Lectures related to Crystal Diffraction: Phases and Structure Factor

Diffraction-limited storage rings

Explores diffraction-limited storage rings, electron emittance, coherent fraction, and scientific benefits of advanced x-ray techniques.

Wigglers and Undulators: Tuning Photon Energy and Polarization

Covers tuning photon energy, selecting desired energy, varying polarization, APPLE undulators, and rapid switching.

Crystal Structure: Diffraction and Bragg's Law

Explores diffraction principles for observing atomic arrangements and determining crystal structures in solids.

Diffraction Basics IV: Bragg's Law and Rotations

Explains Bragg's law, rotations in space, and the Ewald sphere for diffraction.

Microscopy in situ and TEM Q&A

Explores in situ electron microscopy applications, traction experiments, environmental effects, XRD, and EDS.

X-ray diffraction: history and basics MOOC: Cement Chemistry and Sustainable Cementitious Materials

Explores the history, principles, and applications of X-ray diffraction in cement studies, highlighting key scientific contributions.

Glass Transition: Polymer Properties

Explores glass and melting transitions in polymers, including characterization methods and specific polymer properties.

Surface X-ray Diffraction I

Explores Surface X-ray Diffraction (SXRD) basics, goals, CTRS, and experimental stability for surface analysis.

Synchrotron Radiation

Covers the properties of synchrotron radiation, including its emission by relativistic particles and its effect on the beam through radiation damping.

Solid State Characterization

Covers state-of-the-art methods for solid state characterization and emphasizes choosing the appropriate method for different materials.

Brillouin Scattering: Photonics Tool

Covers Brillouin scattering, a powerful tool in photonics, explaining material density fluctuations' impact on light and the optical effects of inelastic scatterings.

Characterization Techniques in Solid State Chemistry

Explores standard characterization techniques, focusing on x-ray diffraction and its importance in determining crystal structures.

X-ray Fluorescence Spectroscopies

Explores synchrotrons, x-ray spectroscopies, detectors, scanning techniques, and XRF analysis of art pigments.

Atomic Resolution Techniques

Covers synchrotrons, x-ray lasers, and atomic resolution techniques like Cryo-EM and scanning tunneling microscopy.

Electron Theory: Crystallography Basics

Covers crystallography basics for electron theory, including Wigner-Seitz cell, reciprocal lattice, and Brillouin zones.

X-ray Scattering Techniques

Explores x-ray scattering techniques, including radius of gyration, Guinier and Porod regimes, polydispersity, and experimental details.

Dynamical Scattering: TEM Introduction MOOC: Transmission Electron Microscopy for Materials Sciences

Introduces dynamical scattering in TEM, covering single and multiple elastic scattering, 2-beam diffraction, Bloch wave theory, and scattering intensity.

Inside the powder diffraction pattern: XRD1 MOOC: Cement Chemistry and Sustainable Cementitious Materials

Explores powder diffraction patterns, covering peak positions, intensities, widths, shapes, and texture analysis.

Interactions of Neutrons with Matter

Explores the interaction of neutrons with matter, covering cross sections, reaction rates, scattering, absorption, energy dependence, and the Doppler effect.

Beamlines: Primary Optics

Explores techniques for harmonic suppression in synchrotrons and x-ray lasers.

Crystal Diffraction: Phases and Structure Factor

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