Object This work seeks to examine practical aspects of in vivo imaging when spatial encoding is performed with three or more encoding channels for a 2D image. Materials and methods The recently developed 4-Dimensional Radial In/Out (4D-RIO) trajectory is compared in simulations to an alternative higher-order encoding scheme referred to as O-space imaging. Direct comparison of local k-space representations leads to the proposal of a modification to the O-space imaging trajectory based on a scheme of prephasing to improve the reconstructed image quality. Data were collected using a 4D-RIO acquisition in vivo in the human brain and several image reconstructions were compared, exploiting the property that the dense encoding matrix, a...
This chapter presents the basic techniques for generating images with magnetic resonance. First, the...
Although MRI offers highly diagnostic medical imagery, patient access to this modality worldwide is ...
A novel non-invasive imaging method of unique k-space trajectory named “3D center-out EPI with cylin...
Object This work seeks to examine practical aspects of in vivo imaging when spatial encoding is p...
Spatial encoding in MRI is conventionally achieved by the application of switchable linear encoding ...
Magnetic resonance imaging (MRI) is a widely used non-invasive imaging technology for both clinical ...
Purpose: Currently, the time required for image reconstruction is prohibitively long if data are acq...
Magnetic resonance imaging (MRI) typically achieves spatial encoding by measuring the projection of ...
Spatial encoding is a key feature (perhaps the key feature) of Magnetic Resonance Imaging (MRI). Sin...
We present reconstruction methods for radial magnetic resonance imaging (MRI) data which were spatia...
4D-MRI is a promising tool for organ exploration, target delineation and treatment planning. Intra-s...
A technique is described to localize MR signals from a target volume using nonlinear pulsed magnetic...
Purpose While O-Space imaging is well known to accelerate image acquisition beyond traditional Carte...
Imaging the fetal brain in utero is challenging due to the unpredictable motion of the fetus. Althou...
This chapter presents the basic techniques for generating images with magnetic resonance. First, the...
Although MRI offers highly diagnostic medical imagery, patient access to this modality worldwide is ...
A novel non-invasive imaging method of unique k-space trajectory named “3D center-out EPI with cylin...
Object This work seeks to examine practical aspects of in vivo imaging when spatial encoding is p...
Spatial encoding in MRI is conventionally achieved by the application of switchable linear encoding ...
Magnetic resonance imaging (MRI) is a widely used non-invasive imaging technology for both clinical ...
Purpose: Currently, the time required for image reconstruction is prohibitively long if data are acq...
Magnetic resonance imaging (MRI) typically achieves spatial encoding by measuring the projection of ...
Spatial encoding is a key feature (perhaps the key feature) of Magnetic Resonance Imaging (MRI). Sin...
We present reconstruction methods for radial magnetic resonance imaging (MRI) data which were spatia...
4D-MRI is a promising tool for organ exploration, target delineation and treatment planning. Intra-s...
A technique is described to localize MR signals from a target volume using nonlinear pulsed magnetic...
Purpose While O-Space imaging is well known to accelerate image acquisition beyond traditional Carte...
Imaging the fetal brain in utero is challenging due to the unpredictable motion of the fetus. Althou...
This chapter presents the basic techniques for generating images with magnetic resonance. First, the...
Although MRI offers highly diagnostic medical imagery, patient access to this modality worldwide is ...
A novel non-invasive imaging method of unique k-space trajectory named “3D center-out EPI with cylin...