Migration of Deep Learning Models Across Ultrasound Scanners

A transfer function approach has recently proven effective for calibrating deep learning (DL) algorithms in quantitative ultrasound (QUS), addressing data shifts at both the acquisition and machine levels. Expanding on this approach, we develop a strategy to acquire the functionality of a DL model from one ultrasound machine and implement it on another in a black-box setting, in the context of QUS. This demonstrates the ease with which the functionality of a DL model can be transferred between machines. While the proposed approach can also assist regulatory bodies in comparing and approving DL models, it also highlights the security risks associated with deploying such models in a commercial scanner for clinical use. The method is a black-box unsupervised domain adaptation technique that integrates the transfer function approach with an iterative schema. It does not utilize any information related to model internals but it solely relies on the availability of an input-output interface. Additionally, we assume the availability of unlabeled data from a testing machine. This scenario could become relevant as companies begin deploying their DL functionalities for clinical use. In the experiments, we used a SonixOne and a Verasonics machine. The model was trained on SonixOne data, and its functionality was then transferred to the Verasonics machine. The proposed method successfully transferred the functionality to the Verasonics machine, achieving a remarkable 98 percent classification accuracy in a binary decision task. This study underscores the need to establish security measures prior to deploying DL models in clinical settings.

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Publication Details

Journal
IEEE Transactions on Biomedical Engineering
Published
2025-04-25
DOI
https://doi.org/10.1109/tbme.2025.3564567
Primary Topic
Flow Measurement and Analysis
Type
article
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article

Migration of Deep Learning Models Across Ultrasound Scanners

Michael L. Oelze, Ufuk Soylu, Gregory J. Czarnota, Varun Chandrasekeran
IEEE Transactions on Biomedical Engineering
Flow Measurement and Analysis
article

Migration of Deep Learning Models Across Ultrasound Scanners

Michael L. Oelze, Ufuk Soylu, Gregory J. Czarnota, Varun Chandrasekeran
article en

Abstract

A transfer function approach has recently proven effective for calibrating deep learning (DL) algorithms in quantitative ultrasound (QUS), addressing data shifts at both the acquisition and machine levels. Expanding on this approach, we develop a strategy to acquire the functionality of a DL model from one ultrasound machine and implement it on another in a black-box setting, in the context of QUS. This demonstrates the ease with which the functionality of a DL model can be transferred between machines. While the proposed approach can also assist regulatory bodies in comparing and approving DL models, it also highlights the security risks associated with deploying such models in a commercial scanner for clinical use. The method is a black-box unsupervised domain adaptation technique that integrates the transfer function approach with an iterative schema. It does not utilize any information related to model internals but it solely relies on the availability of an input-output interface. Additionally, we assume the availability of unlabeled data from a testing machine. This scenario could become relevant as companies begin deploying their DL functionalities for clinical use. In the experiments, we used a SonixOne and a Verasonics machine. The model was trained on SonixOne data, and its functionality was then transferred to the Verasonics machine. The proposed method successfully transferred the functionality to the Verasonics machine, achieving a remarkable 98 percent classification accuracy in a binary decision task. This study underscores the need to establish security measures prior to deploying DL models in clinical settings.

IEEE Transactions on Biomedical EngineeringVol. 72(11)
Sunnybrook Health Science Centre (CA), University of Illinois Urbana-Champaign (US), Health Sciences Centre (CA)
Reduced inequalities
Openalex Percentile: Top 90%
Flow Measurement and Analysis
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Migration of Deep Learning Models Across Ultrasound Scanners — Michael L. Oelze, Ufuk Soylu, et al. · IEEE Transactions on Biomedical Engineering (2025) | TGRS Research Map | TGRS