A deep learning approach for Magnetic Resonance Fingerprinting
Golbabaee, Mohammad, Chen, Dongdong, Gómez, Pedro A., Menzel, Marion I., Davies, Mike E.
As opposed to mainstream qualitative assessments these absolute physical quantities can be used for tissue or pathology identification independent of the scanner or scanning sequences. Unlike conventional quantitative approaches MRF uses i) short and often complicated excitation pulses which encode many NMR parameters simultaneously, and ii) significantly undersampled k-space data. To overcome the lack of sufficient spatiotemporal information MRF incorporates a physical model based on exhaustively simulating a large dictionary of magnetic responses (fingerprints) for all combinations of the quantized NMR parameters. This dictionary is then used for matched-filtering in a model-based reconstruction scheme e.g.
Sep-5-2018
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