Magnetic resonance imaging (MRI) has been driven toward ultrahigh magnetic fields (UHF)
in order to benefit from correspondingly higher signal-to-noise ratio and spectral resolution …

The potential value of ultrahigh field (UHF) magnetic resonance imaging (MRI) and
spectroscopy to biomedical research and in clinical applications drives the development of …

Purpose A calibration‐free parallel transmission method is investigated to mitigate the
radiofrequency (RF) field inhomogeneity problem in brain imaging at 7 Tesla (T). Theory and …

Purpose To explore the potential of performing body imaging at 10.5 Tesla (T) compared
with 7.0 T through evaluating the transmit/receive performance of similarly configured dipole …

Purpose To mitigate spatial flip angle (FA) variations under strict specific absorption rate
(SAR) constraints for ultra‐high field MRI using a combination of universal parallel transmit …

Purpose This study investigates the implications of all degrees of freedom of within‐scan
patient head motion on patient safety. Methods Electromagnetic simulations were performed …

Purpose A calibration‐free pulse design method is introduced to alleviate artifacts in clinical
routine with parallel transmission at high field, dealing with significant inter‐subject …

The provenance of the recent but exploding interest in ultrahigh magnetic fields (UHF,
defined as 7 Tesla (T) and higher) can be traced back to efforts initiated in the mid-70s …

Specific absorption rate (SAR) relates power absorption to tissue heating, and therefore is
used as a safety constraint in magnetic resonance imaging (MRI). This study investigates the …

One approach to increasing nuclear magnetic resonance measurement sample throughput
is to implement multiple, independent detection sites. However, the presence of radio …