Learn · NMR Spectroscopy for Chemists and Biologists
Lecture 49 of 60Week 10 - Two Dimensional Correlation Experiments
Lecture 49 : Two Dimensional Nuclear Overhauser Effect Spectroscopy (2D- NOESY)
Prof. Ashutosh Kumar and Prof. R. V Hosur · IIT Bombay
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All the lectures
- Lecture 1 : Basic concepts
- Lecture 2 : Resonance absorption
- Lecture 3 : Bloch Equations
- Lecture 4 : Relaxation
- Lecture 5 : Introduction to Chemical Shift
- Lecture 6 : Factors affecting Isotropic Chemical Shifts
- Lecture 7 : Spin-Spin Coupling
- Lecture 8 : Interpretation of multiplet structure using first order analysis
- Lecture 9 : Analysis of NMR spectra of molecules
- Lecture 10 : Quantum Mechanical Analysis-Part I
- Lecture 11 : Quantum Mechanical Analysis-Part I I
- Lecture 12 : Dynamic effects in the NMR Spectra
- Lecture 13 : Fourier Transform NMR
- Lecture 14 : Theorems on Fourier Transform
- Lecture 15 : Practical aspects of Fourier Transform NMR spectra
- Lecture 16 : Data Processing in Fourier Transform NMR
- Lecture 17 : Dynamic range in Fourier Transform NMR
- Lecture 18 : Spin Echo and Solvent Suppression
- Lecture 19 : Spin Decoupling in FT NMR and Relaxation Measurements
- Lecture 20 : Polarization Transfer
- Lecture 21 : Nuclear Overhauser Effect
- Lecture 22 : Steady state NOE and Transient NOE
- Lecture 23 : Distance and NOE
- Lecture 24 : Selective Population Inversion
- Lecture 25 : INEPT and Sensitivity Enhancement
- Lecture 26 : Rotating Frame Experiments
- Lecture 27 : Density matrix description of NMR - I
- Lecture 28 : Density matrix description of NMR - II
- Lecture 29 : Density matrix description of NMR - III
- Lecture 30 : Time evolution of density operator
- Lecture 31 : Density matrix description of NMR - IV
- Lecture 32 : Evolution of density operator in the presence of RF
- Lecture 33 : Product operator formalism
- Lecture 34 : Product operator formalism Continued
- Lecture 35 : Product operator formalism Continued
- Lecture 36 : Time evolution of basis operators
- Lecture 37 : Observable and Non-observable basis operators, Spin echo
- Lecture 38 : Spin echo Continued
- Lecture 39 : INEPT
- Lecture 40 : Multidimensional NMR Spectroscopy
- Lecture 41 : Two Dimensional NMR- Part I
- Lecture 42 : Two Dimensional NMR- Part II
- Lecture 43 : Types of 2D NMR Spectra
- Lecture 44 : Two Dimensional Separation of Interaction in NMR
- Lecture 45 : Two Dimensional Correlation Experiments
- Lecture 46 : Two Dimensional Correlation Experiments II
- Lecture 47 : Two Dimensional Correlation Experiments III
- Lecture 48 : Double Quantum Filtered COSY (DQF-COSY)
- Lecture 49 : Two Dimensional Nuclear Overhauser Effect Spectroscopy (2D- NOESY)
- Lecture 50 : Constant-time COSY
- Lecture 51 : Scaling in 2D NMR
- Lecture 52 : Total Correlation Spectroscopy
- Lecture 53 : 2D Heteronuclear Experiment I
- Lecture 54 : 2D Heteronuclear Experiment II
- Lecture 55 : Multidimensional NMR
- Lecture 56: Structure Determination of Peptides by NMR- I
- Lecture 57: Structure Determination of Peptides by NMR- II
- Lecture 58: Protein-Ligand Interaction- I
- Lecture 59: Protein-Ligand Interaction- II
- Lecture 60: Diffusion Ordered Spectroscopy