DAM: Degradation-Aware Model for Ultrasound Image Quality Assessment

One of the core challenges in ultrasound image quality assessment (IQA) is the entanglement of semantic content and quality-related information, such as blurring and shadows. Insufficient attention to the latter can easily lead to biased IQA results. Furthermore, fine-grained quality inconsistencies, i.e., subtle variations in ultrasound images that can impact quality interpretations, may further complicate the IQA tasks. To address these challenges, we propose a novel degradation-aware model (DAM) for the ultrasound IQA, which effectively perceives various and subtle variations of quality patterns, accurately assessing the quality of ultrasound images. The advanced degradation-derived augmentation (DDA) in DAM incorporates degradations that clinicians may focus on during IQA into the synthesis of appearance changes, promoting the disentanglement of quality-related representations from semantic contents. Subsequently, we present fine-grained degradation learning (FGDL), which encourages distinctions between image versions with diminishing quality inconsistencies, boosting the awareness of quality nuances from easy to hard for better ultrasound IQA performance. A universal boundary acquisition operator (UBAO) is also developed to suppress interferences from redundant information, achieving the standardization of ultrasound images from various devices. Extensive experimental results on an in-house ultrasound dataset demonstrate that DAM outperforms 14 baseline methods, achieving a PLCC of 0.760 and an SROCC of 0.766. The code can be available at this URL.

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Publication Details

Journal
IEEE Journal of Biomedical and Health Informatics
Published
2025-05-22
DOI
https://doi.org/10.1109/jbhi.2025.3572459
Primary Topic
Industrial Vision Systems and Defect Detection
Type
article
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article

DAM: Degradation-Aware Model for Ultrasound Image Quality Assessment

Guangquan Zhou, Tuo Liu, Faqin Lv, Xiaoxun Ma et al.
IEEE Journal of Biomedical and Health Informatics
Industrial Vision Systems and Defect Detection
article

DAM: Degradation-Aware Model for Ultrasound Image Quality Assessment

Guangquan Zhou, Tuo Liu, Faqin Lv, Xiaoxun Ma, Xuan Zhang, Yang Chen, Shuang Chen, Ping Zhou, Xuejuan Wang
article en

Abstract

One of the core challenges in ultrasound image quality assessment (IQA) is the entanglement of semantic content and quality-related information, such as blurring and shadows. Insufficient attention to the latter can easily lead to biased IQA results. Furthermore, fine-grained quality inconsistencies, i.e., subtle variations in ultrasound images that can impact quality interpretations, may further complicate the IQA tasks. To address these challenges, we propose a novel degradation-aware model (DAM) for the ultrasound IQA, which effectively perceives various and subtle variations of quality patterns, accurately assessing the quality of ultrasound images. The advanced degradation-derived augmentation (DDA) in DAM incorporates degradations that clinicians may focus on during IQA into the synthesis of appearance changes, promoting the disentanglement of quality-related representations from semantic contents. Subsequently, we present fine-grained degradation learning (FGDL), which encourages distinctions between image versions with diminishing quality inconsistencies, boosting the awareness of quality nuances from easy to hard for better ultrasound IQA performance. A universal boundary acquisition operator (UBAO) is also developed to suppress interferences from redundant information, achieving the standardization of ultrasound images from various devices. Extensive experimental results on an in-house ultrasound dataset demonstrate that DAM outperforms 14 baseline methods, achieving a PLCC of 0.760 and an SROCC of 0.766. The code can be available at this URL.

IEEE Journal of Biomedical and Health InformaticsVol. 29(11)
Chinese PLA General Hospital (CN), People's Liberation Army No. 150 Hospital (CN), Southeast University (CN)
Climate action
Openalex Percentile: Top 85%
Industrial Vision Systems and Defect Detection
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