Research in MRI technology has traditionally expanded diagnostic benefit by develo**
acquisition techniques and instrumentation to enable MRI scanners to" see more." This …

The global disparity of magnetic resonance imaging (MRI) is a major challenge, with many
low‐and middle‐income countries (LMICs) experiencing limited access to MRI. The reasons …

Modern clinical MRI systems utilise very high magnetic fields strengths to produce high
resolution images of the human body. The high up-front and maintenance cost of these …

Purpose Point‐of‐care MRI requires operation outside of Faraday shielded rooms normally
used to block image‐degrading electromagnetic interference (EMI). To address this, we …

Purpose The size, cost, and siting requirements of conventional MRI systems limit their
availability and preclude usage as monitoring or point‐of‐care devices. To address this, we …

While access to a laboratory MRI system is ideal for teaching MR physics as well as many
aspects of signal processing, providing multiple MRI scanners can be prohibitively …

While NMR and MRI are often thought of as expensive techniques requiring large
institutional investment, opportunities for low-cost, low-field NMR and MRI abound. We …

Every magnetic resonance imaging (MRI) device requires an electronic control system that
handles pulse sequences and signal detection and processing. Here we provide details on …

Three topics concerning future hardware development for clinical MRI are discussed, with
the general theme of operational simplification:(i) Hardware changes intended to simplify …

Increasing maturation and dissemination of easy-to-use and affordable means of digital
production (eg 3D printing), access to these in makerspaces and FabLabs as well as …