This paper reviews the field of multiple or parallel radiofrequency (RF) transmission for
magnetic resonance imaging (MRI). Currently the use of ultra-high field (UHF) MRI at 7 tesla …

Object To review recent advances of artificial intelligence (AI) in enhancing the efficiency
and throughput of the MRI acquisition workflow in neuroimaging, including planning …

Purpose MRI at ultra‐high fields in the human body is highly challenging and requires
lengthy calibration times to compensate for spatially heterogeneous profiles. This study …

Purpose To introduce and investigate a method for free‐breathing three‐dimensional (3D)
mapping of the human body at ultrahigh field (UHF), which can be used to generate …

Purpose Subject‐tailored parallel transmission pulses for ultra‐high fields body applications
are typically calculated based on subject‐specific B 1+ B _1^+‐maps of all transmit …

Purpose To introduce a new method for generalized RF pulse design using physics‐guided
self‐supervised learning (GPS), which uses the Bloch equations as the guiding physics …

Purpose A calibration‐free pulse design method is introduced to alleviate artifacts in clinical
routine with parallel transmission at high field, dealing with significant inter‐subject …

Three‐dimensional (3D) human heart imaging at ultra‐high fields is highly challenging due
to respiratory and cardiac motion‐induced artifacts as well as spatially heterogeneous …

Spoke trajectory parallel transmit (pTX) excitation in ultra-high field MRI enables B 1+
inhomogeneities arising from the shortened RF wavelength in biological tissue to be …

Purpose Rapid 2DRF pulse design with subject‐specific inhomogeneity and B0 off‐
resonance compensation at 7 T predicted from convolutional neural networks is presented …