A novel fast and quiet method of magnetic resonance imaging (MRI) is introduced which
creates new opportunities for imaging in medicine and materials science. The method is …

Spatially tailored radio frequency (RF) excitations accelerated with parallel transmit systems
provide the opportunity to create shaped volume excitations or mitigate inhomogeneous B1 …

A new MRI method is described to acquire a T2‐weighted image from a single slice in a
single shot. The technique is based on rapid acquisition by sequential excitation and …

A novel image encoding approach based on linear frequency‐swept excitation has been
recently proposed to overcome artifacts induced by various field perturbations in single‐shot …

Diffusion‐weighted spectroscopy is a unique tool for exploring the intracellular
microenvironment in vivo. In living systems, diffusion may be anisotropic, when biological …

Purpose Hyperpolarized 13C magnetic resonance allows for the study of real‐time
metabolism in vivo, including significant hyperpolarized 13C lactate production in many …

Frequency‐modulated (FM) pulses have practical advantages for spin‐echo experiments,
such as the ability to produce a broadband π rotation, with an inhomogeneous …

In vivo, high‐field MR spectroscopic imaging (MRSI) profits from signal‐to‐noise ratio (SNR)
gain and increased spectral resolution. However, bandwidth limitations of slice‐selective …

The achievable bandwidth of common linear-phase RF pulses is limited by the maximum
feasible B1 amplitude of the MR system. It has been shown previously, that this limitation …

A technique is described to localize MR signals from a target volume using nonlinear pulsed
magnetic fields and spatial encoding trajectories designed using local k‐space theory. The …