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CHEM 146B- Advanced NMR Spectroscopy
CHEM 146B- Advanced NMR Spectroscopy
Thomas C. Pochapsky, Brandeis University, offered Fall semester, 2019, 2 PM-3:20 PM Mondays and Wednesdays.
Thomas C. Pochapsky, Brandeis University, offered Fall semester, 2019, 2 PM-3:20 PM Mondays and Wednesdays.
Cross registration with Tufts, BC, BU, Wellesley available, see Brandeis registrar home page for further information.
Course Description:
Course Description:
A detailed discussion of modern NMR methods will be presented. The course is designed so as to be accessible to nonspecialists, but still provide a strong background in the theory and practice of modern NMR techniques. Topics include the theory of pulse and multidimensional NMR experiments, chemical shift, scalar and dipolar coupling, NOE, spin-operator formalism, heteronuclear and inverse-detection methods, Hartmann-Hahn and spin-locking experiments. Experimental considerations such as pulse sequence design, phase cycling, and gradient methods will be discussed. Guest lecturers will provide insight into particular topics such as solid-state NMR and NMR instrumental design. Usually offered every second year.
Cross-registration with nearby institutions (Tufts, Wellesley, BU, BC) is available. Please send us an email (pochapsk@brandeis.edu) if you are interested in the taking the course.
NMR for Physical and Biological Scientists
NMR for Physical and Biological Scientists
Nuclear Magnetic Resonance spectroscopy is a dynamic way for scientists of all kinds to investigate the physical, chemical, and biological properties of matter. Its many applications make it a versatile tool previously subject to monolithic treatment in reference-style texts. Based on a course taught for over ten years at Brandeis University, this is the first textbook on NMR spectroscopy for a one-semester course or self-instruction. In keeping with the authors' efforts to make it a useful textbook, they have included problems at the end of each chapter.
The book not only covers the latest developments in the field, such as GOESY (Gradient Enhanced Overhauser Spectroscopy) and multidimensional NMR, but includes practical examples using real spectra and associated problem sets. Assuming the reader has a background of chemistry, physics and calculus, this textbook will be ideal for graduate students in chemistry and biochemistry, as well as biology, physics, and biophysics. NMR for Physical and Biological Scientists will also be useful to medical schools, research facilities, and the many chemical, pharmaceutical, and biotech firms that offer in-house instruction on NMR spectroscopy.
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