http://www.loc.gov/mods/v3 http://www.loc.gov/standards/mods/v3/mods-3-2.xsd
mathematical foundations and applications
Magnetic Resonance Imaging advances a coherent mathematical theory of MRI and presents for the first time a real-world application of non-commutative Fourier analysis. Emphasizing the interdisciplinary nature of clinical MRI, this book offers an intriguing look at the geometric principles underlying the quantum phenomena of biomedical research.
NMR Spectroscopy and Clinical MRI: Historical and Phenomenological Aspects -- The Development of Computerized Pulsed Fourier NMR Spectroscopy and Clinical MRI: First Part -- The Development of Computerized Pulsed Fourier NMR Spectroscopy and Clinical MRI: Second Part -- The NMR and MRI Methodologies Continued -- The Kepplerian Phase-Sensitive Quadrature Detection Strategy -- The Structure-Function Problem in Clinical MRI -- The Planar Coadjoint Orbit Stratification of the Heisenberg Dual -- Quantum Computational Aspects -- Projective Homologies: Affine Dilations and Transvections -- Gradient Echoes and the Affine Wavelet Transform -- Phase-Coherent Wavelet Geometry and Spherical Volume Shims -- The Transvectional Encoding Procedure -- Phase-Locked Synchronized Neural Networks -- Kernel Distributions -- Applications and Synopsis -- Tomographic Morphology: MRI of the Articulatio Genus -- In Vivo Dynamical MRI Visualization: The Human Brain Function -- Retrospect and Conclusions.
Includes bibliographical references (pages 263-283) and index.