Add to ORKGThe transition to ultra high field strengths yields advantages as increased SNR and higher BOLD contrast, but at the expense of decreased B1 and B0 homogeneity. This work presents the application of Dynamic Shim Updating (DSU) with full 3rd Order eddy-current compensation to Echo Planar Images, which are the basis for fMRI. Due to a highly accurate calibration of the pre-emphasis very fast switching of shim terms during the sequence is possible, without extending the scan time. The presented results exhibit a significant gain in image quality
AbstractWe propose a method to calculate field maps from the phase of each EPI in an fMRI time serie...
Inhomogeneities of the main magnetic field cause geometric distortion in echo-planar imaging, a meth...
Functional magnetic resonance imaging (fMRI) is most commonly based on echo-planar imaging (EPI). Wi...
The transition to ultra high field strengths yields advantages as increased SNR and higher BOLD cont...
Purpose/Introduction: The application of ultra-high static magnetic field strengths to functional MR...
Purpose To calibrate a pre-emphasis to sufficiently compensate eddy currents for application of dyna...
PURPOSE: To calibrate a pre-emphasis to sufficiently compensate eddy currents for application of dyn...
EPI allows for very fast acquisition, and is the “work horse” of conventional fMRI. To exploit the f...
EPI, the “work horse” of fMRI, is prone to artifacts, induced by B0 inhomogeneities. Therefore, soph...
Purpose/Introduction: The promising advantages resulting from a transition to ultra-high-field in MR...
Magnetic resonance imaging requires a homogeneous B0 magnetic field, however the field is often dist...
Echo planar imaging (EPI) is widely used for applications where speed and/or sensitivity are essenti...
Purpose: To develop a distortion correction method for echo planar imaging (EPI) that is able to mea...
We propose a method to calculate field maps from the phase of each EPI in an fMRI time series. These...
Purpose: To develop a distortion correction method for echo planar imaging (EPI) that is able to mea...
AbstractWe propose a method to calculate field maps from the phase of each EPI in an fMRI time serie...
Inhomogeneities of the main magnetic field cause geometric distortion in echo-planar imaging, a meth...
Functional magnetic resonance imaging (fMRI) is most commonly based on echo-planar imaging (EPI). Wi...
The transition to ultra high field strengths yields advantages as increased SNR and higher BOLD cont...
Purpose/Introduction: The application of ultra-high static magnetic field strengths to functional MR...
Purpose To calibrate a pre-emphasis to sufficiently compensate eddy currents for application of dyna...
PURPOSE: To calibrate a pre-emphasis to sufficiently compensate eddy currents for application of dyn...
EPI allows for very fast acquisition, and is the “work horse” of conventional fMRI. To exploit the f...
EPI, the “work horse” of fMRI, is prone to artifacts, induced by B0 inhomogeneities. Therefore, soph...
Purpose/Introduction: The promising advantages resulting from a transition to ultra-high-field in MR...
Magnetic resonance imaging requires a homogeneous B0 magnetic field, however the field is often dist...
Echo planar imaging (EPI) is widely used for applications where speed and/or sensitivity are essenti...
Purpose: To develop a distortion correction method for echo planar imaging (EPI) that is able to mea...
We propose a method to calculate field maps from the phase of each EPI in an fMRI time series. These...
Purpose: To develop a distortion correction method for echo planar imaging (EPI) that is able to mea...
AbstractWe propose a method to calculate field maps from the phase of each EPI in an fMRI time serie...
Inhomogeneities of the main magnetic field cause geometric distortion in echo-planar imaging, a meth...
Functional magnetic resonance imaging (fMRI) is most commonly based on echo-planar imaging (EPI). Wi...