High-field (>or=3 T) cardiac MRI is challenged by inhomogeneities of both the static magnetic field (B(0)) and the transmit radiofrequency field (B(1)+). The inhomogeneous B fields not only demand improved shimming methods but also impede the correct determination of the zero-order terms, i.e., the local resonance frequency f(0) and the radiofrequency power to generate the intended local B(1)+ field. In this work, dual echo time B(0)-map and dual flip angle B(1)+-map acquisition methods are combined to acquire multislice B(0)- and B(1)+-maps simultaneously covering the entire heart in a single breath hold of 18 heartbeats. A previously proposed excitation pulse shape dependent slice profile correction is tested and applied to reduce syst...
The purpose of this study was to determine if tailored 2DRF pulses could be used to compensate for i...
Myocardial tissue characterization using T(2)(*) relaxation mapping techniques is an emerging applic...
<p><b>A</b>) Four chamber view of the heart illustrating the positioning of the volume (marked in re...
Cardiac MRI may benefit from increased polarization at high magnetic field strength of 3 Tesla but i...
UnrestrictedCardiovascular magnetic resonance imaging (MRI) is now routinely used for evaluating car...
Purpose Inhomogeneities of the static magnetic B\(_{0}\) field are a major limiting factor in cardi...
For in vivo magnetic resonance imaging at high field (≥3 T) it is essential to consider the homogene...
Cardiac MRI may benefit from increased polarization at high magnetic field strength of 3 Tesla but i...
Purpose/Introduction: MR Spectroscopy is a useful tool for investigating heart disease[1,2], which b...
Cardiac MRI may greatly benefit from ultra high field (UHF) providing higher SNR and intrinsic contr...
Low-field MRI is susceptible to temperature changes in magnet temperature, resulting in time-depende...
<p>This dataset contains all B<sub>1</sub><sup>+</sup> maps and SSFP imaging data measured invivo fo...
Magnetic resonance imaging (MRI) at ultra-high magnetic field strengths offers an increased signal-t...
Objectives: To prospectively evaluate the impact of 3.0 T Cardiac MR imaging using dual-source paral...
<p>Short axis cardiac modulus images (a, d) and B1 maps (b, e) acquired with single-source (a, b) an...
The purpose of this study was to determine if tailored 2DRF pulses could be used to compensate for i...
Myocardial tissue characterization using T(2)(*) relaxation mapping techniques is an emerging applic...
<p><b>A</b>) Four chamber view of the heart illustrating the positioning of the volume (marked in re...
Cardiac MRI may benefit from increased polarization at high magnetic field strength of 3 Tesla but i...
UnrestrictedCardiovascular magnetic resonance imaging (MRI) is now routinely used for evaluating car...
Purpose Inhomogeneities of the static magnetic B\(_{0}\) field are a major limiting factor in cardi...
For in vivo magnetic resonance imaging at high field (≥3 T) it is essential to consider the homogene...
Cardiac MRI may benefit from increased polarization at high magnetic field strength of 3 Tesla but i...
Purpose/Introduction: MR Spectroscopy is a useful tool for investigating heart disease[1,2], which b...
Cardiac MRI may greatly benefit from ultra high field (UHF) providing higher SNR and intrinsic contr...
Low-field MRI is susceptible to temperature changes in magnet temperature, resulting in time-depende...
<p>This dataset contains all B<sub>1</sub><sup>+</sup> maps and SSFP imaging data measured invivo fo...
Magnetic resonance imaging (MRI) at ultra-high magnetic field strengths offers an increased signal-t...
Objectives: To prospectively evaluate the impact of 3.0 T Cardiac MR imaging using dual-source paral...
<p>Short axis cardiac modulus images (a, d) and B1 maps (b, e) acquired with single-source (a, b) an...
The purpose of this study was to determine if tailored 2DRF pulses could be used to compensate for i...
Myocardial tissue characterization using T(2)(*) relaxation mapping techniques is an emerging applic...
<p><b>A</b>) Four chamber view of the heart illustrating the positioning of the volume (marked in re...