Richard D. Dortch

Temporal DeltaB0 and relaxation in the rat heart.

Evidence of multiexponential T2 in rat glioblastoma.

Characterization of 1H NMR signal in human cortical bone for magnetic resonance imaging.

Compartment-specific enhancement of white matter and nerve ex vivo using chromium.

Quantitative magnetization transfer imaging in human brain at 3 T via selective inversion recovery.

A quantitative comparison of the influence of individual versus population-derived vascular input functions on dynamic contrast enhanced-MRI in small animals.

Amide proton transfer imaging of the breast at 3 T: establishing reproducibility and possible feasibility assessing chemotherapy response.

Quantitative magnetization transfer imaging of human brain at 7 T.

Characterizing inter-compartmental water exchange in myelinated tissue using relaxation exchange spectroscopy.

Amide proton transfer imaging of the human breast at 7T: development and reproducibility.

Rapid, high-resolution quantitative magnetization transfer MRI of the human spinal cord.

Fast T2 mapping with multiple echo, Caesar cipher acquisition and model-based reconstruction.

Multi-parametric MRI characterization of healthy human thigh muscles at 3.0 T - relaxation, magnetization transfer, fat/water, and diffusion tensor imaging.

Proximal nerve magnetization transfer MRI relates to disability in Charcot-Marie-Tooth diseases.

A rapid approach for quantitative magnetization transfer imaging in thigh muscles using the pulsed saturation method.

Magnetic resonance imaging of the cervical spinal cord in multiple sclerosis at 7T.

4.7-T diffusion tensor imaging of acute traumatic peripheral nerve injury.

Investigating hydroxyl chemical exchange using a variable saturation power chemical exchange saturation transfer (vCEST) method at 3 T.

Incorporating dixon multi-echo fat water separation for novel quantitative magnetization transfer of the human optic nerve in vivo.

Fast and simplified mapping of mean axon diameter using temporal diffusion spectroscopy.

A novel technique using hydrophilic polymers to promote axonal fusion.

Post-contractile BOLD contrast in skeletal muscle at 7 T reveals inter-individual heterogeneity in the physiological responses to muscle contraction.

A novel therapy to promote axonal fusion in human digital nerves.