MyoNet: Deep Learning-Based Myocardial Strain Quantification from Cine Cardiac MRI

To develop and assess MyoNet, a deep learning (DL)-based network for measuring myocardial regional function from cine cardiac magnetic resonance (CMR) images, and compare its efficacy with ResMyoNet as an efficient alternative to SinMod-derived reference. MyoNet was tested alongside ResMyoNet on datasets from Dahl salt-sensitive rat models undergoing radiation therapy (RT). Both networks were designed to extract displacement maps from cine images, were specifically optimized for detailed myocardial deformation, employed advanced convolution operations with alternating kernel sizes for spatial and temporal analysis, and robust loss functions. MyoNet demonstrated superior performance in myocardial strain measurement, achieving high consistency with the SinMod-derived reference strains. It outperformed ResMyoNet, achieving higher performance metrics, including SSIM of 0.961 and 0.960, ICC of 0.973 and 0.975, and Pearson CC of 0.973 and 0.953 for circumferential (Ecc) and radial (Err) strains, respectively. Its accuracy and efficiency in generating strain measurements were validated through comprehensive statistical analyses. MyoNet offers a significant advancement in myocardial strain analysis from cine CMR images, potentially revolutionizing cardiac imaging in pre-clinical studies. Its ability to provide detailed and reliable measurements positions it as a valuable tool for clinical applications, particularly in monitoring the cardiac health of cancer patients.

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Publication Details

Journal
Bioengineering
Published
2026-03-07
DOI
https://doi.org/10.3390/bioengineering13030310
Primary Topic
Cardiovascular Function and Risk Factors
Type
article
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article

MyoNet: Deep Learning-Based Myocardial Strain Quantification from Cine Cardiac MRI

Carmen Bergom, Andrew S. Nencka, Patrick Clarysse, Pierre Croisille et al.
Bioengineering
Cardiovascular Function and Risk Factors
article

MyoNet: Deep Learning-Based Myocardial Strain Quantification from Cine Cardiac MRI

Carmen Bergom, Andrew S. Nencka, Patrick Clarysse, Pierre Croisille, El-Sayed Ibrahim, Dayeong An
article en

Abstract

To develop and assess MyoNet, a deep learning (DL)-based network for measuring myocardial regional function from cine cardiac magnetic resonance (CMR) images, and compare its efficacy with ResMyoNet as an efficient alternative to SinMod-derived reference. MyoNet was tested alongside ResMyoNet on datasets from Dahl salt-sensitive rat models undergoing radiation therapy (RT). Both networks were designed to extract displacement maps from cine images, were specifically optimized for detailed myocardial deformation, employed advanced convolution operations with alternating kernel sizes for spatial and temporal analysis, and robust loss functions. MyoNet demonstrated superior performance in myocardial strain measurement, achieving high consistency with the SinMod-derived reference strains. It outperformed ResMyoNet, achieving higher performance metrics, including SSIM of 0.961 and 0.960, ICC of 0.973 and 0.975, and Pearson CC of 0.973 and 0.953 for circumferential (Ecc) and radial (Err) strains, respectively. Its accuracy and efficiency in generating strain measurements were validated through comprehensive statistical analyses. MyoNet offers a significant advancement in myocardial strain analysis from cine CMR images, potentially revolutionizing cardiac imaging in pre-clinical studies. Its ability to provide detailed and reliable measurements positions it as a valuable tool for clinical applications, particularly in monitoring the cardiac health of cancer patients.

BioengineeringVol. 13(3)
Northwestern University (US), Medical College of Wisconsin (US), Washington University in St. Louis (US), Centre de Recherche en Acquisition et Traitement de l'Image pour la Santé (FR)
Good health and well-being
Openalex Percentile: Top 37%
Cardiovascular Function and Risk Factors
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MyoNet: Deep Learning-Based Myocardial Strain Quantification from Cine Cardiac MRI — Carmen Bergom, Andrew S. Nencka, et al. · Bioengineering (2026) | TGRS Research Map | TGRS