PurposeSimultaneous multislice (SMS) acquisitions play an important role in the challenge of increasing single-shot imaging speed. We show that sensitivity encoding in two spatial dimensions (two-dimensional sensitivity encoding [2D-SENSE]) can be used to reconstruct SMS acquisitions with periodic but otherwise arbitrary undersampling patterns. Theory and MethodsBy adopting a 3D k-space representation of the SMS sampling process, the accelerated in-plane and slice-encoding directions form a 2D-reconstruction problem that is equivalent to volumetric controlled aliasing in parallel imaging results in higher acceleration (CAIPIRINHA). 2D-SENSE does not otherwise distinguish between standard volumetric and SMS imaging with arbitrary CAIPIRINHA ...
Simultaneous multi-slice (SMS) imaging is a popular technique for increasing acquisition speed in ec...
AbstractFunctional magnetic resonance imaging (fMRI) studies that require high-resolution whole-brai...
<p>Two reconstruction algorithms namely, generalized auto-calibrating partially parallel acquisition...
PurposeSimultaneous multislice (SMS) acquisitions play an important role in the challenge of increas...
PURPOSE: Simultaneous multislice (SMS) acquisitions have recently received much attention as a means...
Simultaneous multislice imaging (SMS) using parallel image reconstruction has rapidly advanced to be...
Ultrafast functional magnetic resonance imaging (fMRI) can measure blood oxygen level dependent (BOL...
MP2RAGE T <sub>1</sub> -weighted imaging has been shown to be beneficial for various app...
PURPOSE: Sensitivity encoding (SENSE) reconstruction of multiband echo planar imaging (EPI) may caus...
<p>Image acquisition time is one of the most important considerations for magnetic resonance imaging...
To provide simultaneous multislice (SMS) EPI reconstruction with k-space implementation and robust N...
Parallel imaging methods using multi-coil receiver arrays have been shown to be effective for increa...
A novel, rapid algorithm to speed up and improve the reconstruction of sensitivity encoding (SENSE) ...
Purpose MP2RAGE T-1-weighted imaging has been shown to be beneficial for various applications, mainl...
Two imaging methods, MSSAVE (Multiple echo SubSlice AVEraging imaging), based on sub-slice averaging...
Simultaneous multi-slice (SMS) imaging is a popular technique for increasing acquisition speed in ec...
AbstractFunctional magnetic resonance imaging (fMRI) studies that require high-resolution whole-brai...
<p>Two reconstruction algorithms namely, generalized auto-calibrating partially parallel acquisition...
PurposeSimultaneous multislice (SMS) acquisitions play an important role in the challenge of increas...
PURPOSE: Simultaneous multislice (SMS) acquisitions have recently received much attention as a means...
Simultaneous multislice imaging (SMS) using parallel image reconstruction has rapidly advanced to be...
Ultrafast functional magnetic resonance imaging (fMRI) can measure blood oxygen level dependent (BOL...
MP2RAGE T <sub>1</sub> -weighted imaging has been shown to be beneficial for various app...
PURPOSE: Sensitivity encoding (SENSE) reconstruction of multiband echo planar imaging (EPI) may caus...
<p>Image acquisition time is one of the most important considerations for magnetic resonance imaging...
To provide simultaneous multislice (SMS) EPI reconstruction with k-space implementation and robust N...
Parallel imaging methods using multi-coil receiver arrays have been shown to be effective for increa...
A novel, rapid algorithm to speed up and improve the reconstruction of sensitivity encoding (SENSE) ...
Purpose MP2RAGE T-1-weighted imaging has been shown to be beneficial for various applications, mainl...
Two imaging methods, MSSAVE (Multiple echo SubSlice AVEraging imaging), based on sub-slice averaging...
Simultaneous multi-slice (SMS) imaging is a popular technique for increasing acquisition speed in ec...
AbstractFunctional magnetic resonance imaging (fMRI) studies that require high-resolution whole-brai...
<p>Two reconstruction algorithms namely, generalized auto-calibrating partially parallel acquisition...