Rapid image acquisition and advanced image reconstruction
Compressed sensing
Parallel imaging
Rapid radial imaging
Parallel computing and rapid image reconstruction
Radiofrequency engineering, electrodynamics, and electromagnetic field interactions with tissue
Novel transmit and receive coil design for high-field MRI with previously inaccessible performance
Rigorous coil evaluation against absolute references
Characterization of electrodynamics limits of performance of MR transmit and receive coils
Electrodynamic calculations for coil design and safety assessment
Safety monitoring for RF emitting devices
Noninvasive measurements of the electrical properties of tissue and materials
Simultaneous MR and PET acquisition and joint/synergistic reconstruction
Motion correction
Attenuation correction
Compressed sensing
Joint physiological monitoring
Tailored coil design
Radiochemistry
Biophysical modeling of diffusion and MR relaxation in complex tissue geometries
Monte Carlo simulations in realistic cellular geometries for model validation
Construction of phantoms for precise MRI measurements of diffusion and for model validation
Optimization of clinical MRI acquisitions for parameter estimation of biophysical models
Random matrix theory-based noise mapping, denoising and image reconstruction
Clinical translation of tissue microstructure parameter mapping
More Information
Below, a lecture about the latest technological advances in biomedical imaging given by Dr. Sodickson as a Radiology Grand Rounds seminar at Stanford University in December 2018.
