In this paper, two TEM resonators were evaluated experimentally and numerically at 8 tesla
(T)(340 MHz for/sup 1/H imaging). The coils were constructed to be 21.2-cm long (standard) …

Ultra‐high‐field (UHF,≥ 7 T) human magnetic resonance imaging (MRI) provides
undisputed advantages over low‐field MRI (≤ 3 T), but its development remains challenging …

Objective To describe a platform for 4-channel parallel transmission (pTx) integrated on a 3
T MRI system; to demonstrate utility of the platform with a pTx method to reduce localized …

Three‐dimensional (3D) human heart imaging at ultra‐high fields is highly challenging due
to respiratory and cardiac motion‐induced artifacts as well as spatially heterogeneous …

In this paper, a multiport driving mechanism is numerically implemented at ultra high-field
(UHF) magnetic resonance imaging (MRI) to provide 1) homogenous whole-slice (axial …

Purpose The purpose of this work is the design, implementation and evaluation of a
mechanically flexible receive-only coil array for magnetic resonance imaging (MRI) at 3 T …

One of the promises of Ultra High Field (UHF) MRI scanners is to bring finer spatial
resolution in the human brain images due to an increased signal to noise ratio. However, at …

A key step in translational cardiovascular research is the use of large animal models to
better understand normal and abnormal physiology, to test drugs or interventions, or to …

Cardiac MRI may benefit from increased polarization at high magnetic field strength of 3
Tesla but is challenged by increased field inhomogeneity. Initial human studies have shown …

Purpose: A promise of ultra high field MRI is to produce images of the human brain with
higher spatial resolution due to an increased signal to noise ratio. Yet, the shorter …