GRAPPA [1] has emerged to be a popular k-space-based parallel imaging reconstruction technique. GRAPPA procedure involves a block-wise reconstruction in which multiple k-space lines from all coils are combined to fit a missing line for each single coil. Recent work has suggested the incorporation of acquired k-space points in both phase encoding (PE) and frequency encoding (FE) directions in the reconstruction [2]. Two main types of error exist for GRAPPA [3]: model error and noise-related error. The model error arises from the use of a limited (or truncated) size of the k-space subset, or kernel, to fit each missing datum. The noise-related erro
Both compressed sensing (CS) and parallel imaging (PI) can be used to accelerate magnetic resonance ...
Abstract—The amount of calibration data needed to produce images of adequate quality can prevent aut...
Magnetic resonance imaging (MRI) is an increasingly versatile diagnostic tool for a variety of medic...
The generalized auto-calibrating partially parallel acquisition (GRAPPA) is an auto-calibrating para...
The extended version of the generalized autocalibrating par-tially parallel acquisition (GRAPPA) tec...
This paper analyzes the famous GRAPPA algorithm, which is one of most widely used image reconstructi...
GRAPPA linearly combines the undersampled k-space signals to estimate the missing k-space signals wh...
The generalized approach to parallel MRI has indicated that the utilization of acquired k-space poin...
For the reconstruction of 3D MRI data that are accelerated along the two phase-encoding directions, ...
In this study, a novel partially parallel acquisition (PPA) method is presented which can be used to...
A novel coefficient penalized regularization method for generalized autocalibrating partially parall...
Purpose: Partially parallel imaging (PPI) greatly accelerates MR imaging by using surface coil array...
Generalized autocalibrating partially parallel acquisition (GRAPPA) has been a widely used parallel ...
Purpose: In partially parallel imaging, most k-space-based reconstruction algorithms such as GRAPPA ...
Generalized autocalibrating partially parallel acquisition (GRAPPA) has been a widely used parallel ...
Both compressed sensing (CS) and parallel imaging (PI) can be used to accelerate magnetic resonance ...
Abstract—The amount of calibration data needed to produce images of adequate quality can prevent aut...
Magnetic resonance imaging (MRI) is an increasingly versatile diagnostic tool for a variety of medic...
The generalized auto-calibrating partially parallel acquisition (GRAPPA) is an auto-calibrating para...
The extended version of the generalized autocalibrating par-tially parallel acquisition (GRAPPA) tec...
This paper analyzes the famous GRAPPA algorithm, which is one of most widely used image reconstructi...
GRAPPA linearly combines the undersampled k-space signals to estimate the missing k-space signals wh...
The generalized approach to parallel MRI has indicated that the utilization of acquired k-space poin...
For the reconstruction of 3D MRI data that are accelerated along the two phase-encoding directions, ...
In this study, a novel partially parallel acquisition (PPA) method is presented which can be used to...
A novel coefficient penalized regularization method for generalized autocalibrating partially parall...
Purpose: Partially parallel imaging (PPI) greatly accelerates MR imaging by using surface coil array...
Generalized autocalibrating partially parallel acquisition (GRAPPA) has been a widely used parallel ...
Purpose: In partially parallel imaging, most k-space-based reconstruction algorithms such as GRAPPA ...
Generalized autocalibrating partially parallel acquisition (GRAPPA) has been a widely used parallel ...
Both compressed sensing (CS) and parallel imaging (PI) can be used to accelerate magnetic resonance ...
Abstract—The amount of calibration data needed to produce images of adequate quality can prevent aut...
Magnetic resonance imaging (MRI) is an increasingly versatile diagnostic tool for a variety of medic...