Synthetic magnetic resonance images for domain adaptation: Application to fetal brain tissue segmentation

11/08/2021
by   Priscille de Dumast, et al.
0

The quantitative assessment of the developing human brain in utero is crucial to fully understand neurodevelopment. Thus, automated multi-tissue fetal brain segmentation algorithms are being developed, which in turn require annotated data to be trained. However, the available annotated fetal brain datasets are limited in number and heterogeneity, hampering domain adaptation strategies for robust segmentation. In this context, we use FaBiAN, a Fetal Brain magnetic resonance Acquisition Numerical phantom, to simulate various realistic magnetic resonance images of the fetal brain along with its class labels. We demonstrate that these multiple synthetic annotated data, generated at no cost and further reconstructed using the target super-resolution technique, can be successfully used for domain adaptation of a deep learning method that segments seven brain tissues. Overall, the accuracy of the segmentation is significantly enhanced, especially in the cortical gray matter, the white matter, the cerebellum, the deep gray matter and the brain stem.

READ FULL TEXT

page 2

page 4

research
10/29/2020

A comparison of automatic multi-tissue segmentation methods of the human fetal brain using the FeTA Dataset

It is critical to quantitatively analyse the developing human fetal brai...
research
09/06/2021

FaBiAN: A Fetal Brain magnetic resonance Acquisition Numerical phantom

Accurate characterization of in utero human brain maturation is critical...
research
11/25/2022

Domain generalization in fetal brain MRI segmentation with multi-reconstruction augmentation

Quantitative analysis of in utero human brain development is crucial for...
research
07/17/2018

A Fast Segmentation-free Fully Automated Approach to White Matter Injury Detection in Preterm Infants

White Matter Injury (WMI) is the most prevalent brain injury in the pret...
research
04/26/2022

Assimilation of magnetic resonance elastography data in an in silico brain model

This paper investigates a data assimilation approach for non-invasive qu...
research
05/25/2023

CACTUS: A Computational Framework for Generating Realistic White Matter Microstructure Substrates

Monte-Carlo diffusion simulations are a powerful tool for validating tis...
research
05/15/2019

Optimizing MRF-ASL Scan Design for Precise Quantification of Brain Hemodynamics using Neural Network Regression

Purpose: Arterial Spin Labeling (ASL) is a quantitative, non-invasive al...

Please sign up or login with your details

Forgot password? Click here to reset