4.7 Article

IMFSegNet: Cost-effective and objective quantification of intramuscular fat in histological sections by deep learning

Journal

COMPUTATIONAL AND STRUCTURAL BIOTECHNOLOGY JOURNAL
Volume 21, Issue -, Pages 3696-3704

Publisher

ELSEVIER
DOI: 10.1016/j.csbj.2023.07.031

Keywords

Biomedical image analysis; Intramuscular fat; Deep Learning; Explainable artificial intelligence; Muscle biopsies; H & amp; E staining

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The assessment of muscle condition is crucial in various research areas. We developed an automated method using deep learning to accurately quantify the degree of intramuscular fat (IMF) in tissue sections stained with standard H & E. Our IMFSegNet network outperformed other approaches and provided fully automated and highly accurate results.
The assessment of muscle condition is of great importance in various research areas. In particular, evaluating the degree of intramuscular fat (IMF) in tissue sections is a challenging task, which today is still mostly performed qualitatively or quantitatively by a highly subjective and error-prone manual analysis. We here realize the mission to make automated IMF analysis possible that (i) minimizes subjectivity, (ii) provides accurate and quantitative results quickly, and (iii) is cost-effective using standard hematoxylin and eosin (H & E) stained tissue sections. To address all these needs in a deep learning approach, we utilized the convolutional encoder-decoder network SegNet to train the specialized network IMFSegNet allowing to accurately quantify the spatial distribution of IMF in histological sections. Our fully automated analysis was validated on 17 H & E-stained muscle sections from individual sheep and compared to various state-of-the-art approaches. Not only does IMFSegNet outperform all other approaches, but this neural network also provides fully automated and highly accurate results utilizing the most cost-effective procedures of sample preparation and imaging. Furthermore, we shed light on the opacity of black-box approaches such as neural networks by applying an explainable artificial intelligence technique to clarify that the success of IMFSegNet actually lies in identifying the hard-to-detect IMF structures. Embedded in our open-source visual programming language JIPipe that does not require programming skills, it can be expected that IMFSegNet advances muscle condition assessment in basic research across multiple areas as well as in research fields focusing on translational clinical applications.

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