Self-supervised Deep Learning for Denoising in Ultrasound Microvascular Imaging

Fuente: arXiv
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Main Authors: Huang, Lijie, Yin, Jingyi, Zhang, Jingke, Lok, U-Wai, DeRuiter, Ryan M., Jin, Jieyang, Knoll, Kate M., Petersen, Kendra E., Krier, James D., Zhu, Xiang-yang, Hesley, Gina K., Robinson, Kathryn A., Bentall, Andrew J., Atwell, Thomas D., Rule, Andrew D., Lerman, Lilach O., Chen, Shigao, Huang, Chengwu
Format: Preprint
Published: 2025
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author Huang, Lijie
Yin, Jingyi
Zhang, Jingke
Lok, U-Wai
DeRuiter, Ryan M.
Jin, Jieyang
Knoll, Kate M.
Petersen, Kendra E.
Krier, James D.
Zhu, Xiang-yang
Hesley, Gina K.
Robinson, Kathryn A.
Bentall, Andrew J.
Atwell, Thomas D.
Rule, Andrew D.
Lerman, Lilach O.
Chen, Shigao
Huang, Chengwu
author_facet Huang, Lijie
Yin, Jingyi
Zhang, Jingke
Lok, U-Wai
DeRuiter, Ryan M.
Jin, Jieyang
Knoll, Kate M.
Petersen, Kendra E.
Krier, James D.
Zhu, Xiang-yang
Hesley, Gina K.
Robinson, Kathryn A.
Bentall, Andrew J.
Atwell, Thomas D.
Rule, Andrew D.
Lerman, Lilach O.
Chen, Shigao
Huang, Chengwu
contents Ultrasound microvascular imaging (UMI) is often hindered by low signal-to-noise ratio (SNR), especially in contrast-free or deep tissue scenarios, which impairs subsequent vascular quantification and reliable disease diagnosis. To address this challenge, we propose Half-Angle-to-Half-Angle (HA2HA), a self-supervised denoising framework specifically designed for UMI. HA2HA constructs training pairs from complementary angular subsets of beamformed radio-frequency (RF) blood flow data, across which vascular signals remain consistent while noise varies. HA2HA was trained using in-vivo contrast-free pig kidney data and validated across diverse datasets, including contrast-free and contrast-enhanced data from pig kidneys, as well as human liver and kidney. An improvement exceeding 15 dB in both contrast-to-noise ratio (CNR) and SNR was observed, indicating a substantial enhancement in image quality. In addition to power Doppler imaging, denoising directly in the RF domain is also beneficial for other downstream processing such as color Doppler imaging (CDI). CDI results of human liver derived from the HA2HA-denoised signals exhibited improved microvascular flow visualization, with a suppressed noisy background. HA2HA offers a label-free, generalizable, and clinically applicable solution for robust vascular imaging in both contrast-free and contrast-enhanced UMI.
format Preprint
id arxiv_https___arxiv_org_abs_2507_05451
institution arXiv
publishDate 2025
record_format arxiv
spellingShingle Self-supervised Deep Learning for Denoising in Ultrasound Microvascular Imaging
Huang, Lijie
Yin, Jingyi
Zhang, Jingke
Lok, U-Wai
DeRuiter, Ryan M.
Jin, Jieyang
Knoll, Kate M.
Petersen, Kendra E.
Krier, James D.
Zhu, Xiang-yang
Hesley, Gina K.
Robinson, Kathryn A.
Bentall, Andrew J.
Atwell, Thomas D.
Rule, Andrew D.
Lerman, Lilach O.
Chen, Shigao
Huang, Chengwu
Image and Video Processing
Computer Vision and Pattern Recognition
Signal Processing
Ultrasound microvascular imaging (UMI) is often hindered by low signal-to-noise ratio (SNR), especially in contrast-free or deep tissue scenarios, which impairs subsequent vascular quantification and reliable disease diagnosis. To address this challenge, we propose Half-Angle-to-Half-Angle (HA2HA), a self-supervised denoising framework specifically designed for UMI. HA2HA constructs training pairs from complementary angular subsets of beamformed radio-frequency (RF) blood flow data, across which vascular signals remain consistent while noise varies. HA2HA was trained using in-vivo contrast-free pig kidney data and validated across diverse datasets, including contrast-free and contrast-enhanced data from pig kidneys, as well as human liver and kidney. An improvement exceeding 15 dB in both contrast-to-noise ratio (CNR) and SNR was observed, indicating a substantial enhancement in image quality. In addition to power Doppler imaging, denoising directly in the RF domain is also beneficial for other downstream processing such as color Doppler imaging (CDI). CDI results of human liver derived from the HA2HA-denoised signals exhibited improved microvascular flow visualization, with a suppressed noisy background. HA2HA offers a label-free, generalizable, and clinically applicable solution for robust vascular imaging in both contrast-free and contrast-enhanced UMI.
title Self-supervised Deep Learning for Denoising in Ultrasound Microvascular Imaging
topic Image and Video Processing
Computer Vision and Pattern Recognition
Signal Processing
url https://arxiv.org/abs/2507.05451