PURPOSE: The goal of the present study was to use a three-dimensional (3D) gradient echo volume in combination with a fat-selective excitation as a 3D motion navigator (3D FatNav) for retrospective correction of microscopic head motion during high-resolution 3D structural scans of extended duration. The fat excitation leads to a 3D image that is itself sparse, allowing high parallel imaging acceleration factors - with the additional advantage of a minimal disturbance of the water signal used for the host sequence. METHODS: A 3D FatNav was inserted into two structural protocols: an inversion-prepared gradient echo at 0.33 × 0.33 × 1.00 mm resolution and a turbo spin echo at 600 μm isotropic resolution. RESULTS: Motion estimation was possible...
Purpose: To develop a novel approach for head motion and B0 field monitoring based on tracking Disc...
Imaging the fetal brain in utero is challenging due to the unpredictable motion of the fetus. Althou...
Purpose: Respiratory motion‐compensated (MC) 3D cardiac fat‐water imaging at 7T. Methods: Free‐brea...
PURPOSE: The goal of the present study was to use a three-dimensional (3D) gradient echo volume in c...
PURPOSE: To investigate the effect of spatial resolution and parallel imaging acceleration factor on...
PURPOSE A 3D fat-navigator (3D FatNavs)-based retrospective motion correction is an elegant approac...
© 2016 Purpose To develop and evaluate a rapid spherical navigator echo (SNAV) motion correction tec...
Magnetic resonance resonance (MRI) is a widely used modality to obtain in vivo tissue information. C...
PURPOSE: To develop a novel approach for head motion and B0 field monitoring based on tracking discr...
Purpose: Fast low-angle shot (FLASH) imaging is widely used in dynamic contrast-enhanced magnetic re...
PURPOSE: Quantitative assessment of prospective motion correction (PMC) capability at 7T MRI for com...
Purpose/Introduction: One of the main goals at ultra-high magnetic fields is to take advantage of th...
Purpose This study investigated the artifacts arising from different types of head motion in brain ...
© 2019 Institute of Physics and Engineering in Medicine. Integrated positron emission tomography and...
Arterial spin labeling is a noninvasive technique that can quantitatively measure cerebral blood flo...
Purpose: To develop a novel approach for head motion and B0 field monitoring based on tracking Disc...
Imaging the fetal brain in utero is challenging due to the unpredictable motion of the fetus. Althou...
Purpose: Respiratory motion‐compensated (MC) 3D cardiac fat‐water imaging at 7T. Methods: Free‐brea...
PURPOSE: The goal of the present study was to use a three-dimensional (3D) gradient echo volume in c...
PURPOSE: To investigate the effect of spatial resolution and parallel imaging acceleration factor on...
PURPOSE A 3D fat-navigator (3D FatNavs)-based retrospective motion correction is an elegant approac...
© 2016 Purpose To develop and evaluate a rapid spherical navigator echo (SNAV) motion correction tec...
Magnetic resonance resonance (MRI) is a widely used modality to obtain in vivo tissue information. C...
PURPOSE: To develop a novel approach for head motion and B0 field monitoring based on tracking discr...
Purpose: Fast low-angle shot (FLASH) imaging is widely used in dynamic contrast-enhanced magnetic re...
PURPOSE: Quantitative assessment of prospective motion correction (PMC) capability at 7T MRI for com...
Purpose/Introduction: One of the main goals at ultra-high magnetic fields is to take advantage of th...
Purpose This study investigated the artifacts arising from different types of head motion in brain ...
© 2019 Institute of Physics and Engineering in Medicine. Integrated positron emission tomography and...
Arterial spin labeling is a noninvasive technique that can quantitatively measure cerebral blood flo...
Purpose: To develop a novel approach for head motion and B0 field monitoring based on tracking Disc...
Imaging the fetal brain in utero is challenging due to the unpredictable motion of the fetus. Althou...
Purpose: Respiratory motion‐compensated (MC) 3D cardiac fat‐water imaging at 7T. Methods: Free‐brea...