Contemporary whole-body low-field MRI scanners (< 1 T) present new and exciting
opportunities for improved body imaging. The fundamental reason is that the reduced off …

Advances in MRI technology have led to the development of low-field-strength
(hereafter,“low-field”)(0.55 T) MRI systems with lower weight, fewer shielding requirements …

In March 2022, the first ISMRM Workshop on Low‐Field MRI was held virtually. The goals of
this workshop were to discuss recent low field MRI technology including hardware and …

Low-field magnetic resonance imaging (MRI) has recently experienced a renaissance that is
largely attributable to the numerous technological advancements made in MRI, including …

Modern MRI scanners have trended toward higher field strengths to maximize signal and
resolution while minimizing scan time. However, high‐field devices remain expensive to …

Low-field magnetic resonance imaging (MRI) systems have seen a renaissance recently
due to improvements in technology (both hardware and software). Originally, the …

This review seeks to clarify the most important implications of higher magnetic field strength
for clinical examinations of the whole body. An overview is provided on the resulting …

For about 30 years, MRI set cruising speed at 1.5 T of magnetic field, with a gentle transition
toward 3 T systems. In its first 10 years of existence, there was an open debate on the …

The development of high-field-strength magnetic resonance (MR) imaging systems has
been driven in part by expected improvements in signal-to-noise ratio, contrast-to-noise …

This is the second part of a two-part series on the clinical applications of high-field-strength
(3.0-T) magnetic resonance (MR) imaging and spectroscopy. In this part, the current level of …