diagnosis and treatment of pulmonary ailments. This study introduces an innovative airway labeling methodology, BranchLabelNet, which accounts for the fractal nature of airways and inherent hierarchical branch nomenclature. In developing this methodology, branch-related parameters, including position vectors, generation levels, branch lengths, areas, perimeters, and more, are extracted from a dataset of 1000 chest computed tomography (CT) images. To effectively manage this intricate branch data, we employ an n-ary tree structure that captures the complicated relationships within the airway tree. Subsequently, we employ a divide-and-group deep learning approach for multi-label classification, streamlining the anatomical airway branch labeling process. Additionally, we address the challenge of class imbalance in the dataset by incorporating the Tomek Links algorithm to maintain model reliability and accuracy. Our proposed airway labeling method provides robust branch designations and achieves an impressive average classification accuracy of 95.94% across fivefold cross-validation. This approach is adaptable for addressing similar complexities in general multi-label classification problems within biomedical systems. Graphical Abstract: (Figure presented.)
KW - Airway branch labeling
KW - Divide-and-group approach
KW - Multi-label classification
KW - n-ary tree structure
UR - http://www.scopus.com/inward/record.url?scp=85193842539&partnerID=8YFLogxK
U2 - 10.1007/s11517-024-03119-7
DO - 10.1007/s11517-024-03119-7
M3 - Article
AN - SCOPUS:85193842539
SN - 0140-0118
VL - 62
SP - 3107
EP - 3122
JO - Medical and Biological Engineering and Computing
JF - Medical and Biological Engineering and Computing
IS - 10
ER -