Nuclear Magnetic Resonance
- Page ID
- 1797
Nuclear Magnetic Resonance (NMR) Spectroscopy uses the electromagnetic radiation of radio waves to probe the local electronic interactions of a nucleus. NMR is a non-destructive technique and has found uses in fields of medicine, chemistry, and environmental science.
- NMR: Experimental
- 2D NMR
- 2D NMR: Indirect Detection
- 2D NMR Background
- 2D NMR Basics
- 2D NMR Experiments
- 2D NMR Introduction
- Heteronuclear Correlations
- Homonuclear Correlations
- Carbon-13 NMR
- Interpreting C-13 NMR Spectra
- Diffusion Ordered Spectroscopy (DOSY)
- Magnetic Resonance Imaging
- NMR: Interpretation
- Integration in NMR
- Pascal’s Triangle
- NMR Hardware
- NMR Spectroscopy in Lab: Complications
- Pulse Sequences
- Phase Cycling and Coherence Transfer Pathways
- Solid State Experiments
- Car-Purcell-Meiboom-Gill (CPMG) Echo Train Acquisition
- Magic Angle Hopping (MAH)
- Solid State NMR Experimental Setup
- NMR: Structural Assignment
- Assignment of structures is a central problem which NMR is well suit to address. Explains how both 13C NMR spectra and low and high resolution proton NMR spectra can be used to help to work out the structures of organic compounds.
- (n+1) Rule
- Background to C-13 NMR
- Determine Structure with Combined Spectra
- High Resolution Proton NMR Spectra
- Integration in Proton NMR
- Interpreting C-13 NMR Spectra
- Introduction to Proton NMR
- Low Resolution Proton NMR Spectra
- More About Electronics
- Multiplicity in Proton NMR
- NMR11. More About Multiplicity
- NMR14. More Practice with NMR Spectroscopy
- NMR2. Carbon-13 NMR
- NMR3. Symmetry in NMR
- NMR4. 13C NMR and Geometry
- NMR5. 13C NMR and Electronics
- NMR8. Chemical Shift in 1H NMR
- NMR Appendix. Useful Charts for NMR identification
- NMR: Theory
- Nuclear magnetic resonance has been play an important role in the fields of physical techniques available to the chemist for more than 25 years. It is becoming a more and more useful method to probe the structure of molecules. The primary object of this module is to understand the fundamental concepts of NMR. It is assumed that the reader already understands the quantum numbers associated with electrons.
- Bloch Equations
- Modifications to Bloch Equations
- Larmor Precession
- NMR Interactions
- Chemical Shift (Shielding)
- Dipolar Coupling
- J Coupling
- Quadrupolar Coupling
- Quantum Mechanic Treatment
- Relaxation
- NMR: Kinetics
- Nuclear Overhauser Effect
- Solomon Equations
- Spin-Spin Relaxation
- Spin Lattice Relaxation
- Rotations and Irreducible Tensor Operators
- NMR: Introduction
- Nuclear Magnetic Resonance (NMR) is a nuceli (Nuclear) specific spectroscopy that has far reaching applications throughout the physical sciences and industry. NMR uses a large magnet (Magnetic) to probe the intrinsic spin properties of atomic nuclei. Like all spectroscopies, NMR uses a component of electromagnetic radiation (radio frequency waves) to promote transitions between nuclear energy levels (Resonance). Most chemists use NMR for structure determination of small molecules.
Thumbnail: A 900MHz NMR instrument with a 21.1 T magnet at HWB-NMR, Birmingham, UK.