Aller au contenu principal
Accès ouvert déclaré 2026 article

Deep learning-based Wilms tumor segmentation to create 3D models for surgical planning: Implementation in the clinical workflow

1Citations signalées, ce qui n’est pas une note de qualité
2Institutions déclarées
1Pays d’affiliation déclarés

Rattachement africain : nl. Niveau de preuve : code pays fourni par la source.

Le résumé fourni par la source

BACKGROUND AND AIM: Creating 3D models based on pre-operative MRI of patients with a Wilms tumor (WT) can aid surgical planning. However, creating these models requires manual delineation (segmentation) of the MRI imaging. Deep learning can automate this, but most validations of these segmentation methods are retrospective. This article prospective evaluation of a WT segmentation method in a clinical workflow aimed at creating 3D models for surgical planning. METHODS: A deep learning-based segmentation method was developed and retrospectively validated on a dataset of 56 patients. This method, based on nnU-Net, segmented both kidney and tumor and was implemented within the current clinical workflow. It was tested prospectively on 10 consecutive patients with WT. The performance of this method was quantified using the Dice score between the automated and corrected segmentations, the time required for the various steps of the clinical workflow and an analysis of segmentation errors. RESULTS: In 2/10 patients the automated segmentation was sufficient to be used directly. In 8/10 patients the automated segmentation needed corrections (with a median correction time of 11 min). The median Dice score for kidney was 1.00 (range: 0.58-1.00) and for tumor 0.98 (range: 0.00-1.00). The segmentation errors identified most often were an under-segmentation of tumor borders (n = 3) and the incorrect identification of the tumor/kidney border (n = 3). CONCLUSION: The implementation of an automated segmentation method for creating 3D models of patients with a WT is feasible in current clinical workflows. In 20% of the patients, no corrections were needed and for most other patients, corrections could be applied in less than 15 min. CLINICAL TRIAL REGISTRATION: None.

Ce résumé expose les affirmations des auteurs. BNTIC ne l’interprète pas comme une validation indépendante des résultats.

Le contrôle bibliographique ouvert

DOI retrouvé dans Crossref DOI retrouvé ; titre concordant.

Titre Crossref
Deep learning-based Wilms tumor segmentation to create 3D models for surgical planning: Implementation in the clinical workflow
Date Crossref
01/07/2026
Éditeur
Elsevier BV
Type
journal-article

Ce recoupement confirme des métadonnées liées au DOI. Il ne confirme ni la méthode ni les conclusions de l’étude, et il ne compte pas comme une seconde source scientifique indépendante.

Les institutions déclarées

Une affiliation ne permet pas de déduire la nationalité d’un auteur.

Les sujets associés

AI in cancer detectionSurgical Simulation and TrainingArtificial Intelligence in Healthcare and Education

BNTIC News n’est pas le producteur de ces données. Les publications sont interrogées à la demande dans Crossref, OpenAIRE, DOAJ, Europe PMC, HAL, DataCite, AfricArXiv, ROR et la Banque mondiale, sans clé d’accès. OpenAlex reste optionnel. Aucun service payant n’est nécessaire et aucune donnée externe n’est enregistrée en base. Consulter les sources et leurs limites.