Learn · Neutron Scattering for Condensed Matter Studies
Lecture 14 of 69Week 3
Lecture 6B: Correlation function to resolution and accessible(Q,ω). Introducing experimental facilities
Prof. Saibal Basu · Homi Bhabha National Institute
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- Neutron Scattering for Condensed Matter Studies, Homi Bhabha National Institute (at NPTEL)
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- CC BY-NC-SA, as NPTEL states it. Non-commercial use only.
- Attribution
- NPTEL states: "Distributed under Creative Commons Attribution-ShareAlike / CC BY - NC - SA", beside a BY-NC-SA badge. Coordinated by IIT Bombay.
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- Tweens profiles and older. How courses are placed
All the lectures
- Lecture 1A : Introduction to neutrons
- Lecture 1B: Introduction to neutrons
- Lecture 1C: Introduction to neutrons
- Lecture 2A: Deriving neutron scattering cross-section
- Lecture 2B: Deriving neutron scattering cross-section
- Lecture 3A: Scattering theory and introducing dynamics in the formalism
- Lecture 3B: Scattering theory and introducing dynamics in the formalism
- Lecture 3C: Scattering theory and introducing dynamics in the formalism
- Lecture 4A: Scattering law’s correlation with double-Fourier transform of real space correlation function
- Lecture 4B: Scattering law’s correlation with double-Fourier transform of real space correlation function
- Lecture 5A: Correlation function to resolution and accessible(Q,ω) . Introducing experimental facilities
- Lecture 5B: Correlation function to resolution and accessible(Q,ω) . Introducing experimental facilities
- Lecture 6A: Correlation function to resolution and accessible(Q,ω). Introducing experimental facilities
- Lecture 6B: Correlation function to resolution and accessible(Q,ω). Introducing experimental facilities
- Lecture 7A: Introducing resolution and components of neutron scattering facilities
- Lecture 7B: Introducing resolution and components of neutron scattering facilities.
- Lecture 8A: Continue with neutron scattering set up and its components like collimators, filters, detectors etc.
- Lecture 8B: Continue with neutron scattering set up and its components like collimators, filters, detectors etc.
- Lecture 9A: Describe the operation of various kinds of neutron detectors
- Lecture 9B: Describe the operation of various kinds of neutron detectors
- Lecture 10A: Introducing neutron choppers, velocity selectors and polarizers, some important components of beam tailoring devices
- Lecture 10B: Introducing neutron choppers, velocity selectors and polarizers, some important components of beam tailoring devices
- Lecture 11A: Neutron polarizers and spin-flippers
- Lecture 11B: Neutron polarizers and spin-flippers
- Lecture 12A: Diffraction at various length scales at a reactor and at a spallation neutron source
- Lecture 12B: Diffraction at various length scales at a reactor and at a spallation neutron source
- Lecture 13A: Application of neutron crystallography
- Lecture 13B: Application of neutron crystallography
- Lecture 14A: Magnetism in solids
- Lecture 14B: Magnetism in solids
- Lecture 15A: Magnetic interaction in solids and magnetic neutron diffarction
- Lecture 15B: Magnetic interaction in solids and magnetic neutron diffarction
- Lecture 15C: Magnetic interaction in solids and magnetic neutron diffarction-Copy
- Lecture 16A: Magnetic neutron diffraction
- Lecture 16B: Magnetic neutron diffraction
- Lecture 17A: Neutron diffraction from liquid and amorphous systems
- Lecture 17B: Neutron diffraction from liquid and amorphous systems
- Lecture 18A: Small Angle Neutron Scattering (SANS) for mesoscopic structure
- Lecture 18B: Small Angle Neutron Scattering (SANS) for mesoscopic structure
- Lecture 18C: Small Angle Neutron Scattering (SANS) for mesoscopic structure
- Lecture 18D: Small Angle Neutron Scattering (SANS) for mesoscopic structure
- Lecture 19A: SANS for soft condensed matter
- Lecture 19B: SANS for soft condensed matter
- Lecture 20A: SANS for polymers, biological systems, nanoparticle aggregates, rocks, Superconducting vortex lattice
- Lecture 20B: SANS for polymers, biological systems, nanoparticle aggregates, rocks, Superconducting vortex lattice
- Lecture 21A: Neutron reflectometry for thin films
- Lecture 21B: Neutron reflectometry for thin films
- Lecture 21C: Neutron reflectometry for thin films
- Lecture 22A: Details formalism to evaluate specular neutron reflectivity and comparison with x-ray reflectometry
- Lecture 22B: Details formalism to evaluate specular neutron reflectivity and comparison with x-ray reflectometry
- Lecture 23A: Neutron reflectometry data analysis and reflectometers at various sources
- Lecture 23B: Neutron reflectometry data analysis and reflectometers at various sources
- Lecture 23C: Neutron reflectometry data analysis and reflectometers at various sources
- Lecture 24A: Examples of PNR with and without spin analysis and introduction to off-specular reflectometry
- Lecture 24B: Examples of PNR with and without spin analysis and introduction to off-specular reflectometry
- Lecture 24C: Examples of PNR with and without spin analysis and introduction to off-specular reflectometry
- Lecture 25A: Off-specular neutron reflectometry and introduction to inelastic neutron scattering
- Lecture 25B: Off-specular neutron reflectometry and introduction to inelastic neutron scattering
- Lecture 25C: Off-specular neutron reflectometry and introduction to inelastic neutron scattering
- Lecture 26A: Phonon measurements with neutrons
- Lecture 26B: Phonon measurements with neutrons
- Lecture 27A: Aspects of phonon measurements and spectrometers at various sources
- Lecture 27B: Aspects of phonon measurements and spectrometers at various sources
- Lecture 28A: Phonon density of states and Quasi Elastic Neutron Scattering (QENS)
- Lecture 28B: Phonon density of states and Quasi Elastic Neutron Scattering (QENS)
- Lecture 29A: Stochastic motion and various types of diffusion
- Lecture 29B: Stochastic motion and various types of diffusion
- Lecture 30A: Spin echo spectrometer, Summary of the course
- Lecture 30B: Spin echo spectrometer, Summary of the course