Although 7-T MRI has recently received approval for use in clinical patient care, there are
distinct safety issues associated with this relatively high magnetic field. Forces on metallic …

Magnetic resonance imaging and spectroscopy (MRI/MRS) at 7T represents an exciting
advance in MR technology, with intriguing possibilities to enhance image spatial, spectral …

Background. The recent use of high and ultra‐high magnetic field (MF) systems (3.0 T and
above) have raised concerns about biologic effects and safety. Sensory symptoms …

With more than 60 installed magnetic resonance imaging (MRI) systems worldwide
operating at a magnetic field strength of 7T or higher, ultrahigh‐field (UHF) MRI has been …

Objective: With increased signal to noise ratios, 7.0-T MRI has the potential to contribute
unique information regarding anatomy and pathophysiology of a disease. However …

Purpose: To determine the subjective experiences and the sources of discomfort for subjects
undergoing 7 T magnetic resonance imaging (MRI) examinations on a whole‐body 7 T …

There are currently more than 50 ultra-high field (7 T and above) MRI systems installed
around the world. The vast majority of these perform studies on humans, whether healthy …

MR scanning began to make an impact in the clinical practice setting in the mid-1970s. At
introduction, the most common systems operated at a field strength of 0.6 T and there was …

Objective One prerequisite for transferring ultra-high-field magnetic resonance imaging
(MRI)(> 3T) into clinical diagnostic workup is a low rate of side effects. To our knowledge …

Magnetic resonance imaging (MRI) has been traditionally regarded as a safe imaging
modality due to the absence of ionising radiation. However, MRI is a source of potential …