Diff-Def: Diffusion-Generated Deformation Fields for Conditional Atlases

Anatomical atlases are widely used for population studies and analysis. Conditional atlases target a specific sub-population defined via certain conditions, such as demographics or pathologies, and allow for the investigation of fine-grained anatomical differences like morphological changes associated with ageing or disease. Existing approaches use either registration-based methods that are often unable to handle large anatomical variations or generative adversarial models, which are challenging to train since they can suffer from training instabilities. Instead of generating atlases directly in as intensities, we propose using latent diffusion models to generate deformation fields, which transform a general population atlas into one representing a specific sub-population. Our approach ensures structural integrity, enhances interpretability and avoids hallucinations that may arise during direct image synthesis by generating this deformation field and regularising it using a neighbourhood of images. We compare our method to several state-of-the-art atlas generation methods using brain MR images from the UK Biobank. Our method generates highly realistic atlases with smooth transformations and high anatomical fidelity, outperforming existing baselines. We demonstrate the quality of these atlases through comprehensive evaluations, including quantitative metrics for anatomical accuracy, perceptual similarity, and qualitative analyses displaying the consistency and realism of the generated atlases.

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Publication Details

Journal
IEEE Transactions on Medical Imaging
Published
2025-08-04
DOI
https://doi.org/10.1109/tmi.2025.3595421
Citations
2
Primary Topic
Advanced Numerical Analysis Techniques
Type
article
Field-Weighted Citation Impact
2.67

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article

Diff-Def: Diffusion-Generated Deformation Fields for Conditional Atlases

Martin J. Menten, Daniel Rueckert, Sophie Starck, Vasiliki Sideri‐Lampretsa et al.
2 citations
IEEE Transactions on Medical Imaging
Advanced Numerical Analysis Techniques
2.67
article

Diff-Def: Diffusion-Generated Deformation Fields for Conditional Atlases

Martin J. Menten, Daniel Rueckert, Sophie Starck, Vasiliki Sideri‐Lampretsa, Tamara T. Mueller, Bernhard Kainz
article en
2 citations

Abstract

Anatomical atlases are widely used for population studies and analysis. Conditional atlases target a specific sub-population defined via certain conditions, such as demographics or pathologies, and allow for the investigation of fine-grained anatomical differences like morphological changes associated with ageing or disease. Existing approaches use either registration-based methods that are often unable to handle large anatomical variations or generative adversarial models, which are challenging to train since they can suffer from training instabilities. Instead of generating atlases directly in as intensities, we propose using latent diffusion models to generate deformation fields, which transform a general population atlas into one representing a specific sub-population. Our approach ensures structural integrity, enhances interpretability and avoids hallucinations that may arise during direct image synthesis by generating this deformation field and regularising it using a neighbourhood of images. We compare our method to several state-of-the-art atlas generation methods using brain MR images from the UK Biobank. Our method generates highly realistic atlases with smooth transformations and high anatomical fidelity, outperforming existing baselines. We demonstrate the quality of these atlases through comprehensive evaluations, including quantitative metrics for anatomical accuracy, perceptual similarity, and qualitative analyses displaying the consistency and realism of the generated atlases.

IEEE Transactions on Medical ImagingVol. 45(1)
TUM Klinikum (DE), Imperial College London (GB), Technical University of Munich (DE)
Deutsche Forschungsgemeinschaft, Bundesministerium für Bildung und Forschung
Climate action
Openalex Percentile: Top 11%
Advanced Numerical Analysis Techniques
2.67
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