Chun-Hao Tsai , Kai-Cheng Lin , Yen-Yu Chen , Po-Chia Chen , Yuan-Shun Lo , Tsung-Yu Ho
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引用次数: 0
Abstract
Background
Hip fractures—particularly those involving the iliac wing and ischial spine—are complex injuries that often require CT or MRI scans for accurate diagnosis. However, these imaging modalities are costly, time-consuming, and involve exposure to radiation or contrast-related risks. This study aims to develop an AI-based classification model, the Dynamic Efficient Attention Network, capable of automatically distinguishing between iliac wing and ischial spine fractures using pelvic X-ray images. The objective is to facilitate early diagnosis and reduce reliance on advanced imaging modalities.
Methods
The proposed method employs a dual-branch architecture that integrates EfficientNet-B0 with an Enhanced Depth-wise Separable Attention Block to enhance edge-region feature representation. The model was trained using pelvic X-ray images collected from China Medical University Hospital and evaluated based on accuracy, precision, recall, F1 score, and Intersection over Union.
Findings
The model achieved an accuracy of 85 % on the test dataset and demonstrated robust performance across all evaluation metrics. These findings suggest that the proposed method has the potential to function as a reliable AI-assisted diagnostic tool for the early and accurate classification of hip fractures, thereby supporting clinical decision-making and improving treatment planning.
Interpretation
Compared to existing approaches that rely on CT or MRI imaging, the proposed method demonstrates that advanced processing of X-ray images can yield clinically meaningful classification results. This underscores the potential of the proposed method as a cost-effective, efficient, and accessible diagnostic tool, especially in settings where access to advanced imaging modalities is limited.
期刊介绍:
Clinical Biomechanics is an international multidisciplinary journal of biomechanics with a focus on medical and clinical applications of new knowledge in the field.
The science of biomechanics helps explain the causes of cell, tissue, organ and body system disorders, and supports clinicians in the diagnosis, prognosis and evaluation of treatment methods and technologies. Clinical Biomechanics aims to strengthen the links between laboratory and clinic by publishing cutting-edge biomechanics research which helps to explain the causes of injury and disease, and which provides evidence contributing to improved clinical management.
A rigorous peer review system is employed and every attempt is made to process and publish top-quality papers promptly.
Clinical Biomechanics explores all facets of body system, organ, tissue and cell biomechanics, with an emphasis on medical and clinical applications of the basic science aspects. The role of basic science is therefore recognized in a medical or clinical context. The readership of the journal closely reflects its multi-disciplinary contents, being a balance of scientists, engineers and clinicians.
The contents are in the form of research papers, brief reports, review papers and correspondence, whilst special interest issues and supplements are published from time to time.
Disciplines covered include biomechanics and mechanobiology at all scales, bioengineering and use of tissue engineering and biomaterials for clinical applications, biophysics, as well as biomechanical aspects of medical robotics, ergonomics, physical and occupational therapeutics and rehabilitation.