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Physics
Nuclear and Particle Physics
Nuclear Magnetic Resonance (NMR)
1. Fundamental Principles of Nuclear Magnetism
2. NMR Instrumentation and Hardware
3. Basic NMR Experiments and Data Acquisition
4. Chemical Shift and Spectral Interpretation
5. Spin-Spin Coupling and Multiplicity
6. Integration and Quantitative Analysis
7. Advanced One-Dimensional Techniques
8. Two-Dimensional NMR Spectroscopy
9. Multinuclear NMR
10. Specialized NMR Techniques
11. NMR Applications and Problem Solving
12. Magnetic Resonance Imaging (MRI)
Multinuclear NMR
Carbon-13 NMR
Natural Abundance Challenges
Low Sensitivity
Long Acquisition Times
Signal Averaging
Proton-Decoupled Spectra
Broadband Decoupling
Spectral Simplification
Quantitative Considerations
DEPT Experiments
Polarization Transfer
Multiplicity Determination
CH₃, CH₂, CH Differentiation
Chemical Shift Interpretation
Functional Group Ranges
Substituent Effects
Stereochemical Information
Nitrogen-15 NMR
Isotopic Labeling
Enrichment Strategies
Biosynthetic Incorporation
Chemical Synthesis
Chemical Shift Ranges
Amines and Amides
Heterocycles
Nitro Compounds
Coupling Patterns
N-H Coupling
Long-Range Effects
Quadrupolar Effects
Fluorine-19 NMR
High Sensitivity
100% Natural Abundance
Large Gyromagnetic Ratio
No Decoupling Required
Chemical Shift Range
Wide Dispersion
Environmental Sensitivity
Reference Standards
Applications
Pharmaceutical Analysis
Polymer Characterization
Metabolic Studies
Phosphorus-31 NMR
Biological Applications
ATP and Energy Metabolism
Membrane Phospholipids
Nucleic Acids
Chemical Applications
Organophosphorus Compounds
Catalysis Studies
Coordination Chemistry
Coupling Patterns
P-H Coupling
P-C Coupling
P-P Coupling
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8. Two-Dimensional NMR Spectroscopy
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10. Specialized NMR Techniques