Discover how nuclear magnetic resonance (NMR) spectroscopy works, with this series of topics breaking down the fundamental theory. Covering the electronic environment of atoms right up to demonstrating the practical identification of molecules.
Nuclear magnetic resonance (NMR) spectroscopy is a physicochemical technique used to obtain structural information about molecules. It is based on the physical phenomenon of magnetic resonance that was first demonstrated by Isidor I. Rabi in 1938.
In this editorial, Enrico Ravera gives an overview of the use of paramagnetic metals in NMR and explains how this can provide crucial information about the structure and dynamics of proteins, nucleic ...
The Magritek Spinsolve benchtop NMR spectrometer is equipped with a special Paramagnetic protocol that allows scanning of paramagnetic samples. The acquisition bandwidth is 20kHz relative to the ...
technologynetworks: Solid-State NMR Finds Its Place in Energy Storage Research – Understanding Paramagnetic Materials
Solid-State NMR Finds Its Place in Energy Storage Research – Understanding Paramagnetic Materials
Chemistry and structural biology use the standard methods of NMR spectroscopy (NMR = nuclear magnetic resonance) to examine the structure of molecules including large molecules like proteins in ...
Spectroscopy isn’t just for scientists in lab coats—it’s a toolkit anyone can learn to use for uncovering the hidden architecture of molecules. By combining NMR, IR, and other techniques, chemists can ...
NMR is also routinely used in advanced medical imaging techniques, such as in magnetic resonance imaging (MRI). The original application of NMR to condensed matter physics is nowadays mostly devoted to strongly correlated electron systems.
Nuclear magnetic resonance spectroscopy (NMR) is a widely used and powerful method that takes advantage of the magnetic properties of certain nuclei. The basic principle behind NMR is that some nuclei exist in specific nuclear spin states when exposed to an external magnetic field.