Lectures related to Synchrotrons and X-ray Techniques

Macromolecular Crystallography: Techniques and Applications

Explores macromolecular crystallography techniques using synchrotrons and x-ray lasers for large molecules.

Introduction to X-rays and X-ray Sources: Part 3

Explores synchrotron radiation, X-ray sources, scientific achievements, and recent highlights in synchrotron science.

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

Exploring Synchrotron and XFEL Radiation: Applications and Techniques

Covers synchrotron and XFEL radiation, their applications, and experimental techniques across various scientific fields.

X-ray Crystallography and SwissFEL

Delves into X-ray crystallography, protein structures, and the cutting-edge SwissFEL facility.

Introduction to X-rays and X-ray Sources

Covers the basics of x-rays, including generation, interactions, and applications in imaging and scattering techniques.

Synchrotrons and X-ray Techniques

Explores synchrotrons, x-ray techniques, ptychographic tomography, and laminography for high-resolution 3D reconstructions and nondestructive sample studies.

X-ray Techniques and Applications

Explores synchrotrons, x-ray techniques, ptychography, and nondestructive chip architecture study using PyXL.

X-ray Magnetic Imaging Techniques

Covers x-ray magnetic imaging techniques, including XMCD, XRMS, and x-ray optics, for studying magnetic materials and domains.

Protein Folding Dynamics

Explores protein folding dynamics, chaperones, ATP hydrolysis, and DNA folding intricacies within the nucleus.

Protein folding: energy landscapes and molecular dynamics

Covers protein folding, from molecular dynamics to sequence design criteria and the challenges of the energy landscape.

Protein Folding: Mechanisms and Consequences

Explores protein folding, misfolding consequences, chaperones' role, and ATP importance.

Introduction to X-rays and X-ray Sources: Part 2

Compares synchrotrons and X-ray free-electron lasers, emphasizing their brightness for scientific experiments.

Protein Polymers: Biophysics Insights

Delves into protein polymers, discussing co-evolution, diffusion, protein structures, and experimental methods.

Synchrotrons and X-ray Free-Electron Lasers: Techniques and Applications

Explores lensless imaging and coherent X-ray diffractive imaging techniques and applications, including high-resolution 3-D imaging of nanocrystal strain.

Synchrotron Radiation

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

Protein Folding: Basics and Models

Explores protein folding basics, stability, mutations, and computational methods.

Synchrotrons and X-ray Imaging

Explores synchrotrons, X-ray imaging techniques, nanomagnetism, and biological structures at multiple length scales.

X-rays: From Discovery to Applications

Explores the historical perspective, properties, and applications of X-rays, including diffraction, atomic resolution, and spectral colors of elements.

Diffraction Basics IV: Bragg's Law and Rotations

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