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arXiv · 2511.10412

3DFETUS: Deep Learning-Based Standardization of Facial Planes in 3D Ultrasound

Alomar Antonia·Rubio Ricardo·Albaiges Gerard·Salort-Benejam Laura·Caminal Julia·Prat Maria·Rueda Carolina·Cortes Berta·Piella Gemma·Sukno Federico
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Abstract

The automatic localization and standardization of anatomical planes in 3D medical imaging remains a challenging problem due to variability in object pose, appearance, and image quality. In 3D ultrasound, these challenges are exacerbated by speckle noise and limited contrast, particularly in fetal imaging. To address these challenges in the context of facial assessment, we present: 1) GT++, a robust algorithm that estimates standard facial planes from 3D US volumes using annotated anatomical landmarks; and 2) 3DFETUS, a deep learning model that automates and standardizes their localization in 3D fetal US volumes. We evaluated our methods both qualitatively, through expert clinical review, and quantitatively. The proposed approach achieved a mean translation error of 3.21 $\pm$ 1.98mm and a mean rotation error of 5.31 $\pm$ 3.945$^\circ$ per plane, outperforming other state-of-the-art methods on 3D US volumes. Clinical assessments further confirmed the effectiveness of both GT++ and 3DFETUS, demonstrating statistically significant improvements in plane estimation accuracy.

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Alomar Antonia, Rubio Ricardo, Albaiges Gerard, Salort-Benejam Laura, Caminal Julia, Prat Maria, Rueda Carolina, Cortes Berta, Piella Gemma, Sukno Federico. 2025-12-22. 3DFETUS: Deep Learning-Based Standardization of Facial Planes in 3D Ultrasound. https://arxiv.org/abs/2511.10412

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