Lectures related to Exploring Synchrotron and XFEL Radiation: Applications and Techniques

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.

Basic concepts of photons and x-rays

Explores the interaction of x-rays with matter, matching photon energy, and ionizing radiation.

Inelastic Scattering in Transmission Electron Microscopy

Introduces inelastic scattering in transmission electron microscopy, focusing on electron energy-loss spectroscopy principles and applications.

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

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

Electron Diffraction: Basics & Applications

Explores electron diffraction fundamentals, crystal symmetry, and advanced techniques for materials analysis.

Introduction to X-rays and X-ray Sources

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

Analytical Electron Microscopy: Spectroscopy and Microanalysis

Explores Analytical Electron Microscopy techniques for chemical analysis using EELS and EDX.

Principles of Lasers: Optical Tweezers

Explores the principles of lasers, including lasing transitions and optical tweezers, with applications in various fields.

Interactions of X-rays with Tissue: Rayleigh & Compton

Explains the interactions of x-rays with tissue, emphasizing Rayleigh and Compton scattering.

Instrumental Chemistry Examples

Covers instrumental chemistry techniques like X-ray diffraction and mass spectrometry for analyzing biological compounds.

Diffraction Basics IV: Bragg's Law and Rotations

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

Beamlines: Secondary Optics Part 1

Explores applications of micron and submicron focusing, crystallography, and tomographic reconstructions in beamlines, as well as the need for secondary optics and different types of lenses.

Spectroscopy with Light

Explores the physics of light, covering electromagnetic waves, particles, interference, and the wave-particle dualism.

Ultrafast Lasers and Non-linear Optics

Covers ultrafast lasers, non-linear optics, mode selection, cavity dumping, and chirped pulse amplification, exploring Nobel Prize-winning contributions in physics and chemistry.

Diffraction: Basics

Covers the basics of diffraction phenomena, diffraction patterns, gratings, the diffraction limit, and X-ray techniques.

Diffraction and Interference: Waves Phenomena

Explores diffraction, interference, X-ray diffraction, and light diffusion efficiency.

Optical Methods in Chemistry: Microscopy, Manipulation, Spectroscopy

Explores optical methods in chemistry, covering microscopy, manipulation, and spectroscopy techniques.

Electron Diffraction: Basics & Applications

Covers the basics of electron diffraction, explaining contrast in TEM images and its applications in material analysis.

Optical Tweezers: Basics and Applications

Covers the basics of optical tweezers and their applications in microscopy, manipulation, and spectroscopy, as well as the alignment of molecules using laser pulses.

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

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