Lecture

Large Scale Facilities: Synchrotron and Free Electron Laser

Related lectures (32)

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

Synchrotrons and XFELs Overview

Gives an overview of synchrotrons, XFELs, and their differences in photon and electron energies.

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

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

Free electron lasers

Explores free electron lasers, covering light sources, brilliance, X-ray sources, FEL modes, and electron beam requirements.

Radiation Sources: Overview

Explores radiation sources, including fast electrons, heavy charged particles, and neutrons, discussing their applications and characteristics.

Wigglers and Undulators: Techniques and Applications

Explores wigglers and undulators in synchrotrons and x-ray lasers, focusing on damping wigglers and their thermal management.

Radiation Processes

Covers photon energy transport, different spectra types, and radiation processes in astrophysics.

Bending Magnets and Magnet Lattice: Part 2

Explores radiated power, energy storage, RF power supply, and RF bunching in synchrotrons, emphasizing the role of RF cavities.

Exploring Synchrotron and XFEL Radiation: Applications and Techniques

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

Quantifying Synchrotron Radiation: Part 1

Explores spectral flux, bandwidth, emittance, and brightness of synchrotron radiation, tracing its evolution since Röntgen.

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

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

Photons: Energy Transport

Covers the role of photons in energy transport, energy measurement in astrophysics, photon energy distribution, and various radiation phenomena.

Undulators: Theoretical Principles and Spectral Characteristics

Explores the theoretical principles and spectral characteristics of undulators in synchrotrons and x-ray free-electron lasers.

Radiation Protection: Basics

Covers the interaction of radiations with matter, dose concepts, and radiation shielding.

Synchrotron: Quantum Physics and X-ray Technology

Explores the history of quantum physics, the challenges in constructing x-ray sources, and the use of synchrotron radiation.

Quantifying Synchrotron Radiation: Part 3

Explains single-electron emittance, factors determining emittance, and the diffraction limit in synchrotron radiation.

Bending Magnets and Magnet Lattice

Explores the design and function of bending magnets, quadrupoles, and sextupoles in synchrotrons and x-ray lasers.

X-ray Magnetic Imaging Techniques

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

Basic concepts of photons and x-rays

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

X-ray Techniques and Applications

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