From Ultrasound Image Collection to De-identification and Re-identification: A Practical Pipeline

Many AI research initiatives consider medical images a crucial resource to improve or enhance healthcare outcomes. The lack of high-resolution real-world image datasets, detailed annotations, and clinical relevance forces researchers to use public datasets as an alternative. The latter often impacts the accuracy of results and impedes further advancements of AI in this field. Meanwhile, in limited scenarios where researchers can collect real-world data, ensuring patient privacy becomes their primary concern. To minimize the risk of private information disclosure, images must be de-identified in a way that preserves their research value. Numerous studies focusing on de-identification approaches are available in the literature. However, there are often gaps or missing points in creating a real valuable dataset because simply de-identifying images is not sufficient. Creating medical image datasets for AI research projects involves many steps beyond just protecting patient identity. This study contributes to the existing research by presenting a comprehensive process for creating a clean and safe ultrasound images dataset, using real data as a basis. The authors introduce a real-world pipeline named UltraSafe, which serves as a semi-automated or automated tool that considers all the necessary steps, such as on-site ultrasound data collection from a private clinic, data cleaning, annotation, de-identification, and re-identification.

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Publication Details

Journal
WSEAS TRANSACTIONS ON COMPUTER RESEARCH
Published
2025-10-16
DOI
https://doi.org/10.37394/232018.2025.13.57
Primary Topic
AI in cancer detection
Type
article
Field-Weighted Citation Impact
0.00
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article

From Ultrasound Image Collection to De-identification and Re-identification: A Practical Pipeline

Ilta Bylykbashi, Kozeta Sevrani, Hafsa Laçi
WSEAS TRANSACTIONS ON COMPUTER RESEARCH
AI in cancer detection
article

From Ultrasound Image Collection to De-identification and Re-identification: A Practical Pipeline

Ilta Bylykbashi, Kozeta Sevrani, Hafsa Laçi
article en

Abstract

Many AI research initiatives consider medical images a crucial resource to improve or enhance healthcare outcomes. The lack of high-resolution real-world image datasets, detailed annotations, and clinical relevance forces researchers to use public datasets as an alternative. The latter often impacts the accuracy of results and impedes further advancements of AI in this field. Meanwhile, in limited scenarios where researchers can collect real-world data, ensuring patient privacy becomes their primary concern. To minimize the risk of private information disclosure, images must be de-identified in a way that preserves their research value. Numerous studies focusing on de-identification approaches are available in the literature. However, there are often gaps or missing points in creating a real valuable dataset because simply de-identifying images is not sufficient. Creating medical image datasets for AI research projects involves many steps beyond just protecting patient identity. This study contributes to the existing research by presenting a comprehensive process for creating a clean and safe ultrasound images dataset, using real data as a basis. The authors introduce a real-world pipeline named UltraSafe, which serves as a semi-automated or automated tool that considers all the necessary steps, such as on-site ultrasound data collection from a private clinic, data cleaning, annotation, de-identification, and re-identification.

WSEAS TRANSACTIONS ON COMPUTER RESEARCHVol. 13
University of Medicine Tirana (AL), University of Tirana (AL)
Openalex Percentile: Top 85%
AI in cancer detection
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