Subject motion during magnetic resonance imaging (MRI) has been problematic since its
introduction as a clinical imaging modality. While sensitivity to particle motion or blood flow …

Subject motion in MRI is a relevant problem in the daily clinical routine as well as in scientific
studies. Since the beginning of clinical use of MRI, many research groups have developed …

Motion correction in magnetic resonance imaging by real‐time adjustment of the imaging
pulse sequence was first proposed more than 20 years ago. Recent advances have resulted …

We introduce a novel method of prospectively compensating for subject motion in
neuroanatomical imaging. Short three‐dimensional echo‐planar imaging volumetric …

The simultaneous acquisition of electroencephalography (EEG) with functional magnetic
resonance imaging (fMRI) is a very promising non-invasive technique for the study of human …

Physiological and physical motions of the subjects, eg, patients, are the primary sources of
image artifacts in magnetic resonance imaging (MRI), causing geometric distortion, blurring …

Artifacts caused by patient motion during scanning remain a serious problem in most MRI
applications. The prospective motion correction technique attempts to address this problem …

Subject motion and associated artefacts limit the applicability of MRI and the achievable
quality of the images acquired. In this paper, a fully integrated method for prospective …

While the potential for small amounts of motion in functional magnetic resonance imaging
(fMRI) scans to bias the results of functional neuroimaging studies is well appreciated, the …

Purpose The goal of the present study was to use a three‐dimensional (3D) gradient echo
volume in combination with a fat‐selective excitation as a 3D motion navigator (3D FatNav) …