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

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 …

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 …

The main risks associated with magnetic resonance imaging (MRI) have been extensively
reported and studied; for example, everyday objects may turn into projectiles, energy …

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 …

The technology used for magnetic resonance (MR) procedures has evolved continuously
during the past 20 years, yielding MR systems with stronger static magnetic fields, faster and …

Over 20 000 MR systems are currently installed worldwide and, although the majority
operate at magnetic fields of 1.5 T and below (ie about 70%), experience with 3‐T (in high …

Magnetic resonance (MR) imaging can provide critical diagnostic and anatomic information
while avoiding the use of ionizing radiation, but it has a unique set of safety risks associated …

The standard of care for managing a patient with an implant is to identify the item and to
assess the relative safety of scanning the patient. Because the 1.5 T MR system is the most …